// ===========Oooo==========================================Oooo======== // = Copyright (C) 2014-2024 Gowin Semiconductor Technology Co.,Ltd. // = All rights reserved. // ===================================================================== // // __ __ __ // \ \ / \ / / [File name ] prim_sim.v // \ \ / /\ \ / / [Description ] GW5AT verilog functional simulation library // \ \/ / \ \/ / [Timestamp ] Fri November 4 11:00:30 2022 // \ / \ / [version ] 1.9.10 // \/ \/ // // ===========Oooo==========================================Oooo======== // MUX2 module mux2 ( O, I0, I1, S ); output logic O; input logic I0, I1, S; always @(*) begin if (S == 1'b0) begin O = I0; end else if (S == 1'b1) begin O = I1; end else begin if (I0 == 1'b0 && I1 == 1'b0) O = 1'b0; else if (I0 == 1'b1 && I1 == 1'b1) O = 1'b1; else O = 1'bx; end end endmodule // primitive mux2 (O, I0, I1, S); // output O; // input I0, I1, S; // table // // I0 I1 S O // 0 ? 0 : 0 ; // 1 ? 0 : 1 ; // x ? 0 : x ; // ? 0 1 : 0 ; // ? 1 1 : 1 ; // ? x 1 : x ; // 0 0 x : 0 ; // 0 1 x : x ; // 1 0 x : x ; // 1 1 x : 1 ; // ? x x : x ; // x ? x : x ; // endtable // endprimitive // MUXes module MUX2 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; mux2 mux2_0 ( O, I0, I1, S0 ); endmodule //MUX2 module MUX2_LUT5 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_lut5 ( O, I0, I1, S0 ); endmodule //MUX2 LUT_5: use two 4-input LUTs and 1 MUX2_LUT_5 to construct 5-input LUT module MUX2_LUT6 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_lut6 ( O, I0, I1, S0 ); endmodule //MUX2 LUT_6: use two 5-input LUTs and 1 MUX2_LUT_6 to construct 6-input LUT module MUX2_LUT7 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_lut7 ( O, I0, I1, S0 ); endmodule //MUX2 LUT_7: use two 6-input LUTs and 1 MUX2_LUT_7 to construct 7-input LUT module MUX2_LUT8 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_lut8 ( O, I0, I1, S0 ); endmodule //MUX2 LUT_8: use two 7-input LUTs and 1 MUX2_LUT_8 to construct 8-input LUT module MUX2_MUX8 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_mux8 ( O, I0, I1, S0 ); endmodule // MUX2_MUX8:use two 4-input MUXs and 1 MUX2_MUX8's to construct 8-input mux module MUX2_MUX16 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_mux16 ( O, I0, I1, S0 ); endmodule //MUX2_MUX16:use two 8-input MUXs and 1 MUX2_MUX8's to construct 16-input mux module MUX2_MUX32 ( O, I0, I1, S0 ); input I0, I1; input S0; output O; MUX2 mux2_mux32 ( O, I0, I1, S0 ); endmodule //MUX2_MUX32:use two 16-input MUXs and 1 MUX2_MUX16's to construct 32-input mux module MUX4 ( O, I0, I1, I2, I3, S0, S1 ); input I0, I1, I2, I3; input S0, S1; output O; wire O1, O2; MUX2 mux2_1 ( O1, I0, I1, S0 ); MUX2 mux2_2 ( O2, I2, I3, S0 ); MUX2 mux2_0 ( O, O1, O2, S1 ); endmodule // MUX4 module MUX8 ( O, I0, I1, I2, I3, I4, I5, I6, I7, S0, S1, S2 ); input I0, I1, I2, I3, I4, I5, I6, I7; input S0, S1, S2; output O; wire O1, O2; MUX4 mux4_1 ( O1, I0, I1, I2, I3, S0, S1 ); MUX4 mux4_2 ( O2, I4, I5, I6, I7, S0, S1 ); MUX2 mux2_0 ( O, O1, O2, S2 ); endmodule //MUX8 module MUX16 ( O, I0, I1, I2, I3, I4, I5, I6, I7, I8, I9, I10, I11, I12, I13, I14, I15, S0, S1, S2, S3 ); input I0, I1, I2, I3, I4, I5, I6, I7, I8, I9, I10, I11, I12, I13, I14, I15; input S0, S1, S2, S3; output O; wire O1, O2; MUX8 mux8_1 ( O1, I0, I1, I2, I3, I4, I5, I6, I7, S0, S1, S2 ); MUX8 mux8_2 ( O2, I8, I9, I10, I11, I12, I13, I14, I15, S0, S1, S2 ); MUX2 mux2_o ( O, O1, O2, S3 ); endmodule module MUX32 ( O, I0, I1, I2, I3, I4, I5, I6, I7, I8, I9, I10, I11, I12, I13, I14, I15, I16, I17, I18, I19, I20, I21, I22, I23, I24, I25, I26, I27, I28, I29, I30, I31, S0, S1, S2, S3, S4 ); input I0, I1, I2, I3, I4, I5, I6, I7, I8, I9, I10, I11, I12, I13, I14, I15, I16, I17, I18, I19, I20, I21, I22, I23, I24, I25, I26, I27, I28, I29, I30, I31; input S0, S1, S2, S3, S4; output O; wire O1, O2; MUX16 mux16_1 ( O1, I0, I1, I2, I3, I4, I5, I6, I7, I8, I9, I10, I11, I12, I13, I14, I15, S0, S1, S2, S3 ); MUX16 mux16_2 ( O2, I16, I17, I18, I19, I20, I21, I22, I23, I24, I25, I26, I27, I28, I29, I30, I31, S0, S1, S2, S3 ); MUX2 mux2_o ( O, O1, O2, S4 ); endmodule //LUTs module LUT1 ( F, I0 ); parameter INIT = 2'h0; input I0; output F; MUX2 lut_1 ( F, INIT[0], INIT[1], I0 ); endmodule //lut1 module LUT2 ( F, I0, I1 ); parameter INIT = 4'h0; input I0, I1; output F; MUX4 lut_2 ( F, INIT[0], INIT[1], INIT[2], INIT[3], I0, I1 ); endmodule //lut2 module LUT3 ( F, I0, I1, I2 ); parameter INIT = 8'h00; input I0, I1, I2; output F; MUX8 lut_3 ( F, INIT[0], INIT[1], INIT[2], INIT[3], INIT[4], INIT[5], INIT[6], INIT[7], I0, I1, I2 ); endmodule //lut3 module LUT4 ( F, I0, I1, I2, I3 ); parameter INIT = 16'h0000; input I0, I1, I2, I3; output F; MUX16 lut_4 ( F, INIT[0], INIT[1], INIT[2], INIT[3], INIT[4], INIT[5], INIT[6], INIT[7], INIT[8], INIT[9], INIT[10], INIT[11], INIT[12], INIT[13], INIT[14], INIT[15], I0, I1, I2, I3 ); endmodule //lut4 module LUT5 ( F, I0, I1, I2, I3, I4 ); parameter INIT = 32'h00000000; input I0, I1, I2, I3, I4; output F; MUX32 lut_5 ( F, INIT[0], INIT[1], INIT[2], INIT[3], INIT[4], INIT[5], INIT[6], INIT[7], INIT[8], INIT[9], INIT[10], INIT[11], INIT[12], INIT[13], INIT[14], INIT[15], INIT[16], INIT[17], INIT[18], INIT[19], INIT[20], INIT[21], INIT[22], INIT[23], INIT[24], INIT[25], INIT[26], INIT[27], INIT[28], INIT[29], INIT[30], INIT[31], I0, I1, I2, I3, I4 ); endmodule //lut5 module LUT6 ( F, I0, I1, I2, I3, I4, I5 ); parameter INIT = 64'h0000_0000_0000_0000; input I0, I1, I2, I3, I4, I5; output F; wire O1, O2; defparam lut5_1.INIT = INIT[31:0]; LUT5 lut5_1 ( O1, I0, I1, I2, I3, I4 ); defparam lut5_2.INIT = INIT[63:32]; LUT5 lut5_2 ( O2, I0, I1, I2, I3, I4 ); MUX2 lut_6 ( F, O1, O2, I5 ); endmodule //lut6 module LUT7 ( F, I0, I1, I2, I3, I4, I5, I6 ); parameter INIT = 128'h0000_0000_0000_0000_0000_0000_0000_0000; input I0, I1, I2, I3, I4, I5, I6; output F; wire O1, O2; defparam lut6_1.INIT = INIT[63:0]; LUT6 lut6_1 ( O1, I0, I1, I2, I3, I4, I5 ); defparam lut6_2.INIT = INIT[127:64]; LUT6 lut6_2 ( O2, I0, I1, I2, I3, I4, I5 ); MUX2 lut_7 ( F, O1, O2, I6 ); endmodule //lut7 module LUT8 ( F, I0, I1, I2, I3, I4, I5, I6, I7 ); parameter INIT = 256'h0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000_0000; input I0, I1, I2, I3, I4, I5, I6, I7; output F; wire O1, O2; defparam lut7_1.INIT = INIT[127:0]; LUT7 lut7_1 ( O1, I0, I1, I2, I3, I4, I5, I6 ); defparam lut7_2.INIT = INIT[255:128]; LUT7 lut7_2 ( O2, I0, I1, I2, I3, I4, I5, I6 ); MUX2 lut_8 ( F, O1, O2, I7 ); endmodule //lut8 // ALU module ALU ( SUM, COUT, I0, I1, I3, CIN ); input I0; input I1; input I3; input CIN; output SUM; output COUT; parameter ADD = 0; parameter SUB = 1; parameter ADDSUB = 2; parameter NE = 3; parameter GE = 4; parameter LE = 5; parameter CUP = 6; parameter CDN = 7; parameter CUPCDN = 8; parameter ALU_MODE = 0; reg S, C; assign SUM = S ^ CIN; assign COUT = S ? CIN : C; always @(I0, I1, I3, CIN) begin case (ALU_MODE) ADD: begin // adder; LSB CIN must be 1'b0 S = I0 ^ I1; C = I0; end SUB: begin // subtractor; LSB CIN must be 1'b1 S = I0 ^ ~I1; C = I0; end ADDSUB: begin // adder subtractor; S = I3 ? I0 ^ I1 : I0 ^ ~I1; C = I0; end NE: begin // not equal to; LSB CIN must be 1'b0 S = I0 ^ ~I1; C = 1'b1; end GE: begin // greater than or equal to; LSB CIN must be 1'b1 S = I0 ^ ~I1; C = I0; end LE: begin // less than or equal to; LSB CIN must be 1'b1 S = ~I0 ^ I1; C = I1; end CUP: begin // up counter; LSB CIN must be 1'b1 S = I0; C = 1'b0; // or equivalently, I0 end CDN: begin // down counter; LSB CIN must be 1'b0 S = ~I0; C = 1'b1; // or equivalently, I0 end CUPCDN: begin // up down counter; I3 as select bit - 1'b0: down counter, LSB CIN must be 1'b0; 1'b1: up counter, LSB CIN must be 1'b1 S = I3 ? I0 : ~I0; C = I0; end default: begin // $display ("%d: Unsupported ALU mode\n", ALU_PARAM); // $finish; end endcase end endmodule // ALU: 2-input arithmetic logic unit // Flip-Flops module DFFSE ( Q, D, CLK, CE, SET ); input D, CLK, SET, CE; output Q; parameter INIT = 1'b1; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(gsrt) begin if (!gsrt) assign Q_reg = INIT; else assign Q_reg = Q_reg; end always @(posedge CLK) begin if (SET) Q_reg <= 1'b1; else if (CE) Q_reg <= D; end assign Q = Q_reg; endmodule // DFFSE (positive clock edge; synchronous set takes precedence over clock enable) module DFFRE ( Q, D, CLK, CE, RESET ); input D, CLK, RESET, CE; output Q; parameter INIT = 1'b0; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(gsrt) begin if (!gsrt) assign Q_reg = INIT; else assign Q_reg = Q_reg; end always @(posedge CLK) begin if (RESET) Q_reg <= 1'b0; else if (CE) Q_reg <= D; end assign Q = Q_reg; endmodule // DFFRE (positive clock edge; synchronous reset takes precedence over clock enable) module DFFPE ( Q, D, CLK, CE, PRESET ); input D, CLK, PRESET, CE; output Q; parameter INIT = 1'b1; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(gsrt or PRESET) begin if (!gsrt) assign Q_reg = INIT; else if (PRESET) assign Q_reg = 1'b1; else assign Q_reg = Q_reg; end always @(posedge CLK) begin if (CE) Q_reg <= D; end assign Q = Q_reg; endmodule // DFFPE (positive clock edge; asynchronous preset; clock enable) module DFFCE ( Q, D, CLK, CE, CLEAR ); input D, CLK, CLEAR, CE; output Q; parameter INIT = 1'b0; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(gsrt or CLEAR) begin if (!gsrt) assign Q_reg = INIT; else if (CLEAR) assign Q_reg = 1'b0; else assign Q_reg = Q_reg; end always @(posedge CLK) begin if (CE) Q_reg <= D; end assign Q = Q_reg; endmodule // DFFCE (positive clock edge; asynchronous clear; clock enable) //Latches module DLCE ( Q, D, G, GE, CLEAR ); input D, G, CLEAR, GE; output Q; parameter INIT = 1'b0; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(D or G or CLEAR or GE or gsrt) begin if (!gsrt) Q_reg <= INIT; else if (CLEAR) Q_reg <= 1'b0; else if (G && GE) Q_reg <= D; end assign Q = Q_reg; endmodule // DLCE (high active latch; asynchronous clear; latch enable) module DLPE ( Q, D, G, GE, PRESET ); input D, G, PRESET, GE; output Q; parameter INIT = 1'b1; reg Q_reg; wire gsrt = GSR.GSRO; initial Q_reg = INIT; always @(D or G or PRESET or GE or gsrt) begin if (!gsrt) Q_reg <= INIT; else if (PRESET) Q_reg <= 1'b1; else if (G && GE) Q_reg <= D; end assign Q = Q_reg; endmodule // DLPE (high active latch; asynchronous preset; latch enable) // RAM16S1 module RAM16S1 ( DO, DI, AD, WRE, CLK ); input CLK; input WRE; input [3:0] AD; input DI; output DO; parameter INIT_0 = 16'h0000; reg [15:0] mem = INIT_0; assign DO = mem[AD]; always @(posedge CLK) begin if (WRE) begin mem[AD] <= DI; end end endmodule // RAM16S1: signal-port S-SRAM(16X1) //RAM16S2 module RAM16S2 ( DO, DI, AD, WRE, CLK ); input CLK; input WRE; input [3:0] AD; input [1:0] DI; output [1:0] DO; parameter INIT_0 = 16'h0000; parameter INIT_1 = 16'h0000; reg [15:0] mem0; reg [15:0] mem1; initial begin mem0 = INIT_0; mem1 = INIT_1; end assign DO[0] = mem0[AD]; assign DO[1] = mem1[AD]; always @(posedge CLK) begin if (WRE) begin mem0[AD] <= DI[0]; mem1[AD] <= DI[1]; end end endmodule // RAM16S2: single-port S-SRAM(16X2) //RAM16S4 module RAM16S4 ( DO, DI, AD, WRE, CLK ); input CLK; input WRE; input [3:0] AD; input [3:0] DI; output [3:0] DO; parameter INIT_0 = 16'h0000; parameter INIT_1 = 16'h0000; parameter INIT_2 = 16'h0000; parameter INIT_3 = 16'h0000; reg [15:0] mem0; reg [15:0] mem1; reg [15:0] mem2; reg [15:0] mem3; initial begin mem0 = INIT_0; mem1 = INIT_1; mem2 = INIT_2; mem3 = INIT_3; end assign DO[0] = mem0[AD]; assign DO[1] = mem1[AD]; assign DO[2] = mem2[AD]; assign DO[3] = mem3[AD]; always @(posedge CLK) begin if (WRE) begin mem0[AD] <= DI[0]; mem1[AD] <= DI[1]; mem2[AD] <= DI[2]; mem3[AD] <= DI[3]; end end endmodule // RAM16S4: single-port S-SRAM(16X4) //RAM16SDP1 module RAM16SDP1 ( DO, DI, WAD, RAD, WRE, CLK ); input CLK; input WRE; input [3:0] WAD; input DI; input [3:0] RAD; output DO; parameter INIT_0 = 16'h0000; reg [15:0] mem; initial mem = INIT_0; assign DO = mem[RAD]; always @(posedge CLK) begin if (WRE) mem[WAD] <= DI; end endmodule // RAM16SDP1: Semi dual-port S-SRAM(16X1) //RAM16SDP2 module RAM16SDP2 ( DO, DI, WAD, RAD, WRE, CLK ); input CLK; input WRE; input [3:0] WAD; input [1:0] DI; input [3:0] RAD; output [1:0] DO; parameter INIT_0 = 16'h0000; parameter INIT_1 = 16'h0000; reg [15:0] mem0; reg [15:0] mem1; initial begin mem0 = INIT_0; mem1 = INIT_1; end assign DO[0] = mem0[RAD]; assign DO[1] = mem1[RAD]; always @(posedge CLK) begin if (WRE) begin mem0[WAD] <= DI[0]; mem1[WAD] <= DI[1]; end end endmodule // RAM16SDP2: Semi dual-port S-SRAM(16X2) //RAM16SDP4 module RAM16SDP4 ( DO, DI, WAD, RAD, WRE, CLK ); input CLK; input WRE; input [3:0] WAD; input [3:0] DI; input [3:0] RAD; output [3:0] DO; parameter INIT_0 = 16'h0000; parameter INIT_1 = 16'h0000; parameter INIT_2 = 16'h0000; parameter INIT_3 = 16'h0000; reg [15:0] mem0; reg [15:0] mem1; reg [15:0] mem2; reg [15:0] mem3; initial begin mem0 = INIT_0; mem1 = INIT_1; mem2 = INIT_2; mem3 = INIT_3; end assign DO[0] = mem0[RAD]; assign DO[1] = mem1[RAD]; assign DO[2] = mem2[RAD]; assign DO[3] = mem3[RAD]; always @(posedge CLK) begin if (WRE) begin mem0[WAD] <= DI[0]; mem1[WAD] <= DI[1]; mem2[WAD] <= DI[2]; mem3[WAD] <= DI[3]; end end endmodule // RAM16SDP4: Semi dual-port S-SRAM(16X4) //ROM16 module ROM16 ( DO, AD ); parameter INIT_0 = 16'h0000; input [3:0] AD; output DO; reg DO; reg [15:0] mem; initial mem = INIT_0; always @(AD) begin DO <= mem[AD]; end endmodule // ROM16: signal-port shadow ROM(16 bit) // Inverter module INV ( O, I ); input I; output O; assign O = !I; endmodule // inv //Misc module GND ( G ); output G; wire G; assign G = 1'b0; endmodule module VCC ( V ); output V; wire V; assign V = 1'b1; endmodule module GSR ( GSRI ); input GSRI; wire GSRO; assign GSRO = GSRI; endmodule //GSR (global set/reset control) //IOBs module IBUF ( O, I ); input I; output O; buf IB (O, I); endmodule //IBUF (input buffer) module OBUF ( O, I ); input I; output O; buf OB (O, I); endmodule //OBUF (output buffer) module TBUF ( O, I, OEN ); input I, OEN; output O; bufif0 TB (O, I, OEN); endmodule // TBUF (output buffer with tri-state control) module IOBUF ( O, IO, I, OEN ); input I, OEN; output O; inout IO; buf OB (O, IO); bufif0 IB (IO, I, OEN); endmodule //IOBUF (inout buffer) //TRUE LVDS module TLVDS_IBUF ( O, I, IB ); output O; input I, IB; reg O_oreg; assign O = O_oreg; always @(I or IB) begin if (I == 1'b1 && IB == 1'b0) O_oreg <= I; else if (I == 1'b0 && IB == 1'b1) O_oreg <= I; else if (I == 1'bx || IB == 1'bx) O_oreg <= 1'bx; end endmodule module TLVDS_OBUF ( O, OB, I ); output O, OB; input I; supply0 gst; bufif0 TB (O, I, gst); notif0 YB (OB, I, gst); endmodule module TLVDS_TBUF ( O, OB, I, OEN ); output O, OB; input I, OEN; bufif0 TB (O, I, OEN); notif0 YB (OB, I, OEN); endmodule module TLVDS_IOBUF ( O, IO, IOB, I, OEN ); output O; inout IO, IOB; input I, OEN; reg O; bufif0 IB (IO, I, OEN); notif0 YB (IOB, I, OEN); always @(IO or IOB) begin if (IO == 1'b1 && IOB == 1'b0) O <= IO; else if (IO == 1'b0 && IOB == 1'b1) O <= IO; else if (IO == 1'bx || IOB == 1'bx) O <= 1'bx; end endmodule //emulated LVDS module ELVDS_OBUF ( O, OB, I ); output O, OB; input I; supply0 gst; bufif0 TB (O, I, gst); notif0 YB (OB, I, gst); endmodule module ELVDS_TBUF ( O, OB, I, OEN ); output O, OB; input I, OEN; bufif0 TB (O, I, OEN); notif0 YB (OB, I, OEN); endmodule module ELVDS_IOBUF ( O, IO, IOB, I, OEN ); output O; inout IO, IOB; input I, OEN; reg O; bufif0 IB (IO, I, OEN); notif0 YB (IOB, I, OEN); always @(IO or IOB) begin if (IO == 1'b1 && IOB == 1'b0) O <= IO; else if (IO == 1'b0 && IOB == 1'b1) O <= IO; else if (IO == 1'bx || IOB == 1'bx) O <= 1'bx; end endmodule //MIPI_IBUF //BUF for mipi input module MIPI_IBUF ( OH, OL, OB, IO, IOB, I, IB, OEN, OENB, HSEN, HSREN ); output OH, OL, OB; inout IO, IOB; input I, IB; input OEN, OENB; input HSEN, HSREN; reg OH; //LP mode bufif0 IL_INST (IO, I, OEN); bufif0 IB_INST (IOB, IB, OENB); assign OL = IO; assign OB = IOB; //HS mode always @(IO or IOB or HSEN) begin if (HSEN) begin if (IO == 1'b1 && IOB == 1'b0) begin OH <= IO; end else if (IO == 1'b0 && IOB == 1'b1) begin OH <= IO; end else if (IO == 1'bx || IOB == 1'bx) begin OH <= 1'bx; end end end endmodule //OBUF for mipi output, gw5a-25 module MIPI_OBUF_A ( O, OB, IO, IOB, I, IB, IL, OEN, OENB, MODESEL ); output O, OB; input I, IB, IL, MODESEL; inout IO, IOB; input OEN, OENB; //LP mode bufif0 IL_INST (IO, IL, (OEN || MODESEL)); bufif0 IB_INST (IOB, IB, (OENB || MODESEL)); bufif0 (O, IO, MODESEL); //LP RX bufif0 (OB, IOB, MODESEL); //HS mode bufif1 I_HS (I_hs, I, MODESEL); bufif0 (IO, I_hs, (OEN || (!MODESEL))); notif0 (IOB, I_hs, (OENB || (!MODESEL))); endmodule //ELVDS_IOBUF with ODT module ELVDS_IOBUF_R ( O, IO, IOB, I, OEN, RTEN ); output O; inout IO, IOB; input I, OEN; input RTEN; reg O; bufif0 IB (IO, I, OEN); notif0 YB (IOB, I, OEN); always @(IO or IOB) begin if (IO == 1'b1 && IOB == 1'b0) O <= IO; else if (IO == 1'b0 && IOB == 1'b1) O <= IO; else if (IO == 1'bx || IOB == 1'bx) O <= 1'bx; end endmodule //IOBUF for I3C mode module I3C_IOBUF ( O, IO, I, MODESEL ); output O; inout IO; input I, MODESEL; reg oreg; buf OB (O, IO); always @(I or MODESEL) begin if (MODESEL == 1'b1) begin //open-drain mode if (I == 1'b0) begin //pull down oreg <= 1'b0; end else begin //floating oreg <= 1'bz; end end else begin //normal mode oreg <= I; end end assign IO = oreg; endmodule //tlvds ibuf for ADC bank1 voltage signal source dynamic selection,GW5A-25 //tlvds ibuf for ADC bank2/3/6/7 voltage signal source dynamic selection,GW5AT-138B module TLVDS_IBUF_ADC ( I, IB, ADCEN ); input I, IB; input ADCEN; endmodule //MIPI_CPHY_IBUF //CPHY BUF for mipi input module MIPI_CPHY_IBUF ( OH0, OL0, OB0, IO0, IOB0, I0, IB0, OH1, OL1, OB1, IO1, IOB1, I1, IB1, OH2, OL2, OB2, IO2, IOB2, I2, IB2, OEN, OENB, HSEN ); output OH0, OL0, OB0, OH1, OL1, OB1, OH2, OL2, OB2; inout IO0, IOB0, IO1, IOB1, IO2, IOB2; input I0, IB0, I1, IB1, I2, IB2; input OEN, OENB; input HSEN; reg OH0, OH1, OH2; ////LP mode //IO0 bufif0 IL_INST0 (IO0, I0, OEN); bufif0 IB_INST0 (IOB0, IB0, OENB); assign OL0 = IO0; assign OB0 = IOB0; //IO1 bufif0 IL_INST1 (IO1, I1, OEN); bufif0 IB_INST1 (IOB1, IB1, OENB); assign OL1 = IO1; assign OB1 = IOB1; //IO2 bufif0 IL_INST2 (IO2, I2, OEN); bufif0 IB_INST2 (IOB2, IB2, OENB); assign OL2 = IO2; assign OB2 = IOB2; ////HS mode //IO0 always @(IO0 or IOB0 or HSEN) begin if (HSEN) begin if (IO0 == 1'b1 && IOB0 == 1'b0) begin OH0 <= IO0; end else if (IO0 == 1'b0 && IOB0 == 1'b1) begin OH0 <= IO0; end else if (IO0 == 1'bx || IOB0 == 1'bx) begin OH0 <= 1'bx; end end end //IO1 always @(IO1 or IOB1 or HSEN) begin if (HSEN) begin if (IO1 == 1'b1 && IOB1 == 1'b0) begin OH1 <= IO1; end else if (IO1 == 1'b0 && IOB1 == 1'b1) begin OH1 <= IO1; end else if (IO1 == 1'bx || IOB1 == 1'bx) begin OH1 <= 1'bx; end end end //IO2 always @(IO2 or IOB2 or HSEN) begin if (HSEN) begin if (IO2 == 1'b1 && IOB2 == 1'b0) begin OH2 <= IO2; end else if (IO2 == 1'b0 && IOB2 == 1'b1) begin OH2 <= IO2; end else if (IO2 == 1'bx || IOB2 == 1'bx) begin OH2 <= 1'bx; end end end endmodule //CPHY OBUF for mipi output module MIPI_CPHY_OBUF ( O0, OB0, IO0, IOB0, I0, IB0, IL0, O1, OB1, IO1, IOB1, I1, IB1, IL1, O2, OB2, IO2, IOB2, I2, IB2, IL2, OEN, OENB, VCOME, MODESEL ); output O0, OB0, O1, OB1, O2, OB2; input I0, IB0, IL0, I1, IB1, IL1, I2, IB2, IL2; inout IO0, IOB0, IO1, IOB1, IO2, IOB2; input OEN, OENB, MODESEL, VCOME; ////LP mode //IO0 bufif0 IL_INST0 (IO0, IL0, (OEN || MODESEL)); bufif0 IB_INST0 (IOB0, IB0, (OENB || MODESEL)); bufif0 (O0, IO0, MODESEL); //LP RX bufif0 (OB0, IOB0, MODESEL); //IO1 bufif0 IL_INST1 (IO1, IL1, (OEN || MODESEL)); bufif0 IB_INST1 (IOB1, IB1, (OENB || MODESEL)); bufif0 (O1, IO1, MODESEL); //LP RX bufif0 (OB1, IOB1, MODESEL); //IO2 bufif0 IL_INST2 (IO2, IL2, (OEN || MODESEL)); bufif0 IB_INST2 (IOB2, IB2, (OENB || MODESEL)); bufif0 (O2, IO2, MODESEL); //LP RX bufif0 (OB2, IOB2, MODESEL); ////HS mode //IO0 bufif1 I_HS0 (I_hs0, I0, MODESEL); bufif0 (IO0, I_hs0, (OEN || (!MODESEL))); notif0 (IOB0, I_hs0, (OENB || (!MODESEL))); //IO1 bufif1 I_HS1 (I_hs1, I1, MODESEL); bufif0 (IO1, I_hs1, (OEN || (!MODESEL))); notif0 (IOB1, I_hs1, (OENB || (!MODESEL))); //IO2 bufif1 I_HS2 (I_hs2, I2, MODESEL); bufif0 (IO2, I_hs2, (OEN || (!MODESEL))); notif0 (IOB2, I_hs2, (OENB || (!MODESEL))); endmodule //Block SRAM module SP ( DO, DI, BLKSEL, AD, WRE, CLK, CE, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter WRITE_MODE = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter BIT_WIDTH = 32; // 1, 2, 4, 8, 16, 32 parameter BLK_SEL = 3'b000; parameter RESET_MODE = "SYNC"; // SYNC, ASYNC parameter INIT_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 256'h0000000000000000000000000000000000000000000000000000000000000000; input CLK, CE; input OCE; // clock enable of memory output register input RESET; // resets output registers, not memory contents input WRE; // 1'b0: read enabled; 1'b1: write enabled input [13:0] AD; input [31:0] DI; input [2:0] BLKSEL; output [31:0] DO; reg [31:0] pl_reg, pl_reg_async, pl_reg_sync; reg [31:0] bp_reg, bp_reg_async, bp_reg_sync; reg bs_en; wire pce; reg [16383:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH-1:0] mem_t; reg mc; reg [13:0] addr; integer dwidth = BIT_WIDTH; integer awidth; // ADDR_WIDTH wire grstn = GSR.GSRO; initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; mc = 1'b0; end initial begin case (dwidth) 1: awidth = 14; 2: awidth = 13; 4: awidth = 12; 8: awidth = 11; 16: awidth = 10; 32: awidth = 9; default: begin // $display ("%d: Unsupported data width\n", dwidth); // $finish; end endcase end assign DO = (READ_MODE == 1'b0) ? bp_reg : pl_reg; assign pce = CE && bs_en && grstn; always @(BLKSEL) begin if (BLKSEL == BLK_SEL) begin bs_en = 1; end else begin bs_en = 0; end end always @(awidth, AD, WRE, mc) begin if (awidth == 14) begin addr[13:0] = AD[13:0]; mem_t[0] = ram_MEM[addr]; end else if (awidth == 13) begin addr[13:0] = {AD[13:1], 1'b0}; mem_t[1:0] = {ram_MEM[addr+1], ram_MEM[addr]}; end else if (awidth == 12) begin addr[13:0] = {AD[13:2], 2'b00}; mem_t[3:0] = {ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr]}; end else if (awidth == 11) begin addr[13:0] = {AD[13:3], 3'b000}; mem_t[7:0] = { ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 10) begin addr[13:0] = {AD[13:4], 4'b0000}; mem_t[15:0] = { ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 9) begin addr[13:0] = {AD[13:5], 5'b00000}; mem_t[31:0] = { ram_MEM[addr+31], ram_MEM[addr+30], ram_MEM[addr+29], ram_MEM[addr+28], ram_MEM[addr+27], ram_MEM[addr+26], ram_MEM[addr+25], ram_MEM[addr+24], ram_MEM[addr+23], ram_MEM[addr+22], ram_MEM[addr+21], ram_MEM[addr+20], ram_MEM[addr+19], ram_MEM[addr+18], ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end end //write and read always @(posedge CLK) begin if (pce) begin if (WRE) begin if (dwidth == 1) ram_MEM[addr] <= DI[0]; else if (dwidth == 2) {ram_MEM[addr+1], ram_MEM[addr]} <= DI[BIT_WIDTH-1:0]; else if (dwidth == 4) {ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr]} <= DI[BIT_WIDTH-1:0]; else if (dwidth == 8) {ram_MEM[addr+7],ram_MEM[addr+6],ram_MEM[addr+5],ram_MEM[addr+4],ram_MEM[addr+3],ram_MEM[addr+2],ram_MEM[addr+1],ram_MEM[addr]}<=DI[7:0]; else if (dwidth == 16) begin if (AD[0] == 1'b1) {ram_MEM[addr+7],ram_MEM[addr+6],ram_MEM[addr+5],ram_MEM[addr+4],ram_MEM[addr+3],ram_MEM[addr+2],ram_MEM[addr+1],ram_MEM[addr]} <= DI[7:0]; if (AD[1] == 1'b1) {ram_MEM[addr+15],ram_MEM[addr+14],ram_MEM[addr+13],ram_MEM[addr+12],ram_MEM[addr+11],ram_MEM[addr+10],ram_MEM[addr+9],ram_MEM[addr+8]} <= DI[15:8]; end else if (dwidth == 32) begin if (AD[0] == 1'b1) {ram_MEM[addr+7],ram_MEM[addr+6],ram_MEM[addr+5],ram_MEM[addr+4],ram_MEM[addr+3],ram_MEM[addr+2],ram_MEM[addr+1],ram_MEM[addr]}<=DI[7:0]; if (AD[1] == 1'b1) {ram_MEM[addr+15],ram_MEM[addr+14],ram_MEM[addr+13],ram_MEM[addr+12],ram_MEM[addr+11],ram_MEM[addr+10],ram_MEM[addr+9],ram_MEM[addr+8]}<=DI[15:8]; if (AD[2] == 1'b1) {ram_MEM[addr+23],ram_MEM[addr+22],ram_MEM[addr+21],ram_MEM[addr+20],ram_MEM[addr+19],ram_MEM[addr+18],ram_MEM[addr+17],ram_MEM[addr+16]} <= DI[23:16]; if (AD[3] == 1'b1) {ram_MEM[addr+31],ram_MEM[addr+30],ram_MEM[addr+29],ram_MEM[addr+28],ram_MEM[addr+27],ram_MEM[addr+26],ram_MEM[addr+25],ram_MEM[addr+24]} <= DI[31:24]; end mc <= ~mc; end end end always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin bp_reg_async <= 0; end else if (RESET) begin bp_reg_async <= 0; end else begin if (pce) begin if (WRE) begin if (WRITE_MODE == 2'b01) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; if (dwidth <= 8) begin bp_reg_async[BIT_WIDTH-1:0] <= DI[BIT_WIDTH-1:0]; end else if (dwidth == 16) begin if (AD[0] == 1'b1) bp_reg_async[7:0] <= DI[7:0]; if (AD[1] == 1'b1) bp_reg_async[15:8] <= DI[15:8]; end else if (dwidth == 32) begin if (AD[0] == 1'b1) bp_reg_async[7:0] <= DI[7:0]; if (AD[1] == 1'b1) bp_reg_async[15:8] <= DI[15:8]; if (AD[2] == 1'b1) bp_reg_async[23:16] <= DI[23:16]; if (AD[3] == 1'b1) bp_reg_async[31:24] <= DI[31:24]; end end if (WRITE_MODE == 2'b10) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end else begin // WRE==0, read bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin bp_reg_sync <= 0; end else if (RESET) begin bp_reg_sync <= 0; end else begin if (pce) begin if (WRE) begin if (WRITE_MODE == 2'b01) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; if (dwidth <= 8) begin bp_reg_sync[BIT_WIDTH-1:0] <= DI[BIT_WIDTH-1:0]; end else if (dwidth == 16) begin if (AD[0] == 1'b1) bp_reg_sync[7:0] <= DI[7:0]; if (AD[1] == 1'b1) bp_reg_sync[15:8] <= DI[15:8]; end else if (dwidth == 32) begin if (AD[0] == 1'b1) bp_reg_sync[7:0] <= DI[7:0]; if (AD[1] == 1'b1) bp_reg_sync[15:8] <= DI[15:8]; if (AD[2] == 1'b1) bp_reg_sync[23:16] <= DI[23:16]; if (AD[3] == 1'b1) bp_reg_sync[31:24] <= DI[31:24]; end end if (WRITE_MODE == 2'b10) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end else begin // WRE==0, read bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end end end endmodule // SP: single port 16k Block SRAM //SPX9 module SPX9 ( DO, DI, BLKSEL, AD, WRE, CLK, CE, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter WRITE_MODE = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter BIT_WIDTH = 36; // 9, 18, 36 parameter BLK_SEL = 3'b000; parameter RESET_MODE = "SYNC"; // SYNC, ASYNC parameter INIT_RAM_00 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; input CLK, CE; input OCE; // clock enable of memory output register input RESET; // resets output registers, not memory contents input WRE; // 1'b0: read enabled; 1'b1: write enabled input [2:0] BLKSEL; input [13:0] AD; input [35:0] DI; output [35:0] DO; reg [35:0] pl_reg, pl_reg_async, pl_reg_sync; reg [35:0] bp_reg, bp_reg_async, bp_reg_sync; reg [18431:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH-1:0] mem_t; reg [14:0] addr; reg mc, bs_en; wire pce; wire grstn = GSR.GSRO; integer dwidth = BIT_WIDTH; integer awidth; // ADDR_WIDTH initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; mc = 1'b0; end initial begin case (dwidth) 9: awidth = 11; 18: awidth = 10; 36: awidth = 9; default: begin // $display ("%d: Unsupported data width\n", dwidth); // $finish; end endcase end assign DO = (READ_MODE == 1'b0) ? bp_reg : pl_reg; assign pce = CE && bs_en && grstn; always @(BLKSEL) begin if (BLKSEL == BLK_SEL) begin bs_en = 1; end else begin bs_en = 0; end end always @(AD, awidth, WRE, mc) begin if (awidth == 11) begin addr[14:0] = AD[13:3] * dwidth; mem_t[8:0] = { ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 10) begin addr[14:0] = AD[13:4] * dwidth; mem_t[17:0] = { ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 9) begin addr[14:0] = AD[13:5] * dwidth; mem_t[35:0] = { ram_MEM[addr+35], ram_MEM[addr+34], ram_MEM[addr+33], ram_MEM[addr+32], ram_MEM[addr+31], ram_MEM[addr+30], ram_MEM[addr+29], ram_MEM[addr+28], ram_MEM[addr+27], ram_MEM[addr+26], ram_MEM[addr+25], ram_MEM[addr+24], ram_MEM[addr+23], ram_MEM[addr+22], ram_MEM[addr+21], ram_MEM[addr+20], ram_MEM[addr+19], ram_MEM[addr+18], ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end end // write and read always @(posedge CLK) begin if (pce) begin if (WRE) begin if (dwidth == 9) {ram_MEM [addr+8],ram_MEM [addr+7], ram_MEM [addr+6], ram_MEM [addr+5], ram_MEM [addr+4], ram_MEM [addr+3], ram_MEM [addr+2], ram_MEM [addr+1], ram_MEM [addr]} <= DI[8:0]; else if (dwidth == 18) begin if (AD[0] == 1'b1) {ram_MEM [addr+8],ram_MEM [addr+7], ram_MEM [addr+6], ram_MEM [addr+5], ram_MEM [addr+4], ram_MEM [addr+3], ram_MEM [addr+2], ram_MEM [addr+1], ram_MEM [addr]} <= DI[8:0]; if (AD[1] == 1'b1) {ram_MEM [addr+17],ram_MEM [addr+16], ram_MEM [addr+15], ram_MEM [addr+14], ram_MEM [addr+13], ram_MEM [addr+12], ram_MEM [addr+11], ram_MEM [addr+10], ram_MEM [addr+9]} <= DI[17:9]; end else if (dwidth == 36) begin if (AD[0] == 1'b1) {ram_MEM [addr+8],ram_MEM [addr+7], ram_MEM [addr+6], ram_MEM [addr+5], ram_MEM [addr+4], ram_MEM [addr+3], ram_MEM [addr+2], ram_MEM [addr+1], ram_MEM [addr]} <= DI[8:0]; if (AD[1] == 1'b1) {ram_MEM [addr+17],ram_MEM [addr+16], ram_MEM [addr+15], ram_MEM [addr+14], ram_MEM [addr+13], ram_MEM [addr+12], ram_MEM [addr+11], ram_MEM [addr+10], ram_MEM [addr+9]} <= DI[17:9]; if (AD[2] == 1'b1) {ram_MEM [addr+26],ram_MEM [addr+25], ram_MEM [addr+24], ram_MEM [addr+23], ram_MEM [addr+22], ram_MEM [addr+21], ram_MEM [addr+20], ram_MEM [addr+19], ram_MEM [addr+18]} <= DI[26:18]; if (AD[3] == 1'b1) {ram_MEM [addr+35],ram_MEM [addr+34], ram_MEM [addr+33], ram_MEM [addr+32], ram_MEM [addr+31], ram_MEM [addr+30], ram_MEM [addr+29], ram_MEM [addr+28], ram_MEM [addr+27]} <= DI[35:27]; end mc <= ~mc; end end end always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin bp_reg_async <= 0; end else if (RESET) begin bp_reg_async <= 0; end else begin if (pce) begin if (WRE) begin if (WRITE_MODE == 2'b01) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; if (dwidth == 9) begin bp_reg_async[BIT_WIDTH-1:0] <= DI[BIT_WIDTH-1:0]; end else if (dwidth == 18) begin if (AD[0] == 1'b1) bp_reg_async[8:0] <= DI[8:0]; if (AD[1] == 1'b1) bp_reg_async[17:9] <= DI[17:9]; end else if (dwidth == 36) begin if (AD[0] == 1'b1) bp_reg_async[8:0] <= DI[8:0]; if (AD[1] == 1'b1) bp_reg_async[17:9] <= DI[17:9]; if (AD[2] == 1'b1) bp_reg_async[26:18] <= DI[26:18]; if (AD[3] == 1'b1) bp_reg_async[35:27] <= DI[35:27]; end end if (WRITE_MODE == 2'b10) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end else begin // WRE==0, read bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin bp_reg_sync <= 0; end else if (RESET) begin bp_reg_sync <= 0; end else begin if (pce) begin if (WRE) begin if (WRITE_MODE == 2'b01) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; if (dwidth == 9) begin bp_reg_sync[BIT_WIDTH-1:0] <= DI[BIT_WIDTH-1:0]; end else if (dwidth == 18) begin if (AD[0] == 1'b1) bp_reg_sync[8:0] <= DI[8:0]; if (AD[1] == 1'b1) bp_reg_sync[17:9] <= DI[17:9]; end else if (dwidth == 36) begin if (AD[0] == 1'b1) bp_reg_sync[8:0] <= DI[8:0]; if (AD[1] == 1'b1) bp_reg_sync[17:9] <= DI[17:9]; if (AD[2] == 1'b1) bp_reg_sync[26:18] <= DI[26:18]; if (AD[3] == 1'b1) bp_reg_sync[35:27] <= DI[35:27]; end end if (WRITE_MODE == 2'b10) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end else begin // WRE==0, read bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end end end endmodule // SPX9: single port 18k Block SRAM //SDPB module SDPB ( DO, DI, BLKSELA, BLKSELB, ADA, ADB, CLKA, CLKB, CEA, CEB, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter BIT_WIDTH_0 = 32; // 1, 2, 4, 8, 16, 32 parameter BIT_WIDTH_1 = 32; // 1, 2, 4, 8, 16, 32 parameter BLK_SEL_0 = 3'b000; parameter BLK_SEL_1 = 3'b000; parameter RESET_MODE = "SYNC"; //SYNC,ASYNC parameter INIT_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 256'h0000000000000000000000000000000000000000000000000000000000000000; input CLKA, CEA, CLKB, CEB; input OCE; // clock enable of memory output register input RESET; // resets output registers, not memory contents input [13:0] ADA, ADB; input [31:0] DI; input [2:0] BLKSELA, BLKSELB; output [31:0] DO; reg [31:0] pl_reg, pl_reg_async, pl_reg_sync; reg [31:0] bp_reg, bp_reg_async, bp_reg_sync; reg [16383:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH_0-1:0] mem_a; reg [BIT_WIDTH_1-1:0] mem_b; reg [13:0] addr_a, addr_b; reg mc, bs_ena, bs_enb; wire pcea; wire pceb; wire grstn = GSR.GSRO; integer bit_width_d0 = BIT_WIDTH_0; integer bit_width_d1 = BIT_WIDTH_1; integer bit_width_a0, bit_width_a1; // ADDR_WIDTH initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; mc = 1'b0; end initial begin case (bit_width_d0) 1: bit_width_a0 = 14; 2: bit_width_a0 = 13; 4: bit_width_a0 = 12; 8: bit_width_a0 = 11; 16: bit_width_a0 = 10; 32: bit_width_a0 = 9; default: begin // $display ("%d: Unsupported data width\n", bit_width_d0); // $finish; end endcase case (bit_width_d1) 1: bit_width_a1 = 14; 2: bit_width_a1 = 13; 4: bit_width_a1 = 12; 8: bit_width_a1 = 11; 16: bit_width_a1 = 10; 32: bit_width_a1 = 9; default: begin // $display ("%d: Unsupported data width\n", bit_width_d1); // $finish; end endcase end assign DO = (READ_MODE == 1'b0) ? bp_reg : pl_reg; assign pcea = CEA && bs_ena && grstn; assign pceb = CEB && bs_enb; always @(BLKSELA, BLKSELB) begin if (BLKSELA == BLK_SEL_0) begin bs_ena = 1; end else begin bs_ena = 0; end if (BLKSELB == BLK_SEL_1) begin bs_enb = 1; end else begin bs_enb = 0; end end always @(ADA, ADB, bit_width_a0, bit_width_a1, mc) begin if (bit_width_a0 == 14) begin addr_a[13:0] = ADA[13:0]; mem_a[0] = ram_MEM[addr_a]; end else if (bit_width_a0 == 13) begin addr_a[13:0] = {ADA[13:1], 1'b0}; mem_a[1:0] = {ram_MEM[addr_a+1], ram_MEM[addr_a]}; end else if (bit_width_a0 == 12) begin addr_a[13:0] = {ADA[13:2], 2'b00}; mem_a[3:0] = {ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a]}; end else if (bit_width_a0 == 11) begin addr_a[13:0] = {ADA[13:3], 3'b000}; mem_a[7:0] = { ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 10) begin addr_a[13:0] = {ADA[13:4], 4'b0000}; mem_a[15:0] = { ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 9) begin addr_a[13:0] = {ADA[13:5], 5'b00000}; mem_a[31:0] = { ram_MEM[addr_a+31], ram_MEM[addr_a+30], ram_MEM[addr_a+29], ram_MEM[addr_a+28], ram_MEM[addr_a+27], ram_MEM[addr_a+26], ram_MEM[addr_a+25], ram_MEM[addr_a+24], ram_MEM[addr_a+23], ram_MEM[addr_a+22], ram_MEM[addr_a+21], ram_MEM[addr_a+20], ram_MEM[addr_a+19], ram_MEM[addr_a+18], ram_MEM[addr_a+17], ram_MEM[addr_a+16], ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end if (bit_width_a1 == 14) begin addr_b[13:0] = ADB[13:0]; mem_b[0] = ram_MEM[addr_b]; end else if (bit_width_a1 == 13) begin addr_b[13:0] = {ADB[13:1], 1'b0}; mem_b[1:0] = {ram_MEM[addr_b+1], ram_MEM[addr_b]}; end else if (bit_width_a1 == 12) begin addr_b[13:0] = {ADB[13:2], 2'b00}; mem_b[3:0] = {ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b]}; end else if (bit_width_a1 == 11) begin addr_b[13:0] = {ADB[13:3], 3'b000}; mem_b[7:0] = { ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 10) begin addr_b[13:0] = {ADB[13:4], 4'b0000}; mem_b[15:0] = { ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 9) begin addr_b[13:0] = {ADB[13:5], 5'b00000}; mem_b[31:0] = { ram_MEM[addr_b+31], ram_MEM[addr_b+30], ram_MEM[addr_b+29], ram_MEM[addr_b+28], ram_MEM[addr_b+27], ram_MEM[addr_b+26], ram_MEM[addr_b+25], ram_MEM[addr_b+24], ram_MEM[addr_b+23], ram_MEM[addr_b+22], ram_MEM[addr_b+21], ram_MEM[addr_b+20], ram_MEM[addr_b+19], ram_MEM[addr_b+18], ram_MEM[addr_b+17], ram_MEM[addr_b+16], ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end end always @(posedge CLKA) begin if (pcea) begin if (bit_width_d0 == 1) ram_MEM[addr_a] <= DI[0]; else if (bit_width_d0 == 2) {ram_MEM[addr_a+1], ram_MEM[addr_a]} <= DI[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 4) {ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DI[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 8) {ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DI[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 16) begin if (ADA[0] == 1'b1) {ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DI[7:0]; if (ADA[1] == 1'b1) {ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9],ram_MEM[addr_a+8]}<=DI[15:8]; end else if (bit_width_d0 == 32) begin if (ADA[0] == 1'b1) {ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DI[7:0]; if (ADA[1] == 1'b1) {ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9],ram_MEM[addr_a+8]}<=DI[15:8]; if (ADA[2] == 1'b1) {ram_MEM[addr_a+23],ram_MEM[addr_a+22],ram_MEM[addr_a+21],ram_MEM[addr_a+20],ram_MEM[addr_a+19],ram_MEM[addr_a+18],ram_MEM[addr_a+17],ram_MEM[addr_a+16]} <=DI[23:16]; if (ADA[3] == 1'b1) {ram_MEM[addr_a+31],ram_MEM[addr_a+30],ram_MEM[addr_a+29],ram_MEM[addr_a+28],ram_MEM[addr_a+27],ram_MEM[addr_a+26],ram_MEM[addr_a+25],ram_MEM[addr_a+24]} <=DI[31:24]; end mc <= ~mc; end end always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLKB or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; bp_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; bp_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end if (pceb) begin bp_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end always @(posedge CLKB or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end if (pceb) begin bp_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end endmodule // SDPB: Semi dual port 16k Block SRAM //SDPX9B module SDPX9B ( DO, DI, BLKSELA, BLKSELB, ADA, ADB, CLKA, CLKB, CEA, CEB, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter BIT_WIDTH_0 = 36; // 9, 18, 36 parameter BIT_WIDTH_1 = 36; // 9, 18, 36 parameter BLK_SEL_0 = 3'b000; parameter BLK_SEL_1 = 3'b000; parameter RESET_MODE = "SYNC"; //SYNC,ASYNC parameter INIT_RAM_00 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; input CLKA, CEA, CLKB, CEB; input OCE; // clock enable of memory output register input RESET; // resets output registers, not memory contents input [13:0] ADA, ADB; input [2:0] BLKSELA, BLKSELB; input [35:0] DI; output [35:0] DO; reg [35:0] bp_reg, bp_reg_async, bp_reg_sync; reg [35:0] pl_reg, pl_reg_async, pl_reg_sync; reg [18431:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH_0-1:0] mem_a; reg [BIT_WIDTH_1-1:0] mem_b; reg [14:0] addr_a, addr_b; reg mc, bs_ena, bs_enb; wire pcea, pceb; integer bit_width_d0 = BIT_WIDTH_0; integer bit_width_d1 = BIT_WIDTH_1; integer bit_width_a0, bit_width_a1; // ADDR_WIDTH wire grstn = GSR.GSRO; initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; mc = 1'b0; end initial begin case (bit_width_d0) 9: bit_width_a0 = 11; 18: bit_width_a0 = 10; 36: bit_width_a0 = 9; default: begin // $display ("%d: Unsupported data width\n", bit_width_d0); // $finish; end endcase case (bit_width_d1) 9: bit_width_a1 = 11; 18: bit_width_a1 = 10; 36: bit_width_a1 = 9; default: begin // $display ("%d: Unsupported data width\n", bit_width_d1); // $finish; end endcase end assign DO = (READ_MODE == 1'b0) ? bp_reg : pl_reg; assign pcea = CEA && bs_ena && grstn; assign pceb = CEB && bs_enb; always @(BLKSELA, BLKSELB) begin if (BLKSELA == BLK_SEL_0) begin bs_ena = 1; end else begin bs_ena = 0; end if (BLKSELB == BLK_SEL_1) begin bs_enb = 1; end else begin bs_enb = 0; end end always @(ADA, ADB, bit_width_a0, bit_width_a1, mc) begin if (bit_width_a0 == 11) begin addr_a[14:0] = ADA[13:3] * bit_width_d0; mem_a[8:0] = { ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 10) begin addr_a[14:0] = ADA[13:4] * bit_width_d0; mem_a[17:0] = { ram_MEM[addr_a+17], ram_MEM[addr_a+16], ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 9) begin addr_a[14:0] = ADA[13:5] * bit_width_d0; mem_a[35:0] = { ram_MEM[addr_a+35], ram_MEM[addr_a+34], ram_MEM[addr_a+33], ram_MEM[addr_a+32], ram_MEM[addr_a+31], ram_MEM[addr_a+30], ram_MEM[addr_a+29], ram_MEM[addr_a+28], ram_MEM[addr_a+27], ram_MEM[addr_a+26], ram_MEM[addr_a+25], ram_MEM[addr_a+24], ram_MEM[addr_a+23], ram_MEM[addr_a+22], ram_MEM[addr_a+21], ram_MEM[addr_a+20], ram_MEM[addr_a+19], ram_MEM[addr_a+18], ram_MEM[addr_a+17], ram_MEM[addr_a+16], ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end if (bit_width_a1 == 11) begin addr_b[14:0] = ADB[13:3] * bit_width_d1; mem_b[8:0] = { ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 10) begin addr_b[14:0] = ADB[13:4] * bit_width_d1; mem_b[17:0] = { ram_MEM[addr_b+17], ram_MEM[addr_b+16], ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 9) begin addr_b[14:0] = ADB[13:5] * bit_width_d1; mem_b[35:0] = { ram_MEM[addr_b+35], ram_MEM[addr_b+34], ram_MEM[addr_b+33], ram_MEM[addr_b+32], ram_MEM[addr_b+31], ram_MEM[addr_b+30], ram_MEM[addr_b+29], ram_MEM[addr_b+28], ram_MEM[addr_b+27], ram_MEM[addr_b+26], ram_MEM[addr_b+25], ram_MEM[addr_b+24], ram_MEM[addr_b+23], ram_MEM[addr_b+22], ram_MEM[addr_b+21], ram_MEM[addr_b+20], ram_MEM[addr_b+19], ram_MEM[addr_b+18], ram_MEM[addr_b+17], ram_MEM[addr_b+16], ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end end always @(posedge CLKA) begin if (pcea) begin if (bit_width_d0 == 9) begin {ram_MEM [addr_a+8],ram_MEM [addr_a+7], ram_MEM [addr_a+6], ram_MEM [addr_a+5], ram_MEM [addr_a+4], ram_MEM [addr_a+3], ram_MEM [addr_a+2], ram_MEM [addr_a+1], ram_MEM [addr_a]} <= DI[8:0]; end else if (bit_width_d0 == 18) begin if (ADA[0] == 1'b1) {ram_MEM [addr_a+8],ram_MEM [addr_a+7], ram_MEM [addr_a+6], ram_MEM [addr_a+5], ram_MEM [addr_a+4], ram_MEM [addr_a+3], ram_MEM [addr_a+2], ram_MEM [addr_a+1], ram_MEM [addr_a]} <= DI[8:0]; if (ADA[1] == 1'b1) {ram_MEM[addr_a+17],ram_MEM[addr_a+16],ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9]} <= DI[17:9]; end else if (bit_width_d0 == 36) begin if (ADA[0] == 1'b1) {ram_MEM [addr_a+8],ram_MEM [addr_a+7], ram_MEM [addr_a+6], ram_MEM [addr_a+5], ram_MEM [addr_a+4], ram_MEM [addr_a+3], ram_MEM [addr_a+2], ram_MEM [addr_a+1], ram_MEM [addr_a]} <= DI[8:0]; if (ADA[1] == 1'b1) {ram_MEM[addr_a+17],ram_MEM[addr_a+16],ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9]} <= DI[17:9]; if (ADA[2] == 1'b1) {ram_MEM[addr_a+26],ram_MEM[addr_a+25],ram_MEM[addr_a+24],ram_MEM[addr_a+23],ram_MEM[addr_a+22],ram_MEM[addr_a+21],ram_MEM[addr_a+20],ram_MEM[addr_a+19],ram_MEM[addr_a+18]} <= DI[26:18]; if (ADA[3] == 1'b1) {ram_MEM[addr_a+35],ram_MEM[addr_a+34],ram_MEM[addr_a+33],ram_MEM[addr_a+32],ram_MEM[addr_a+31],ram_MEM[addr_a+30],ram_MEM[addr_a+29],ram_MEM[addr_a+28],ram_MEM[addr_a+27]} <= DI[35:27]; end mc <= ~mc; end end always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLKB or posedge RESET or negedge grstn) begin if (!grstn) begin bp_reg_async <= 0; pl_reg_async <= 0; end else if (RESET) begin bp_reg_async <= 0; pl_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end if (pceb) begin bp_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end always @(posedge CLKB or negedge grstn) begin if (!grstn) begin bp_reg_sync <= 0; pl_reg_sync <= 0; end else if (RESET) begin bp_reg_sync <= 0; pl_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end if (pceb) begin bp_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end endmodule // SDPX9B: Semi dual port 18k Block SRAM module DPB ( DOA, DOB, DIA, DIB, BLKSELA, BLKSELB, ADA, ADB, WREA, WREB, CLKA, CLKB, CEA, CEB, OCEA, OCEB, RESETA, RESETB ); parameter READ_MODE0 = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter READ_MODE1 = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter WRITE_MODE0 = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter WRITE_MODE1 = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter BIT_WIDTH_0 = 16; // 1, 2, 4, 8, 16 parameter BIT_WIDTH_1 = 16; // 1, 2, 4, 8, 16 parameter BLK_SEL_0 = 3'b000; parameter BLK_SEL_1 = 3'b000; parameter RESET_MODE = "SYNC"; //SYNC, ASYNC parameter INIT_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 256'h0000000000000000000000000000000000000000000000000000000000000000; input CLKA, CEA, CLKB, CEB; input OCEA, OCEB; // clock enable of memory output register input RESETA, RESETB; // resets output registers, not memory contents input WREA, WREB; // 1'b0: read enabled; 1'b1: write enabled input [13:0] ADA, ADB; input [2:0] BLKSELA, BLKSELB; input [15:0] DIA, DIB; output [15:0] DOA, DOB; reg [15:0] bpa_reg, bpa_reg_async, bpa_reg_sync; reg [15:0] pla_reg, pla_reg_async, pla_reg_sync; reg [15:0] bpb_reg, plb_reg, bpb_reg_async, bpb_reg_sync, plb_reg_async, plb_reg_sync; reg [16383:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH_0-1:0] mem_a; reg [BIT_WIDTH_1-1:0] mem_b; reg mc, bs_ena, bs_enb; wire pcea, pceb; reg [13:0] addr_a, addr_b; integer bit_width_d0 = BIT_WIDTH_0; integer bit_width_d1 = BIT_WIDTH_1; integer bit_width_a0, bit_width_a1; // ADDR_WIDTH wire grstn = GSR.GSRO; initial begin bpa_reg = 0; pla_reg = 0; bpb_reg = 0; plb_reg = 0; bpa_reg_async = 0; bpa_reg_sync = 0; pla_reg_async = 0; pla_reg_sync = 0; bpb_reg_async = 0; bpb_reg_sync = 0; plb_reg_async = 0; plb_reg_sync = 0; mc = 1'b0; end initial begin case (bit_width_d0) 1: bit_width_a0 = 14; 2: bit_width_a0 = 13; 4: bit_width_a0 = 12; 8: bit_width_a0 = 11; 16: bit_width_a0 = 10; default: begin // $display ("%d: Unsupported data width\n", bit_width_d0); // $finish; end endcase case (bit_width_d1) 1: bit_width_a1 = 14; 2: bit_width_a1 = 13; 4: bit_width_a1 = 12; 8: bit_width_a1 = 11; 16: bit_width_a1 = 10; default: begin // $display ("%d: Unsupported data width\n", bit_width_d1); // $finish; end endcase end assign DOA = (READ_MODE0 == 1'b0) ? bpa_reg : pla_reg; assign DOB = (READ_MODE1 == 1'b0) ? bpb_reg : plb_reg; assign pcea = CEA && bs_ena && grstn; assign pceb = CEB && bs_enb && grstn; always @(BLKSELA, BLKSELB) begin if (BLKSELA == BLK_SEL_0) begin bs_ena = 1; end else begin bs_ena = 0; end if (BLKSELB == BLK_SEL_1) begin bs_enb = 1; end else begin bs_enb = 0; end end always @(ADA, ADB, bit_width_a0, bit_width_a1, WREA, WREB, mc) begin if (bit_width_a0 == 14) begin addr_a[13:0] = ADA[13:0]; mem_a[0] = ram_MEM[addr_a]; end else if (bit_width_a0 == 13) begin addr_a[13:0] = {ADA[13:1], 1'b0}; mem_a[1:0] = {ram_MEM[addr_a+1], ram_MEM[addr_a]}; end else if (bit_width_a0 == 12) begin addr_a[13:0] = {ADA[13:2], 2'b00}; mem_a[3:0] = {ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a]}; end else if (bit_width_a0 == 11) begin addr_a[13:0] = {ADA[13:3], 3'b000}; mem_a[7:0] = { ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 10) begin addr_a[13:0] = {ADA[13:4], 4'b0000}; mem_a[15:0] = { ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end if (bit_width_a1 == 14) begin addr_b[13:0] = ADB[13:0]; mem_b[0] = ram_MEM[addr_b]; end else if (bit_width_a1 == 13) begin addr_b[13:0] = {ADB[13:1], 1'b0}; mem_b[1:0] = {ram_MEM[addr_b+1], ram_MEM[addr_b]}; end else if (bit_width_a1 == 12) begin addr_b[13:0] = {ADB[13:2], 2'b00}; mem_b[3:0] = {ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b]}; end else if (bit_width_a1 == 11) begin addr_b[13:0] = {ADB[13:3], 3'b000}; mem_b[7:0] = { ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 10) begin addr_b[13:0] = {ADB[13:4], 4'b0000}; mem_b[15:0] = { ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end end always @ (bpa_reg_async or bpa_reg_sync or pla_reg_async or pla_reg_sync or bpb_reg_async or bpb_reg_sync or plb_reg_async or plb_reg_sync) begin if (RESET_MODE == "ASYNC") begin bpa_reg <= bpa_reg_async; pla_reg <= pla_reg_async; bpb_reg <= bpb_reg_async; plb_reg <= plb_reg_async; end else begin bpa_reg <= bpa_reg_sync; pla_reg <= pla_reg_sync; bpb_reg <= bpb_reg_sync; plb_reg <= plb_reg_sync; end end always @(posedge CLKA) begin if (pcea) begin if (WREA) begin if (bit_width_d0 == 1) ram_MEM[addr_a] <= DIA[0]; else if (bit_width_d0 == 2) {ram_MEM[addr_a+1], ram_MEM[addr_a]} <= DIA[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 4) {ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DIA[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 8) {ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]}<=DIA[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 16) begin if (ADA[0] == 1'b1) {ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a]} <= DIA[7:0]; if (ADA[1] == 1'b1) {ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9],ram_MEM[addr_a+8]} <= DIA[15:8]; end mc <= ~mc; end end end always @(posedge CLKA or posedge RESETA or negedge grstn) begin if (!grstn) begin pla_reg_async <= 0; bpa_reg_async <= 0; end else if (RESETA) begin pla_reg_async <= 0; bpa_reg_async <= 0; end else begin if (OCEA) begin pla_reg_async <= bpa_reg; end if (pcea) begin if (WREA) begin if (WRITE_MODE0 == 2'b01) begin bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; if (bit_width_d0 <= 8) bpa_reg_async[BIT_WIDTH_0-1:0] <= DIA[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 16) begin if (ADA[0] == 1'b1) bpa_reg_async[7:0] <= DIA[7:0]; if (ADA[1] == 1'b1) bpa_reg_async[15:8] <= DIA[15:8]; end end if (WRITE_MODE0 == 2'b10) begin bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end else begin // WREA==0, read bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end end end always @(posedge CLKA or negedge grstn) begin if (!grstn) begin pla_reg_sync <= 0; bpa_reg_sync <= 0; end else if (RESETA) begin pla_reg_sync <= 0; bpa_reg_sync <= 0; end else begin if (OCEA) begin pla_reg_sync <= bpa_reg; end if (pcea) begin if (WREA) begin if (WRITE_MODE0 == 2'b01) begin bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; if (bit_width_d0 <= 8) bpa_reg_sync[BIT_WIDTH_0-1:0] <= DIA[BIT_WIDTH_0-1:0]; else if (bit_width_d0 == 16) begin if (ADA[0] == 1'b1) bpa_reg_sync[7:0] <= DIA[7:0]; if (ADA[1] == 1'b1) bpa_reg_sync[15:8] <= DIA[15:8]; end end if (WRITE_MODE0 == 2'b10) begin bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end else begin // WREA==0, read bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end end end always @(posedge CLKB) begin if (pceb) begin if (WREB) begin if (bit_width_d1 == 1) ram_MEM[addr_b] <= DIB[0]; else if (bit_width_d1 == 2) {ram_MEM[addr_b+1], ram_MEM[addr_b]} <= DIB[BIT_WIDTH_1-1:0]; else if (bit_width_d1 == 4) {ram_MEM[addr_b+3],ram_MEM[addr_b+2],ram_MEM[addr_b+1],ram_MEM[addr_b]}<=DIB[BIT_WIDTH_1-1:0]; else if (bit_width_d1 == 8) {ram_MEM[addr_b+7],ram_MEM[addr_b+6],ram_MEM[addr_b+5],ram_MEM[addr_b+4],ram_MEM[addr_b+3],ram_MEM[addr_b+2],ram_MEM[addr_b+1],ram_MEM[addr_b]}<=DIB[BIT_WIDTH_1-1:0]; else if (bit_width_d1 == 16) begin if (ADB[0] == 1'b1) {ram_MEM[addr_b+7],ram_MEM[addr_b+6],ram_MEM[addr_b+5],ram_MEM[addr_b+4],ram_MEM[addr_b+3],ram_MEM[addr_b+2],ram_MEM[addr_b+1],ram_MEM[addr_b]} <= DIB[7:0]; if (ADB[1] == 1'b1) {ram_MEM[addr_b+15],ram_MEM[addr_b+14],ram_MEM[addr_b+13],ram_MEM[addr_b+12],ram_MEM[addr_b+11],ram_MEM[addr_b+10],ram_MEM[addr_b+9],ram_MEM[addr_b+8]} <= DIB[15:8]; end mc <= ~mc; end end end always @(posedge CLKB or posedge RESETB or negedge grstn) begin if (!grstn) begin plb_reg_async <= 0; bpb_reg_async <= 0; end else if (RESETB) begin plb_reg_async <= 0; bpb_reg_async <= 0; end else begin if (OCEB) begin plb_reg_async <= bpb_reg; end if (pceb) begin if (WREB) begin if (WRITE_MODE1 == 2'b01) begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; if (bit_width_d1 <= 8) bpb_reg_async[BIT_WIDTH_1-1:0] <= DIB[BIT_WIDTH_1-1:0]; else if (bit_width_d1 == 16) begin if (ADB[0] == 1'b1) bpb_reg_async[7:0] <= DIB[7:0]; if (ADB[1] == 1'b1) bpb_reg_async[15:8] <= DIB[15:8]; end end if (WRITE_MODE1 == 2'b10) begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end else begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end end always @(posedge CLKB or negedge grstn) begin if (!grstn) begin plb_reg_sync <= 0; bpb_reg_sync <= 0; end else if (RESETB) begin plb_reg_sync <= 0; bpb_reg_sync <= 0; end else begin if (OCEB) begin plb_reg_sync <= bpb_reg; end if (pceb) begin if (WREB) begin if (WRITE_MODE1 == 2'b01) begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; if (bit_width_d1 <= 8) bpb_reg_sync[BIT_WIDTH_1-1:0] <= DIB[BIT_WIDTH_1-1:0]; else if (bit_width_d1 == 16) begin if (ADB[0] == 1'b1) bpb_reg_sync[7:0] <= DIB[7:0]; if (ADB[1] == 1'b1) bpb_reg_sync[15:8] <= DIB[15:8]; end end if (WRITE_MODE1 == 2'b10) begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end else begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end end endmodule // DPB: true dual port 16k Block SRAM //DPX9B module DPX9B ( DOA, DOB, DIA, DIB, BLKSELA, BLKSELB, ADA, ADB, WREA, WREB, CLKA, CLKB, CEA, CEB, OCEA, OCEB, RESETA, RESETB ); parameter READ_MODE0 = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter READ_MODE1 = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter WRITE_MODE0 = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter WRITE_MODE1 = 2'b00; // 2'b00: normal mode; 2'b01: write-through mode; 2'b10: read-before-write mode parameter BIT_WIDTH_0 = 18; // 9, 18 parameter BIT_WIDTH_1 = 18; // 9, 18 parameter BLK_SEL_0 = 3'b000; parameter BLK_SEL_1 = 3'b000; parameter RESET_MODE = "SYNC"; //SYNC,ASYNC parameter INIT_RAM_00 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; input CLKA, CEA, CLKB, CEB; input OCEA, OCEB; // clock enable of memory output register input RESETA, RESETB; // resets output registers, not memory contents input WREA, WREB; // 1'b0: read enabled; 1'b1: write enabled input [13:0] ADA, ADB; input [17:0] DIA, DIB; input [2:0] BLKSELA, BLKSELB; output [17:0] DOA, DOB; reg [17:0] bpa_reg, bpb_reg, bpa_reg_async, bpb_reg_async, bpa_reg_sync, bpb_reg_sync; reg [17:0] pla_reg, plb_reg, pla_reg_async, plb_reg_async, pla_reg_sync, plb_reg_sync; reg [18431:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH_0-1:0] mem_a; reg [BIT_WIDTH_1-1:0] mem_b; reg mc, bs_ena, bs_enb; wire pcea, pceb; integer bit_width_d0 = BIT_WIDTH_0; integer bit_width_d1 = BIT_WIDTH_1; integer bit_width_a0, bit_width_a1; // ADDR_WIDTH reg [14:0] addr_a, addr_b; wire grstn = GSR.GSRO; initial begin bpa_reg = 0; bpb_reg = 0; pla_reg = 0; plb_reg = 0; bpa_reg_async = 0; bpa_reg_sync = 0; pla_reg_async = 0; pla_reg_sync = 0; bpb_reg_async = 0; bpb_reg_sync = 0; plb_reg_async = 0; plb_reg_sync = 0; mc = 1'b0; end initial begin case (bit_width_d0) 9: bit_width_a0 = 11; 18: bit_width_a0 = 10; default: begin // $display ("%d: Unsupported data width\n", bit_width_d0); // $finish; end endcase case (bit_width_d1) 9: bit_width_a1 = 11; 18: bit_width_a1 = 10; default: begin // $display ("%d: Unsupported data width\n", bit_width_d1); // $finish; end endcase end assign DOA = (READ_MODE0 == 1'b0) ? bpa_reg : pla_reg; assign DOB = (READ_MODE1 == 1'b0) ? bpb_reg : plb_reg; assign pcea = CEA && bs_ena && grstn; assign pceb = CEB && bs_enb && grstn; always @(BLKSELA, BLKSELB) begin if (BLKSELA == BLK_SEL_0) begin bs_ena = 1; end else begin bs_ena = 0; end if (BLKSELB == BLK_SEL_1) begin bs_enb = 1; end else begin bs_enb = 0; end end always @(ADA, ADB, bit_width_a0, bit_width_a1, WREA, WREB, mc) begin if (bit_width_a0 == 11) begin addr_a[14:0] = ADA[13:3] * bit_width_d0; mem_a[8:0] = { ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end else if (bit_width_a0 == 10) begin addr_a[14:0] = ADA[13:4] * bit_width_d0; mem_a[17:0] = { ram_MEM[addr_a+17], ram_MEM[addr_a+16], ram_MEM[addr_a+15], ram_MEM[addr_a+14], ram_MEM[addr_a+13], ram_MEM[addr_a+12], ram_MEM[addr_a+11], ram_MEM[addr_a+10], ram_MEM[addr_a+9], ram_MEM[addr_a+8], ram_MEM[addr_a+7], ram_MEM[addr_a+6], ram_MEM[addr_a+5], ram_MEM[addr_a+4], ram_MEM[addr_a+3], ram_MEM[addr_a+2], ram_MEM[addr_a+1], ram_MEM[addr_a] }; end if (bit_width_a1 == 11) begin addr_b[14:0] = ADB[13:3] * bit_width_d1; mem_b[8:0] = { ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end else if (bit_width_a1 == 10) begin addr_b[14:0] = ADB[13:4] * bit_width_d1; mem_b[17:0] = { ram_MEM[addr_b+17], ram_MEM[addr_b+16], ram_MEM[addr_b+15], ram_MEM[addr_b+14], ram_MEM[addr_b+13], ram_MEM[addr_b+12], ram_MEM[addr_b+11], ram_MEM[addr_b+10], ram_MEM[addr_b+9], ram_MEM[addr_b+8], ram_MEM[addr_b+7], ram_MEM[addr_b+6], ram_MEM[addr_b+5], ram_MEM[addr_b+4], ram_MEM[addr_b+3], ram_MEM[addr_b+2], ram_MEM[addr_b+1], ram_MEM[addr_b] }; end end always @ (bpa_reg_async or bpa_reg_sync or pla_reg_async or pla_reg_sync or bpb_reg_async or bpb_reg_sync or plb_reg_async or plb_reg_sync) begin if (RESET_MODE == "ASYNC") begin bpa_reg <= bpa_reg_async; pla_reg <= pla_reg_async; bpb_reg <= bpb_reg_async; plb_reg <= plb_reg_async; end else begin bpa_reg <= bpa_reg_sync; pla_reg <= pla_reg_sync; bpb_reg <= bpb_reg_sync; plb_reg <= plb_reg_sync; end end always @(posedge CLKA) begin if (pcea) begin if (WREA) begin if (bit_width_d0 == 9) { ram_MEM[addr_a+8],ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a] } <= DIA[8:0]; else if (bit_width_d0 == 18) begin if (ADA[0] == 1'b1) { ram_MEM[addr_a+8],ram_MEM[addr_a+7],ram_MEM[addr_a+6],ram_MEM[addr_a+5],ram_MEM[addr_a+4],ram_MEM[addr_a+3],ram_MEM[addr_a+2],ram_MEM[addr_a+1],ram_MEM[addr_a] } <= DIA[8:0]; if (ADA[1] == 1'b1) { ram_MEM[addr_a+17],ram_MEM[addr_a+16],ram_MEM[addr_a+15],ram_MEM[addr_a+14],ram_MEM[addr_a+13],ram_MEM[addr_a+12],ram_MEM[addr_a+11],ram_MEM[addr_a+10],ram_MEM[addr_a+9]} <= DIA[17:9]; end mc <= ~mc; end end end always @(posedge CLKA or posedge RESETA or negedge grstn) begin if (!grstn) begin pla_reg_async <= 0; bpa_reg_async <= 0; end else if (RESETA) begin pla_reg_async <= 0; bpa_reg_async <= 0; end else begin if (OCEA) begin pla_reg_async <= bpa_reg; end if (pcea) begin if (WREA) begin if (WRITE_MODE0 == 2'b01) begin bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; if (bit_width_d0 == 9) bpa_reg_async[8:0] <= DIA[8:0]; else if (bit_width_d0 == 18) begin if (ADA[0] == 1'b1) bpa_reg_async[8:0] <= DIA[8:0]; if (ADA[1] == 1'b1) bpa_reg_async[17:9] <= DIA[17:9]; end end if (WRITE_MODE0 == 2'b10) begin bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end else begin // WREA==0, read bpa_reg_async[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end end end always @(posedge CLKA or negedge grstn) begin if (!grstn) begin pla_reg_sync <= 0; bpa_reg_sync <= 0; end else if (RESETA) begin pla_reg_sync <= 0; bpa_reg_sync <= 0; end else begin if (OCEA) begin pla_reg_sync <= bpa_reg; end if (pcea) begin if (WREA) begin if (WRITE_MODE0 == 2'b01) begin bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; if (bit_width_d0 == 9) bpa_reg_sync[8:0] <= DIA[8:0]; else if (bit_width_d0 == 18) begin if (ADA[0] == 1'b1) bpa_reg_sync[8:0] <= DIA[8:0]; if (ADA[1] == 1'b1) bpa_reg_sync[17:9] <= DIA[17:9]; end end if (WRITE_MODE0 == 2'b10) begin bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end else begin // WREA==0, read bpa_reg_sync[BIT_WIDTH_0-1:0] <= mem_a[BIT_WIDTH_0-1:0]; end end end end always @(posedge CLKB) begin if (pceb) begin if (WREB) begin if (bit_width_d1 == 9) { ram_MEM[addr_b+8],ram_MEM[addr_b+7],ram_MEM[addr_b+6],ram_MEM[addr_b+5],ram_MEM[addr_b+4],ram_MEM[addr_b+3],ram_MEM[addr_b+2],ram_MEM[addr_b+1],ram_MEM[addr_b] } <= DIB[8:0]; else if (bit_width_d1 == 18) begin if (ADB[0] == 1'b1) { ram_MEM[addr_b+8],ram_MEM[addr_b+7],ram_MEM[addr_b+6],ram_MEM[addr_b+5],ram_MEM[addr_b+4],ram_MEM[addr_b+3],ram_MEM[addr_b+2],ram_MEM[addr_b+1],ram_MEM[addr_b] } <= DIB[8:0]; if (ADB[1] == 1'b1) {ram_MEM[addr_b+17],ram_MEM[addr_b+16],ram_MEM[addr_b+15],ram_MEM[addr_b+14],ram_MEM[addr_b+13],ram_MEM[addr_b+12],ram_MEM[addr_b+11],ram_MEM[addr_b+10], ram_MEM[addr_b+9]} <= DIB[17:9]; end mc <= ~mc; end end end always @(posedge CLKB or posedge RESETB or negedge grstn) begin if (!grstn) begin plb_reg_async <= 0; bpb_reg_async <= 0; end else if (RESETB) begin plb_reg_async <= 0; bpb_reg_async <= 0; end else begin if (OCEB) begin plb_reg_async <= bpb_reg; end if (pceb) begin if (WREB) begin if (WRITE_MODE1 == 2'b01) begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; if (bit_width_d1 == 9) bpb_reg_async[8:0] <= DIB[8:0]; else if (bit_width_d1 == 18) begin if (ADB[0] == 1'b1) bpb_reg_async[8:0] <= DIB[8:0]; if (ADB[1] == 1'b1) bpb_reg_async[17:9] <= DIB[17:9]; end end if (WRITE_MODE1 == 2'b10) begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end else begin bpb_reg_async[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end end always @(posedge CLKB or negedge grstn) begin if (!grstn) begin plb_reg_sync <= 0; bpb_reg_sync <= 0; end else if (RESETB) begin plb_reg_sync <= 0; bpb_reg_sync <= 0; end else begin if (OCEB) begin plb_reg_sync <= bpb_reg; end if (pceb) begin if (WREB) begin if (WRITE_MODE1 == 2'b01) begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; if (bit_width_d1 == 9) bpb_reg_sync[8:0] <= DIB[8:0]; else if (bit_width_d1 == 18) begin if (ADB[0] == 1'b1) bpb_reg_sync[8:0] <= DIB[8:0]; if (ADB[1] == 1'b1) bpb_reg_sync[17:9] <= DIB[17:9]; end end if (WRITE_MODE1 == 2'b10) begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end else begin bpb_reg_sync[BIT_WIDTH_1-1:0] <= mem_b[BIT_WIDTH_1-1:0]; end end end end endmodule // DPX9B: true dual port 18k Block SRAM //pROM module pROM ( DO, AD, CLK, CE, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter BIT_WIDTH = 32; // 1, 2, 4, 8, 16, 32 parameter RESET_MODE = "SYNC"; //SYNC, ASYNC parameter INIT_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 256'h0000000000000000000000000000000000000000000000000000000000000000; input CLK, CE; input OCE; // clock enable of memory output register input RESET; // resets registers, not memory contents input [13:0] AD; output [31:0] DO; reg [31:0] bp_reg, bp_reg_async, bp_reg_sync; reg [31:0] pl_reg, pl_reg_async, pl_reg_sync; reg [16383:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH-1:0] mem_t; reg [13:0] addr; integer dwidth = BIT_WIDTH; integer awidth; // ADDR_WIDTH wire grstn = GSR.GSRO; initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; end initial begin case (dwidth) 1: begin awidth = 14; end 2: begin awidth = 13; end 4: begin awidth = 12; end 8: begin awidth = 11; end 16: begin awidth = 10; end 32: begin awidth = 9; end default: begin // $display ("%d: Unsupported data width\n", dwidth); // $finish; end endcase end always @(AD, awidth) begin if (awidth == 14) begin addr[13:0] = AD[13:0]; mem_t[0] = ram_MEM[addr]; end else if (awidth == 13) begin addr[13:0] = {AD[13:1], 1'b0}; mem_t[1:0] = {ram_MEM[addr+1], ram_MEM[addr]}; end else if (awidth == 12) begin addr[13:0] = {AD[13:2], 2'b00}; mem_t[3:0] = {ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr]}; end else if (awidth == 11) begin addr[13:0] = {AD[13:3], 3'b000}; mem_t[7:0] = { ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 10) begin addr[13:0] = {AD[13:4], 4'b0000}; mem_t[15:0] = { ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 9) begin addr[13:0] = {AD[13:5], 5'b00000}; mem_t[31:0] = { ram_MEM[addr+31], ram_MEM[addr+30], ram_MEM[addr+29], ram_MEM[addr+28], ram_MEM[addr+27], ram_MEM[addr+26], ram_MEM[addr+25], ram_MEM[addr+24], ram_MEM[addr+23], ram_MEM[addr+22], ram_MEM[addr+21], ram_MEM[addr+20], ram_MEM[addr+19], ram_MEM[addr+18], ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end end assign DO = (READ_MODE === 1'b0) ? bp_reg : pl_reg; always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; bp_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; bp_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end if (CE) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end if (CE) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end endmodule //pROM //pROMX9 module pROMX9 ( DO, AD, CLK, CE, OCE, RESET ); parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter BIT_WIDTH = 36; // 9, 18, 36 parameter RESET_MODE = "SYNC"; //SYNC,ASYNC parameter INIT_RAM_00 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 288'h000000000000000000000000000000000000000000000000000000000000000000000000; input CLK, CE; input OCE; // clock enable of memory output register input RESET; // resets registers, not memory contents input [13:0] AD; output [35:0] DO; reg [35:0] bp_reg, bp_reg_async, bp_reg_sync; reg [35:0] pl_reg, pl_reg_async, pl_reg_sync; reg [18431:0] ram_MEM = { INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; reg [BIT_WIDTH-1:0] mem_t; reg [14:0] addr; integer dwidth = BIT_WIDTH; integer awidth; // ADDR_WIDTH wire grstn = GSR.GSRO; initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; end initial begin case (dwidth) 9: begin awidth = 11; end 18: begin awidth = 10; end 36: begin awidth = 9; end default: begin // $display ("%d: Unsupported data width\n", dwidth); // $finish; end endcase end always @(AD, awidth) begin if (awidth == 11) begin addr[14:0] = AD[13:3] * dwidth; mem_t[8:0] = { ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 10) begin addr[14:0] = AD[13:4] * dwidth; mem_t[17:0] = { ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end else if (awidth == 9) begin addr[14:0] = AD[13:5] * dwidth; mem_t[35:0] = { ram_MEM[addr+35], ram_MEM[addr+34], ram_MEM[addr+33], ram_MEM[addr+32], ram_MEM[addr+31], ram_MEM[addr+30], ram_MEM[addr+29], ram_MEM[addr+28], ram_MEM[addr+27], ram_MEM[addr+26], ram_MEM[addr+25], ram_MEM[addr+24], ram_MEM[addr+23], ram_MEM[addr+22], ram_MEM[addr+21], ram_MEM[addr+20], ram_MEM[addr+19], ram_MEM[addr+18], ram_MEM[addr+17], ram_MEM[addr+16], ram_MEM[addr+15], ram_MEM[addr+14], ram_MEM[addr+13], ram_MEM[addr+12], ram_MEM[addr+11], ram_MEM[addr+10], ram_MEM[addr+9], ram_MEM[addr+8], ram_MEM[addr+7], ram_MEM[addr+6], ram_MEM[addr+5], ram_MEM[addr+4], ram_MEM[addr+3], ram_MEM[addr+2], ram_MEM[addr+1], ram_MEM[addr] }; end end assign DO = (READ_MODE === 1'b0) ? bp_reg : pl_reg; always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLK or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; bp_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; bp_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end if (CE) begin bp_reg_async[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end always @(posedge CLK or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end if (CE) begin bp_reg_sync[BIT_WIDTH-1:0] <= mem_t[BIT_WIDTH-1:0]; end end end endmodule //pROMX9 //SDP36KE module SDP36KE ( DO, DOP, DECCO, SECCO, ECCP, DI, DIP, BLKSELA, BLKSELB, ADA, ADB, DECCI, SECCI, CLKA, CLKB, CEA, CEB, OCE, RESET ); parameter ECC_WRITE_EN = "TRUE"; //"FALSE":disable ECC WRITE mode; "TRUE":enable ECC WRITE mode parameter ECC_READ_EN = "TRUE"; //"FALSE":disable ECC READ mode; "TRUE":enable ECC READ mode parameter READ_MODE = 1'b0; // 1'b0: bypass mode; 1'b1: pipeline mode parameter BLK_SEL_A = 3'b000; parameter BLK_SEL_B = 3'b000; parameter RESET_MODE = "SYNC"; //SYNC,ASYNC parameter INIT_FILE = "NONE"; //"NONE","*.ini" parameter INIT_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_10 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_11 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_12 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_13 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_14 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_15 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_16 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_17 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_18 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_19 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_1F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_20 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_21 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_22 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_23 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_24 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_25 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_26 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_27 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_28 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_29 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_2F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_30 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_31 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_32 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_33 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_34 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_35 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_36 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_37 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_38 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_39 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_3F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_40 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_41 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_42 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_43 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_44 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_45 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_46 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_47 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_48 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_49 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_4F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_50 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_51 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_52 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_53 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_54 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_55 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_56 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_57 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_58 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_59 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_5F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_60 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_61 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_62 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_63 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_64 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_65 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_66 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_67 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_68 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_69 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_6F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_70 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_71 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_72 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_73 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_74 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_75 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_76 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_77 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_78 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_79 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INIT_RAM_7F = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_00 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_01 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_02 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_03 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_04 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_05 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_06 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_07 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_08 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_09 = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0A = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0B = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0C = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0D = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0E = 256'h0000000000000000000000000000000000000000000000000000000000000000; parameter INITP_RAM_0F = 256'h0000000000000000000000000000000000000000000000000000000000000000; input CLKA, CEA, CLKB, CEB; input OCE; // clock enable of memory output register input RESET; // resets output registers, not memory contents input [8:0] ADA, ADB; input [63:0] DI; input [7:0] DIP; input [2:0] BLKSELA, BLKSELB; input DECCI, SECCI; output [63:0] DO; output [7:0] DOP; output DECCO, SECCO; output [7:0] ECCP; localparam mem_depth = 512; reg [73:0] pl_reg, pl_reg_async, pl_reg_sync; reg [73:0] bp_reg, bp_reg_async, bp_reg_sync; reg DECCO, SECCO; reg [7:0] ECCP; reg [63:0] DO; reg [7:0] DOP; reg [36863:0] ram_MEM; reg [32767:0] mem_32k; reg [4095:0] memp_4k; reg [71:0] mem_a; reg [71:0] mem_b; reg mc, bs_ena, bs_enb; wire pcea, pceb; integer bit_width_da = 72; integer bit_width_db = 72; integer bit_depth_ada = 9; integer bit_depth_adb = 9; // ADDR_WIDTH reg [16:0] addr_a, addr_b; //wire [9:0] addr_a_r,addr_b_r; reg [63:0] data_b; integer width_max = 72; integer i_a, i_d, i_m, i; reg [7:0] ecc_a, ecc_b; reg [7:0] ecc_addr; reg [1:0] ecc_err; wire grstn = GSR.GSRO; reg [71:0] mem_init[mem_depth-1:0]; initial begin mem_32k = { INIT_RAM_7F, INIT_RAM_7E, INIT_RAM_7D, INIT_RAM_7C, INIT_RAM_7B, INIT_RAM_7A, INIT_RAM_79, INIT_RAM_78, INIT_RAM_77, INIT_RAM_76, INIT_RAM_75, INIT_RAM_74, INIT_RAM_73, INIT_RAM_72, INIT_RAM_71, INIT_RAM_70, INIT_RAM_6F, INIT_RAM_6E, INIT_RAM_6D, INIT_RAM_6C, INIT_RAM_6B, INIT_RAM_6A, INIT_RAM_69, INIT_RAM_68, INIT_RAM_67, INIT_RAM_66, INIT_RAM_65, INIT_RAM_64, INIT_RAM_63, INIT_RAM_62, INIT_RAM_61, INIT_RAM_60, INIT_RAM_5F, INIT_RAM_5E, INIT_RAM_5D, INIT_RAM_5C, INIT_RAM_5B, INIT_RAM_5A, INIT_RAM_59, INIT_RAM_58, INIT_RAM_57, INIT_RAM_56, INIT_RAM_55, INIT_RAM_54, INIT_RAM_53, INIT_RAM_52, INIT_RAM_51, INIT_RAM_50, INIT_RAM_4F, INIT_RAM_4E, INIT_RAM_4D, INIT_RAM_4C, INIT_RAM_4B, INIT_RAM_4A, INIT_RAM_49, INIT_RAM_48, INIT_RAM_47, INIT_RAM_46, INIT_RAM_45, INIT_RAM_44, INIT_RAM_43, INIT_RAM_42, INIT_RAM_41, INIT_RAM_40, INIT_RAM_3F, INIT_RAM_3E, INIT_RAM_3D, INIT_RAM_3C, INIT_RAM_3B, INIT_RAM_3A, INIT_RAM_39, INIT_RAM_38, INIT_RAM_37, INIT_RAM_36, INIT_RAM_35, INIT_RAM_34, INIT_RAM_33, INIT_RAM_32, INIT_RAM_31, INIT_RAM_30, INIT_RAM_2F, INIT_RAM_2E, INIT_RAM_2D, INIT_RAM_2C, INIT_RAM_2B, INIT_RAM_2A, INIT_RAM_29, INIT_RAM_28, INIT_RAM_27, INIT_RAM_26, INIT_RAM_25, INIT_RAM_24, INIT_RAM_23, INIT_RAM_22, INIT_RAM_21, INIT_RAM_20, INIT_RAM_1F, INIT_RAM_1E, INIT_RAM_1D, INIT_RAM_1C, INIT_RAM_1B, INIT_RAM_1A, INIT_RAM_19, INIT_RAM_18, INIT_RAM_17, INIT_RAM_16, INIT_RAM_15, INIT_RAM_14, INIT_RAM_13, INIT_RAM_12, INIT_RAM_11, INIT_RAM_10, INIT_RAM_0F, INIT_RAM_0E, INIT_RAM_0D, INIT_RAM_0C, INIT_RAM_0B, INIT_RAM_0A, INIT_RAM_09, INIT_RAM_08, INIT_RAM_07, INIT_RAM_06, INIT_RAM_05, INIT_RAM_04, INIT_RAM_03, INIT_RAM_02, INIT_RAM_01, INIT_RAM_00 }; memp_4k = { INITP_RAM_0F, INITP_RAM_0E, INITP_RAM_0D, INITP_RAM_0C, INITP_RAM_0B, INITP_RAM_0A, INITP_RAM_09, INITP_RAM_08, INITP_RAM_07, INITP_RAM_06, INITP_RAM_05, INITP_RAM_04, INITP_RAM_03, INITP_RAM_02, INITP_RAM_01, INITP_RAM_00 }; if (INIT_FILE == "NONE") begin if (width_max == 72) begin for (i = 0; i < 2 ** 9; i = i + 1) begin ram_MEM[(i*72+71)-:72] = { memp_4k[i*8+7], mem_32k[(i*64+63)-:8], memp_4k[i*8+6], mem_32k[(i*64+55)-:8], memp_4k[i*8+5], mem_32k[(i*64+47)-:8], memp_4k[i*8+4], mem_32k[(i*64+39)-:8], memp_4k[i*8+3], mem_32k[(i*64+31)-:8], memp_4k[i*8+2], mem_32k[(i*64+23)-:8], memp_4k[i*8+1], mem_32k[(i*64+15)-:8], memp_4k[i*8], mem_32k[(i*64+7)-:8] }; end end end else begin // memory initialization from memory file for (i_a = 0; i_a < mem_depth; i_a = i_a + 1) begin for (i_d = 0; i_d < width_max; i_d = i_d + 1) begin mem_init[i_a][i_d] = 1'b0; end end $readmemh(INIT_FILE, mem_init); case (width_max) 72: for (i_m = 0; i_m <= mem_depth; i_m = i_m + 1) begin ram_MEM[(i_m*72+71)-:72] = mem_init[i_m]; end endcase // end end initial begin bp_reg = 0; pl_reg = 0; bp_reg_async = 0; bp_reg_sync = 0; pl_reg_async = 0; pl_reg_sync = 0; mc = 1'b0; ECCP = 8'b0; DECCO = 1'b0; SECCO = 1'b0; DO = 64'b0; DOP = 8'b0; end assign pcea = CEA && bs_ena && grstn; assign pceb = CEB && bs_enb; always @(BLKSELA, BLKSELB) begin if (BLKSELA == BLK_SEL_A) begin bs_ena = 1; end else begin bs_ena = 0; end if (BLKSELB == BLK_SEL_B) begin bs_enb = 1; end else begin bs_enb = 0; end end always @(ADA, ADB, bit_depth_ada, bit_depth_adb, mc) begin if (bit_depth_ada == 9) begin addr_a = ADA[8:0] * 72; end if (bit_depth_adb == 9) begin addr_b = ADB[8:0] * 72; mem_b[71:0] = ram_MEM[(addr_b+71)-:72]; end end always @(DI) begin ecc_a[0] = DI[ 0]^DI[ 1]^DI[ 2]^DI[ 3]^DI[ 4]^DI[ 5]^DI[ 6]^DI[ 7]^DI[10]^DI[13]^DI[14]^DI[17]^DI[20]^DI[23]^DI[24]^DI[27]^DI[35]^DI[43]^DI[46]^DI[47]^DI[51]^DI[52]^DI[53]^DI[56]^DI[57]^DI[58]; ecc_a[1] = DI[ 0]^DI[ 1]^DI[ 2]^DI[ 8]^DI[ 9]^DI[10]^DI[11]^DI[12]^DI[13]^DI[14]^DI[15]^DI[18]^DI[21]^DI[22]^DI[25]^DI[28]^DI[31]^DI[32]^DI[35]^DI[43]^DI[51]^DI[54]^DI[55]^DI[59]^DI[60]^DI[61]; ecc_a[2] = DI[ 3]^DI[ 4]^DI[ 5]^DI[ 8]^DI[ 9]^DI[10]^DI[16]^DI[17]^DI[18]^DI[19]^DI[20]^DI[21]^DI[22]^DI[23]^DI[26]^DI[29]^DI[30]^DI[33]^DI[36]^DI[39]^DI[40]^DI[43]^DI[51]^DI[59]^DI[62]^DI[63]; ecc_a[3] = DI[ 3]^DI[ 6]^DI[ 7]^DI[11]^DI[12]^DI[13]^DI[16]^DI[17]^DI[18]^DI[24]^DI[25]^DI[26]^DI[27]^DI[28]^DI[29]^DI[30]^DI[31]^DI[34]^DI[37]^DI[38]^DI[41]^DI[44]^DI[47]^DI[48]^DI[51]^DI[59]; ecc_a[4] = DI[ 3]^DI[11]^DI[14]^DI[15]^DI[19]^DI[20]^DI[21]^DI[24]^DI[25]^DI[26]^DI[32]^DI[33]^DI[34]^DI[35]^DI[36]^DI[37]^DI[38]^DI[39]^DI[42]^DI[45]^DI[46]^DI[49]^DI[52]^DI[55]^DI[56]^DI[59]; ecc_a[5] = DI[ 0]^DI[ 3]^DI[11]^DI[19]^DI[22]^DI[23]^DI[27]^DI[28]^DI[29]^DI[32]^DI[33]^DI[34]^DI[40]^DI[41]^DI[42]^DI[43]^DI[44]^DI[45]^DI[46]^DI[47]^DI[50]^DI[53]^DI[54]^DI[57]^DI[60]^DI[63]; ecc_a[6] = DI[ 1]^DI[ 4]^DI[ 7]^DI[ 8]^DI[11]^DI[19]^DI[27]^DI[30]^DI[31]^DI[35]^DI[36]^DI[37]^DI[40]^DI[41]^DI[42]^DI[48]^DI[49]^DI[50]^DI[51]^DI[52]^DI[53]^DI[54]^DI[55]^DI[58]^DI[61]^DI[62]; ecc_a[7] = DI[ 2]^DI[ 5]^DI[ 6]^DI[ 9]^DI[12]^DI[15]^DI[16]^DI[19]^DI[27]^DI[35]^DI[38]^DI[39]^DI[43]^DI[44]^DI[45]^DI[48]^DI[49]^DI[50]^DI[56]^DI[57]^DI[58]^DI[59]^DI[60]^DI[61]^DI[62]^DI[63]; end always @(posedge CLKA) begin if (pcea) begin if (bit_width_da == 72) begin if (ECC_WRITE_EN == "TRUE") begin {ram_MEM[(addr_a+71)-:9]} <= DECCI ? {ecc_a[7],DI[63],!DI[62],DI[61:56]} : {ecc_a[7],DI[63:56]}; {ram_MEM[(addr_a+62)-:9]} <= {ecc_a[6], DI[55:48]}; {ram_MEM[(addr_a+53)-:9]} <= {ecc_a[5], DI[47:40]}; {ram_MEM[(addr_a+44)-:9]} <= {ecc_a[4], DI[39:32]}; {ram_MEM[(addr_a+35)-:9]} <= (SECCI | DECCI) ? {ecc_a[3],DI[31],!DI[30],DI[29:24]} : {ecc_a[3],DI[31:24]}; {ram_MEM[(addr_a+26)-:9]} <= {ecc_a[2], DI[23:16]}; {ram_MEM[(addr_a+17)-:9]} <= {ecc_a[1], DI[15:8]}; {ram_MEM[(addr_a+8)-:9]} <= {ecc_a[0], DI[7:0]}; end else begin {ram_MEM[(addr_a+71)-:9]} <= DECCI ? {DIP[7],DI[63],!DI[62],DI[61:56]} : {DIP[7],DI[63:56]}; {ram_MEM[(addr_a+62)-:9]} <= {DIP[6], DI[55:48]}; {ram_MEM[(addr_a+53)-:9]} <= {DIP[5], DI[47:40]}; {ram_MEM[(addr_a+44)-:9]} <= {DIP[4], DI[39:32]}; {ram_MEM[(addr_a+35)-:9]} <= (SECCI | DECCI) ? {DIP[3],DI[31],!DI[30],DI[29:24]} : {DIP[3],DI[31:24]}; {ram_MEM[(addr_a+26)-:9]} <= {DIP[2], DI[23:16]}; {ram_MEM[(addr_a+17)-:9]} <= {DIP[1], DI[15:8]}; {ram_MEM[(addr_a+8)-:9]} <= {DIP[0], DI[7:0]}; end end mc <= ~mc; end end always @(addr_b or ram_MEM) begin data_b = { ram_MEM[(addr_b+70)-:8], ram_MEM[(addr_b+61)-:8], ram_MEM[(addr_b+52)-:8], ram_MEM[(addr_b+43)-:8], ram_MEM[(addr_b+34)-:8], ram_MEM[(addr_b+25)-:8], ram_MEM[(addr_b+16)-:8], ram_MEM[(addr_b+7)-:8] }; ecc_b = { ram_MEM[addr_b+71], ram_MEM[addr_b+62], ram_MEM[addr_b+53], ram_MEM[addr_b+44], ram_MEM[addr_b+35], ram_MEM[addr_b+26], ram_MEM[addr_b+17], ram_MEM[addr_b+8] }; if (ECC_READ_EN == "TRUE") begin ecc_addr[0] = ecc_b[0]^data_b[ 0]^data_b[ 1]^data_b[ 2]^data_b[ 3]^data_b[ 4]^data_b[ 5]^data_b[ 6]^data_b[ 7]^data_b[10]^data_b[13]^data_b[14]^data_b[17]^data_b[20]^data_b[23]^data_b[24]^data_b[27]^data_b[35]^data_b[43]^data_b[46]^data_b[47]^data_b[51]^data_b[52]^data_b[53]^data_b[56]^data_b[57]^data_b[58]; ecc_addr[1] = ecc_b[1]^data_b[ 0]^data_b[ 1]^data_b[ 2]^data_b[ 8]^data_b[ 9]^data_b[10]^data_b[11]^data_b[12]^data_b[13]^data_b[14]^data_b[15]^data_b[18]^data_b[21]^data_b[22]^data_b[25]^data_b[28]^data_b[31]^data_b[32]^data_b[35]^data_b[43]^data_b[51]^data_b[54]^data_b[55]^data_b[59]^data_b[60]^data_b[61]; ecc_addr[2] = ecc_b[2]^data_b[ 3]^data_b[ 4]^data_b[ 5]^data_b[ 8]^data_b[ 9]^data_b[10]^data_b[16]^data_b[17]^data_b[18]^data_b[19]^data_b[20]^data_b[21]^data_b[22]^data_b[23]^data_b[26]^data_b[29]^data_b[30]^data_b[33]^data_b[36]^data_b[39]^data_b[40]^data_b[43]^data_b[51]^data_b[59]^data_b[62]^data_b[63]; ecc_addr[3] = ecc_b[3]^data_b[ 3]^data_b[ 6]^data_b[ 7]^data_b[11]^data_b[12]^data_b[13]^data_b[16]^data_b[17]^data_b[18]^data_b[24]^data_b[25]^data_b[26]^data_b[27]^data_b[28]^data_b[29]^data_b[30]^data_b[31]^data_b[34]^data_b[37]^data_b[38]^data_b[41]^data_b[44]^data_b[47]^data_b[48]^data_b[51]^data_b[59]; ecc_addr[4] = ecc_b[4]^data_b[ 3]^data_b[11]^data_b[14]^data_b[15]^data_b[19]^data_b[20]^data_b[21]^data_b[24]^data_b[25]^data_b[26]^data_b[32]^data_b[33]^data_b[34]^data_b[35]^data_b[36]^data_b[37]^data_b[38]^data_b[39]^data_b[42]^data_b[45]^data_b[46]^data_b[49]^data_b[52]^data_b[55]^data_b[56]^data_b[59]; ecc_addr[5] = ecc_b[5]^data_b[ 0]^data_b[ 3]^data_b[11]^data_b[19]^data_b[22]^data_b[23]^data_b[27]^data_b[28]^data_b[29]^data_b[32]^data_b[33]^data_b[34]^data_b[40]^data_b[41]^data_b[42]^data_b[43]^data_b[44]^data_b[45]^data_b[46]^data_b[47]^data_b[50]^data_b[53]^data_b[54]^data_b[57]^data_b[60]^data_b[63]; ecc_addr[6] = ecc_b[6]^data_b[ 1]^data_b[ 4]^data_b[ 7]^data_b[ 8]^data_b[11]^data_b[19]^data_b[27]^data_b[30]^data_b[31]^data_b[35]^data_b[36]^data_b[37]^data_b[40]^data_b[41]^data_b[42]^data_b[48]^data_b[49]^data_b[50]^data_b[51]^data_b[52]^data_b[53]^data_b[54]^data_b[55]^data_b[58]^data_b[61]^data_b[62]; ecc_addr[7] = ecc_b[7]^data_b[ 2]^data_b[ 5]^data_b[ 6]^data_b[ 9]^data_b[12]^data_b[15]^data_b[16]^data_b[19]^data_b[27]^data_b[35]^data_b[38]^data_b[39]^data_b[43]^data_b[44]^data_b[45]^data_b[48]^data_b[49]^data_b[50]^data_b[56]^data_b[57]^data_b[58]^data_b[59]^data_b[60]^data_b[61]^data_b[62]^data_b[63]; if (ecc_addr) begin ecc_err = {!(^ecc_addr), ^ecc_addr}; case (ecc_addr) 8'b00100011: data_b[0] = !data_b[0]; 8'b01000011: data_b[1] = !data_b[1]; 8'b10000011: data_b[2] = !data_b[2]; 8'b00111101: data_b[3] = !data_b[3]; 8'b01000101: data_b[4] = !data_b[4]; 8'b10000101: data_b[5] = !data_b[5]; 8'b10001001: data_b[6] = !data_b[6]; 8'b01001001: data_b[7] = !data_b[7]; 8'b01000110: data_b[8] = !data_b[8]; 8'b10000110: data_b[9] = !data_b[9]; 8'b00000111: data_b[10] = !data_b[10]; 8'b01111010: data_b[11] = !data_b[11]; 8'b10001010: data_b[12] = !data_b[12]; 8'b00001011: data_b[13] = !data_b[13]; 8'b00010011: data_b[14] = !data_b[14]; 8'b10010010: data_b[15] = !data_b[15]; 8'b10001100: data_b[16] = !data_b[16]; 8'b00001101: data_b[17] = !data_b[17]; 8'b00001110: data_b[18] = !data_b[18]; 8'b11110100: data_b[19] = !data_b[19]; 8'b00010101: data_b[20] = !data_b[20]; 8'b00010110: data_b[21] = !data_b[21]; 8'b00100110: data_b[22] = !data_b[22]; 8'b00100101: data_b[23] = !data_b[23]; 8'b00011001: data_b[24] = !data_b[24]; 8'b00011010: data_b[25] = !data_b[25]; 8'b00011100: data_b[26] = !data_b[26]; 8'b11101001: data_b[27] = !data_b[27]; 8'b00101010: data_b[28] = !data_b[28]; 8'b00101100: data_b[29] = !data_b[29]; 8'b01001100: data_b[30] = !data_b[30]; 8'b01001010: data_b[31] = !data_b[31]; 8'b00110010: data_b[32] = !data_b[32]; 8'b00110100: data_b[33] = !data_b[33]; 8'b00111000: data_b[34] = !data_b[34]; 8'b11010011: data_b[35] = !data_b[35]; 8'b01010100: data_b[36] = !data_b[36]; 8'b01011000: data_b[37] = !data_b[37]; 8'b10011000: data_b[38] = !data_b[38]; 8'b10010100: data_b[39] = !data_b[39]; 8'b01100100: data_b[40] = !data_b[40]; 8'b01101000: data_b[41] = !data_b[41]; 8'b01110000: data_b[42] = !data_b[42]; 8'b10100111: data_b[43] = !data_b[43]; 8'b10101000: data_b[44] = !data_b[44]; 8'b10110000: data_b[45] = !data_b[45]; 8'b00110001: data_b[46] = !data_b[46]; 8'b00101001: data_b[47] = !data_b[47]; 8'b11001000: data_b[48] = !data_b[48]; 8'b11010000: data_b[49] = !data_b[49]; 8'b11100000: data_b[50] = !data_b[50]; 8'b01001111: data_b[51] = !data_b[51]; 8'b01010001: data_b[52] = !data_b[52]; 8'b01100001: data_b[53] = !data_b[53]; 8'b01100010: data_b[54] = !data_b[54]; 8'b01010010: data_b[55] = !data_b[55]; 8'b10010001: data_b[56] = !data_b[56]; 8'b10100001: data_b[57] = !data_b[57]; 8'b11000001: data_b[58] = !data_b[58]; 8'b10011110: data_b[59] = !data_b[59]; 8'b10100010: data_b[60] = !data_b[60]; 8'b11000010: data_b[61] = !data_b[61]; 8'b11000100: data_b[62] = !data_b[62]; 8'b10100100: data_b[63] = !data_b[63]; 8'b00000001: ecc_b[0] = !ecc_b[0]; 8'b00000010: ecc_b[1] = !ecc_b[1]; 8'b00000100: ecc_b[2] = !ecc_b[2]; 8'b00001000: ecc_b[3] = !ecc_b[3]; 8'b00010000: ecc_b[4] = !ecc_b[4]; 8'b00100000: ecc_b[5] = !ecc_b[5]; 8'b01000000: ecc_b[6] = !ecc_b[6]; 8'b10000000: ecc_b[7] = !ecc_b[7]; endcase end else ecc_err = 2'b00; end else ecc_err = 2'b00; end always @(bp_reg_async or bp_reg_sync or pl_reg_async or pl_reg_sync) begin if (RESET_MODE == "ASYNC") begin bp_reg <= bp_reg_async; pl_reg <= pl_reg_async; end else begin bp_reg <= bp_reg_sync; pl_reg <= pl_reg_sync; end end always @(posedge CLKB or posedge RESET or negedge grstn) begin if (!grstn) begin pl_reg_async <= 0; bp_reg_async <= 0; end else if (RESET) begin pl_reg_async <= 0; bp_reg_async <= 0; end else begin if (OCE) begin pl_reg_async <= bp_reg; end if (pceb) begin bp_reg_async[73:0] <= {ecc_err, ecc_b, data_b}; end end end always @(posedge CLKB or negedge grstn) begin if (!grstn) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else if (RESET) begin pl_reg_sync <= 0; bp_reg_sync <= 0; end else begin if (OCE) begin pl_reg_sync <= bp_reg; end if (pceb) begin bp_reg_sync[73:0] <= {ecc_err, ecc_b, data_b}; end end end always @(bp_reg, pl_reg) begin if (READ_MODE == 1'b0) begin DO <= {bp_reg[63:0]}; DOP <= {bp_reg[71:64]}; SECCO <= bp_reg[72]; DECCO <= bp_reg[73]; end else begin DO <= pl_reg[63:0]; DOP <= {pl_reg[71:64]}; SECCO <= pl_reg[72]; DECCO <= pl_reg[73]; end end always @(posedge CLKA or negedge grstn) begin if (!grstn) begin ECCP = 8'b0; end else if (ECC_WRITE_EN == "TRUE" || ECC_READ_EN == "TRUE") begin ECCP = ecc_a; end end endmodule // SDP36KE: semi dual port 36k Block SRAM with ECC //SDP136K,serdes ram module SDP136K ( DO, DI, ADA, ADB, CLKA, CLKB, WE, RE ); input CLKA, CLKB; input WE, RE; input [10:0] ADA, ADB; input [67:0] DI; output [67:0] DO; reg [67:0] data_out; reg [67:0] mem[2047:0]; always @(posedge CLKA) begin if (WE) begin mem[ADA] <= DI; end end always @(posedge CLKB) begin if (RE) begin data_out <= mem[ADB]; end end assign DO = data_out; endmodule //////DSP models //MULTADDALU12X12 module MULTADDALU12X12 ( DOUT, CASO, A0, B0, A1, B1, CASI, ACCSEL, CASISEL, ADDSUB, CLK, CE, RESET ); parameter A0REG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter A0REG_CE = "CE0"; // "CE0","CE1" parameter A0REG_RESET = "RESET0"; //"RESET0", "RESET1" parameter A1REG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter A1REG_CE = "CE0"; // "CE0","CE1" parameter A1REG_RESET = "RESET0"; //"RESET0", "RESET1" parameter B0REG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter B0REG_CE = "CE0"; // "CE0","CE1" parameter B0REG_RESET = "RESET0"; //"RESET0", "RESET1" parameter B1REG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter B1REG_CE = "CE0"; // "CE0","CE1" parameter B1REG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ACCSEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ACCSEL_IREG_CE = "CE0"; // "CE0","CE1" parameter ACCSEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CASISEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CASISEL_IREG_CE = "CE0"; // "CE0","CE1" parameter CASISEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB0_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB0_IREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB0_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB1_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB1_IREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB1_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PREG0_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" //mult0 pipeline register parameter PREG0_CE = "CE0"; // "CE0","CE1" parameter PREG0_RESET = "RESET0"; //"RESET0", "RESET1" parameter PREG1_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" //mult1 pipeline register parameter PREG1_CE = "CE0"; // "CE0","CE1" parameter PREG1_RESET = "RESET0"; //"RESET0", "RESET1" parameter FB_PREG_EN = "FALSE"; // "FALSE";"TRUE" //feedback acc pipeline register,same clk/ce/reset as OREG parameter ACCSEL_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ACCSEL_PREG_CE = "CE0"; // "CE0","CE1" parameter ACCSEL_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CASISEL_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CASISEL_PREG_CE = "CE0"; // "CE0","CE1" parameter CASISEL_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB0_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB0_PREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB0_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB1_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB1_PREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB1_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter OREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter OREG_CE = "CE0"; // "CE0","CE1" parameter OREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter MULT_RESET_MODE = "SYNC"; // SYNC,ASYNC parameter PRE_LOAD = 48'h000000000000; parameter DYN_ADD_SUB_0 = "FALSE"; //"TRUE","FALSE" parameter ADD_SUB_0 = 1'b0; //1'b0: '+'; 1'b1: '-' parameter DYN_ADD_SUB_1 = "FALSE"; //"TRUE","FALSE" parameter ADD_SUB_1 = 1'b0; //1'b0: '+'; 1'b1: '-' parameter DYN_CASI_SEL = "FALSE"; //"TRUE","FALSE" parameter CASI_SEL = 1'b0; //1'b0: select 0; 1'b1:select casi parameter DYN_ACC_SEL = "FALSE"; //"TRUE","FALSE" parameter ACC_SEL = 1'b0; //1'b0: PRE_LOAD;1'b1: DOUT feedback; output [47:0] DOUT, CASO; input [11:0] A0, B0, A1, B1; input [47:0] CASI; input ACCSEL; input CASISEL; input [1:0] ADDSUB; input [1:0] CLK, CE, RESET; reg A0_CLK, A0_CE, A0_RESET, A1_CLK, A1_CE, A1_RESET, B0_CLK, B0_CE, B0_RESET, B1_CLK, B1_CE, B1_RESET, ACCSEL_ICLK, ACCSEL_ICE, ACCSEL_IRESET, CASISEL_ICLK, CASISEL_ICE, CASISEL_IRESET, ADDSUB0_ICLK, ADDSUB0_ICE, ADDSUB0_IRESET, ADDSUB1_ICLK, ADDSUB1_ICE, ADDSUB1_IRESET, P0_CLK, P0_CE, P0_RESET, P1_CLK, P1_CE, P1_RESET, ACCSEL_PCLK, ACCSEL_PCE, ACCSEL_PRESET, CASISEL_PCLK, CASISEL_PCE, CASISEL_PRESET, ADDSUB0_PCLK, ADDSUB0_PCE, ADDSUB0_PRESET, ADDSUB1_PCLK, ADDSUB1_PCE, ADDSUB1_PRESET, O_CLK, O_CE, O_RESET; reg [11:0] ina0_reg_async, ina0_reg_sync, ina1_reg_async, ina1_reg_sync, ina0, ina0_reg, ina1, ina1_reg, ina_preg_async, ina_preg_sync, ina_preg, a_src; reg [11:0] inb0_reg_async, inb0_reg_sync, inb1_reg_async, inb1_reg_sync, inb0, inb0_reg, inb1, inb1_reg; reg accsel0_reg_async, accsel0_reg_sync, accsel_0, accsel0_reg, accsel1_reg_async, accsel1_reg_sync, accsel_1, accsel1_reg; reg casisel0_reg_async, casisel0_reg_sync, casisel_0, casisel0_reg, casisel1_reg_async, casisel1_reg_sync, casisel_1, casisel1_reg; reg addsub0_reg0_async, addsub0_reg0_sync, addsub0_reg0, addsub0_0, addsub0_reg1_async, addsub0_reg1_sync, addsub0_reg1, addsub0_1; reg addsub1_reg0_async, addsub1_reg0_sync, addsub1_reg0, addsub1_0, addsub1_reg1_async, addsub1_reg1_sync, addsub1_reg1, addsub1_1; wire [23:0] a0, b0, mult_out0, a1, b1, mult_out1; reg [23:0] out0_reg_async, out0_reg_sync, out0, out0_reg, out1_reg_async, out1_reg_sync, out1, out1_reg; reg [48:0] d_out, out_preg_async, out_preg_sync, out_preg, dout_reg, alu_out; wire [47:0] m_out0, m_out1, acc_load, d_casi; reg [48:0] out_reg_async, out_reg_sync, out_reg; wire accsel_sig, casisel_sig, addsub0_sig, addsub1_sig; reg [1:0] accsel_int; reg [1:0] accsel_int0_reg_async, accsel_int0_reg_sync, accsel_int0, accsel_int0_reg, accsel_int1_reg_async, accsel_int1_reg_sync, accsel_int1, accsel_int1_reg; wire grstn = GSR.GSRO; always @(ina0_reg_async or ina0_reg_sync or ina1_reg_async or ina1_reg_sync or inb0_reg_async or inb0_reg_sync or inb1_reg_async or inb1_reg_sync or ina_preg_async or ina_preg_sync or accsel0_reg_async or accsel0_reg_sync or accsel1_reg_async or accsel1_reg_sync or casisel0_reg_async or casisel0_reg_sync or casisel1_reg_async or casisel1_reg_sync or addsub0_reg0_async or addsub0_reg0_sync or addsub0_reg1_async or addsub0_reg1_sync or addsub1_reg0_async or addsub1_reg0_sync or addsub1_reg1_async or addsub1_reg1_sync or out0_reg_async or out0_reg_sync or out1_reg_async or out1_reg_sync or out_preg_async or out_preg_sync or out_reg_sync or out_reg_async or accsel_int0_reg_async or accsel_int0_reg_sync or accsel_int0_reg or accsel_int1_reg_async or accsel_int1_reg_sync or accsel_int1_reg) begin if (MULT_RESET_MODE == "ASYNC") begin ina0_reg <= ina0_reg_async; ina1_reg <= ina1_reg_async; inb0_reg <= inb0_reg_async; inb1_reg <= inb1_reg_async; accsel0_reg <= accsel0_reg_async; accsel1_reg <= accsel1_reg_async; addsub0_reg0 <= addsub0_reg0_async; addsub0_reg1 <= addsub0_reg1_async; addsub1_reg0 <= addsub1_reg0_async; addsub1_reg1 <= addsub1_reg1_async; casisel0_reg <= casisel0_reg_async; casisel1_reg <= casisel1_reg_async; out0_reg <= out0_reg_async; out1_reg <= out1_reg_async; out_preg <= out_preg_async; ina_preg <= ina_preg_async; out_reg <= out_reg_async; accsel_int0_reg <= accsel_int0_reg_async; accsel_int1_reg <= accsel_int1_reg_async; end else if (MULT_RESET_MODE == "SYNC") begin ina0_reg <= ina0_reg_sync; ina1_reg <= ina1_reg_sync; inb0_reg <= inb0_reg_sync; inb1_reg <= inb1_reg_sync; accsel0_reg <= accsel0_reg_sync; accsel1_reg <= accsel1_reg_sync; addsub0_reg0 <= addsub0_reg0_sync; addsub0_reg1 <= addsub0_reg1_sync; addsub1_reg0 <= addsub1_reg0_sync; addsub1_reg1 <= addsub1_reg1_sync; casisel0_reg <= casisel0_reg_sync; casisel1_reg <= casisel1_reg_sync; out0_reg <= out0_reg_sync; out1_reg <= out1_reg_sync; out_preg <= out_preg_sync; ina_preg <= ina_preg_sync; out_reg <= out_reg_sync; accsel_int0_reg <= accsel_int0_reg_sync; accsel_int1_reg <= accsel_int1_reg_sync; end end //clk,ce,reset mux //A0REG always @(CLK) begin if (A0REG_CLK == "CLK0") A0_CLK = CLK[0]; else if (A0REG_CLK == "CLK1") A0_CLK = CLK[1]; end always @(CE) begin if (A0REG_CE == "CE0") A0_CE = CE[0]; else if (A0REG_CE == "CE1") A0_CE = CE[1]; end always @(RESET) begin if (A0REG_RESET == "RESET0") A0_RESET = RESET[0]; else if (A0REG_RESET == "RESET1") A0_RESET = RESET[1]; end //A1REG always @(CLK) begin if (A1REG_CLK == "CLK0") A1_CLK = CLK[0]; else if (A1REG_CLK == "CLK1") A1_CLK = CLK[1]; end always @(CE) begin if (A1REG_CE == "CE0") A1_CE = CE[0]; else if (A1REG_CE == "CE1") A1_CE = CE[1]; end always @(RESET) begin if (A1REG_RESET == "RESET0") A1_RESET = RESET[0]; else if (A1REG_RESET == "RESET1") A1_RESET = RESET[1]; end //B0REG always @(CLK) begin if (B0REG_CLK == "CLK0") B0_CLK = CLK[0]; else if (B0REG_CLK == "CLK1") B0_CLK = CLK[1]; end always @(CE) begin if (B0REG_CE == "CE0") B0_CE = CE[0]; else if (B0REG_CE == "CE1") B0_CE = CE[1]; end always @(RESET) begin if (B0REG_RESET == "RESET0") B0_RESET = RESET[0]; else if (B0REG_RESET == "RESET1") B0_RESET = RESET[1]; end //B1REG always @(CLK) begin if (B1REG_CLK == "CLK0") B1_CLK = CLK[0]; else if (B1REG_CLK == "CLK1") B1_CLK = CLK[1]; end always @(CE) begin if (B1REG_CE == "CE0") B1_CE = CE[0]; else if (B1REG_CE == "CE1") B1_CE = CE[1]; end always @(RESET) begin if (B1REG_RESET == "RESET0") B1_RESET = RESET[0]; else if (B1REG_RESET == "RESET1") B1_RESET = RESET[1]; end //IREG always @(CLK) begin if (ACCSEL_IREG_CLK == "CLK0") ACCSEL_ICLK = CLK[0]; else if (ACCSEL_IREG_CLK == "CLK1") ACCSEL_ICLK = CLK[1]; end always @(CE) begin if (ACCSEL_IREG_CE == "CE0") ACCSEL_ICE = CE[0]; else if (ACCSEL_IREG_CE == "CE1") ACCSEL_ICE = CE[1]; end always @(RESET) begin if (ACCSEL_IREG_RESET == "RESET0") ACCSEL_IRESET = RESET[0]; else if (ACCSEL_IREG_RESET == "RESET1") ACCSEL_IRESET = RESET[1]; end always @(CLK) begin if (ADDSUB0_IREG_CLK == "CLK0") ADDSUB0_ICLK = CLK[0]; else if (ADDSUB0_IREG_CLK == "CLK1") ADDSUB0_ICLK = CLK[1]; end always @(CE) begin if (ADDSUB0_IREG_CE == "CE0") ADDSUB0_ICE = CE[0]; else if (ADDSUB0_IREG_CE == "CE1") ADDSUB0_ICE = CE[1]; end always @(RESET) begin if (ADDSUB0_IREG_RESET == "RESET0") ADDSUB0_IRESET = RESET[0]; else if (ADDSUB0_IREG_RESET == "RESET1") ADDSUB0_IRESET = RESET[1]; end always @(CLK) begin if (ADDSUB1_IREG_CLK == "CLK0") ADDSUB1_ICLK = CLK[0]; else if (ADDSUB1_IREG_CLK == "CLK1") ADDSUB1_ICLK = CLK[1]; end always @(CE) begin if (ADDSUB1_IREG_CE == "CE0") ADDSUB1_ICE = CE[0]; else if (ADDSUB1_IREG_CE == "CE1") ADDSUB1_ICE = CE[1]; end always @(RESET) begin if (ADDSUB1_IREG_RESET == "RESET0") ADDSUB1_IRESET = RESET[0]; else if (ADDSUB1_IREG_RESET == "RESET1") ADDSUB1_IRESET = RESET[1]; end always @(CLK) begin if (CASISEL_IREG_CLK == "CLK0") CASISEL_ICLK = CLK[0]; else if (CASISEL_IREG_CLK == "CLK1") CASISEL_ICLK = CLK[1]; end always @(CE) begin if (CASISEL_IREG_CE == "CE0") CASISEL_ICE = CE[0]; else if (CASISEL_IREG_CE == "CE1") CASISEL_ICE = CE[1]; end always @(RESET) begin if (CASISEL_IREG_RESET == "RESET0") CASISEL_IRESET = RESET[0]; else if (CASISEL_IREG_RESET == "RESET1") CASISEL_IRESET = RESET[1]; end //PREG0 always @(CLK) begin if (PREG0_CLK == "CLK0") P0_CLK = CLK[0]; else if (PREG0_CLK == "CLK1") P0_CLK = CLK[1]; end always @(CE) begin if (PREG0_CE == "CE0") P0_CE = CE[0]; else if (PREG0_CE == "CE1") P0_CE = CE[1]; end always @(RESET) begin if (PREG0_RESET == "RESET0") P0_RESET = RESET[0]; else if (PREG0_RESET == "RESET1") P0_RESET = RESET[1]; end //PREG1 always @(CLK) begin if (PREG1_CLK == "CLK0") P1_CLK = CLK[0]; else if (PREG1_CLK == "CLK1") P1_CLK = CLK[1]; end always @(CE) begin if (PREG1_CE == "CE0") P1_CE = CE[0]; else if (PREG1_CE == "CE1") P1_CE = CE[1]; end always @(RESET) begin if (PREG1_RESET == "RESET0") P1_RESET = RESET[0]; else if (PREG1_RESET == "RESET1") P1_RESET = RESET[1]; end //PREG always @(CLK) begin if (ACCSEL_PREG_CLK == "CLK0") ACCSEL_PCLK = CLK[0]; else if (ACCSEL_PREG_CLK == "CLK1") ACCSEL_PCLK = CLK[1]; end always @(CE) begin if (ACCSEL_PREG_CE == "CE0") ACCSEL_PCE = CE[0]; else if (ACCSEL_PREG_CE == "CE1") ACCSEL_PCE = CE[1]; end always @(RESET) begin if (ACCSEL_PREG_RESET == "RESET0") ACCSEL_PRESET = RESET[0]; else if (ACCSEL_PREG_RESET == "RESET1") ACCSEL_PRESET = RESET[1]; end always @(CLK) begin if (ADDSUB0_PREG_CLK == "CLK0") ADDSUB0_PCLK = CLK[0]; else if (ADDSUB0_PREG_CLK == "CLK1") ADDSUB0_PCLK = CLK[1]; end always @(CE) begin if (ADDSUB0_PREG_CE == "CE0") ADDSUB0_PCE = CE[0]; else if (ADDSUB0_PREG_CE == "CE1") ADDSUB0_PCE = CE[1]; end always @(RESET) begin if (ADDSUB0_PREG_RESET == "RESET0") ADDSUB0_PRESET = RESET[0]; else if (ADDSUB0_PREG_RESET == "RESET1") ADDSUB0_PRESET = RESET[1]; end always @(CLK) begin if (ADDSUB1_PREG_CLK == "CLK0") ADDSUB1_PCLK = CLK[0]; else if (ADDSUB1_PREG_CLK == "CLK1") ADDSUB1_PCLK = CLK[1]; end always @(CE) begin if (ADDSUB1_PREG_CE == "CE0") ADDSUB1_PCE = CE[0]; else if (ADDSUB1_PREG_CE == "CE1") ADDSUB1_PCE = CE[1]; end always @(RESET) begin if (ADDSUB1_PREG_RESET == "RESET0") ADDSUB1_PRESET = RESET[0]; else if (ADDSUB1_PREG_RESET == "RESET1") ADDSUB1_PRESET = RESET[1]; end always @(CLK) begin if (CASISEL_PREG_CLK == "CLK0") CASISEL_PCLK = CLK[0]; else if (CASISEL_PREG_CLK == "CLK1") CASISEL_PCLK = CLK[1]; end always @(CE) begin if (CASISEL_PREG_CE == "CE0") CASISEL_PCE = CE[0]; else if (CASISEL_PREG_CE == "CE1") CASISEL_PCE = CE[1]; end always @(RESET) begin if (CASISEL_PREG_RESET == "RESET0") CASISEL_PRESET = RESET[0]; else if (CASISEL_PREG_RESET == "RESET1") CASISEL_PRESET = RESET[1]; end //OREG always @(CLK) begin if (OREG_CLK == "CLK0") O_CLK = CLK[0]; else if (OREG_CLK == "CLK1") O_CLK = CLK[1]; end always @(CE) begin if (OREG_CE == "CE0") O_CE = CE[0]; else if (OREG_CE == "CE1") O_CE = CE[1]; end always @(RESET) begin if (OREG_RESET == "RESET0") O_RESET = RESET[0]; else if (OREG_RESET == "RESET1") O_RESET = RESET[1]; end // in reg always @(posedge A0_CLK or posedge A0_RESET or negedge grstn) begin if (!grstn) begin ina0_reg_async <= 0; end else if (A0_RESET == 1'b1) begin ina0_reg_async <= 0; end else if (A0_CE == 1'b1) begin ina0_reg_async <= A0; end end always @(posedge A0_CLK or negedge grstn) begin if (!grstn) begin ina0_reg_sync <= 0; end else if (A0_RESET == 1'b1) begin ina0_reg_sync <= 0; end else if (A0_CE == 1'b1) begin ina0_reg_sync <= A0; end end always @(posedge A1_CLK or posedge A1_RESET or negedge grstn) begin if (!grstn) begin ina1_reg_async <= 0; end else if (A1_RESET == 1'b1) begin ina1_reg_async <= 0; end else if (A1_CE == 1'b1) begin ina1_reg_async <= A1; end end always @(posedge A1_CLK or negedge grstn) begin if (!grstn) begin ina1_reg_sync <= 0; end else if (A1_RESET == 1'b1) begin ina1_reg_sync <= 0; end else if (A1_CE == 1'b1) begin ina1_reg_sync <= A1; end end always @(A0 or ina0_reg) begin if (A0REG_CLK == "BYPASS") begin ina0 = A0; end else begin ina0 = ina0_reg; end end always @(A1 or ina1_reg) begin if (A1REG_CLK == "BYPASS") begin ina1 = A1; end else begin ina1 = ina1_reg; end end always @(posedge B0_CLK or posedge B0_RESET or negedge grstn) begin if (!grstn) begin inb0_reg_async <= 0; end else if (B0_RESET == 1'b1) begin inb0_reg_async <= 0; end else if (B0_CE == 1'b1) begin inb0_reg_async <= B0; end end always @(posedge B0_CLK or negedge grstn) begin if (!grstn) begin inb0_reg_sync <= 0; end else if (B0_RESET == 1'b1) begin inb0_reg_sync <= 0; end else if (B0_CE == 1'b1) begin inb0_reg_sync <= B0; end end always @(posedge B1_CLK or posedge B1_RESET or negedge grstn) begin if (!grstn) begin inb1_reg_async <= 0; end else if (B1_RESET == 1'b1) begin inb1_reg_async <= 0; end else if (B1_CE == 1'b1) begin inb1_reg_async <= B1; end end always @(posedge B1_CLK or negedge grstn) begin if (!grstn) begin inb1_reg_sync <= 0; end else if (B1_RESET == 1'b1) begin inb1_reg_sync <= 0; end else if (B1_CE == 1'b1) begin inb1_reg_sync <= B1; end end always @(B0 or inb0_reg) begin if (B0REG_CLK == "BYPASS") begin inb0 = B0; end else begin inb0 = inb0_reg; end end always @(B1 or inb1_reg) begin if (B1REG_CLK == "BYPASS") begin inb1 = B1; end else begin inb1 = inb1_reg; end end assign accsel_sig = (DYN_ACC_SEL == "FALSE") ? ACC_SEL : ACCSEL; assign casisel_sig = (DYN_CASI_SEL == "FALSE") ? CASI_SEL : CASISEL; assign addsub0_sig = (DYN_ADD_SUB_0 == "FALSE") ? ADD_SUB_0 : ADDSUB[0]; assign addsub1_sig = (DYN_ADD_SUB_1 == "FALSE") ? ADD_SUB_1 : ADDSUB[1]; always @(accsel_sig) begin if (accsel_sig == 1'b0) begin accsel_int = 2'b01; end else if (accsel_sig == 1'b1) begin accsel_int = 2'b10; end end always @(posedge ACCSEL_ICLK or posedge ACCSEL_IRESET or negedge grstn) begin if (!grstn) begin accsel0_reg_async <= 1'b0; accsel_int0_reg_async <= 2'b0; end else if (ACCSEL_IRESET == 1'b1) begin accsel0_reg_async <= 1'b0; accsel_int0_reg_async <= 2'b0; end else if (ACCSEL_ICE == 1'b1) begin accsel0_reg_async <= accsel_sig; accsel_int0_reg_async <= accsel_int; end end always @(posedge ACCSEL_ICLK or negedge grstn) begin if (!grstn) begin accsel0_reg_sync <= 1'b0; accsel_int0_reg_sync <= 2'b0; end else if (ACCSEL_IRESET == 1'b1) begin accsel0_reg_sync <= 1'b0; accsel_int0_reg_sync <= 2'b0; end else if (ACCSEL_ICE == 1'b1) begin accsel0_reg_sync <= accsel_sig; accsel_int0_reg_sync <= accsel_int; end end always @(accsel_sig or accsel0_reg or accsel_int or accsel_int0_reg) begin if (ACCSEL_IREG_CLK == "BYPASS") begin accsel_0 <= accsel_sig; accsel_int0 <= accsel_int; end else begin accsel_0 <= accsel0_reg; accsel_int0 <= accsel_int0_reg; end end always @(posedge ACCSEL_PCLK or posedge ACCSEL_PRESET or negedge grstn) begin if (!grstn) begin accsel1_reg_async <= 1'b0; accsel_int1_reg_async <= 2'b0; end else if (ACCSEL_PRESET == 1'b1) begin accsel1_reg_async <= 1'b0; accsel_int1_reg_async <= 2'b0; end else if (ACCSEL_PCE == 1'b1) begin accsel1_reg_async <= accsel_0; accsel_int1_reg_async <= accsel_int0; end end always @(posedge ACCSEL_PCLK or negedge grstn) begin if (!grstn) begin accsel1_reg_sync <= 1'b0; accsel_int1_reg_sync <= 2'b0; end else if (ACCSEL_PRESET == 1'b1) begin accsel1_reg_sync <= 1'b0; accsel_int1_reg_sync <= 2'b0; end else if (ACCSEL_PCE == 1'b1) begin accsel1_reg_sync <= accsel_0; accsel_int1_reg_sync <= accsel_int0; end end always @(accsel_0 or accsel1_reg or accsel_int0 or accsel_int1_reg) begin if (ACCSEL_PREG_CLK == "BYPASS") begin accsel_1 <= accsel_0; accsel_int1 <= accsel_int0; end else begin accsel_1 <= accsel1_reg; accsel_int1 <= accsel_int1_reg; end end always @(posedge CASISEL_ICLK or posedge CASISEL_IRESET or negedge grstn) begin if (!grstn) begin casisel0_reg_async <= 0; end else if (CASISEL_IRESET == 1'b1) begin casisel0_reg_async <= 0; end else if (CASISEL_ICE == 1'b1) begin casisel0_reg_async <= casisel_sig; end end always @(posedge CASISEL_ICLK or negedge grstn) begin if (!grstn) begin casisel0_reg_sync <= 0; end else if (CASISEL_IRESET == 1'b1) begin casisel0_reg_sync <= 0; end else if (CASISEL_ICE == 1'b1) begin casisel0_reg_sync <= casisel_sig; end end always @(casisel_sig or casisel0_reg) begin if (CASISEL_IREG_CLK == "BYPASS") begin casisel_0 <= casisel_sig; end else begin casisel_0 <= casisel0_reg; end end always @(posedge CASISEL_PCLK or posedge CASISEL_PRESET or negedge grstn) begin if (!grstn) begin casisel1_reg_async <= 0; end else if (CASISEL_PRESET == 1'b1) begin casisel1_reg_async <= 0; end else if (CASISEL_PCE == 1'b1) begin casisel1_reg_async <= casisel_0; end end always @(posedge CASISEL_PCLK or negedge grstn) begin if (!grstn) begin casisel1_reg_sync <= 0; end else if (CASISEL_PRESET == 1'b1) begin casisel1_reg_sync <= 0; end else if (CASISEL_PCE == 1'b1) begin casisel1_reg_sync <= casisel_0; end end always @(casisel_0 or casisel1_reg) begin if (CASISEL_PREG_CLK == "BYPASS") begin casisel_1 <= casisel_0; end else begin casisel_1 <= casisel1_reg; end end always @(posedge ADDSUB0_ICLK or posedge ADDSUB0_IRESET or negedge grstn) begin if (!grstn) begin addsub0_reg0_async <= 0; end else if (ADDSUB0_IRESET == 1'b1) begin addsub0_reg0_async <= 0; end else if (ADDSUB0_ICE == 1'b1) begin addsub0_reg0_async <= addsub0_sig; end end always @(posedge ADDSUB0_ICLK or negedge grstn) begin if (!grstn) begin addsub0_reg0_sync <= 0; end else if (ADDSUB0_IRESET == 1'b1) begin addsub0_reg0_sync <= 0; end else if (ADDSUB0_ICE == 1'b1) begin addsub0_reg0_sync <= addsub0_sig; end end always @(addsub0_sig or addsub0_reg0) begin if (ADDSUB0_IREG_CLK == "BYPASS") begin addsub0_0 <= addsub0_sig; end else begin addsub0_0 <= addsub0_reg0; end end always @(posedge ADDSUB0_PCLK or posedge ADDSUB0_PRESET or negedge grstn) begin if (!grstn) begin addsub0_reg1_async <= 0; end else if (ADDSUB0_PRESET == 1'b1) begin addsub0_reg1_async <= 0; end else if (ADDSUB0_PCE == 1'b1) begin addsub0_reg1_async <= addsub0_0; end end always @(posedge ADDSUB0_PCLK or negedge grstn) begin if (!grstn) begin addsub0_reg1_sync <= 0; end else if (ADDSUB0_PRESET == 1'b1) begin addsub0_reg1_sync <= 0; end else if (ADDSUB0_PCE == 1'b1) begin addsub0_reg1_sync <= addsub0_0; end end always @(addsub0_0 or addsub0_reg1) begin if (ADDSUB0_PREG_CLK == "BYPASS") begin addsub0_1 <= addsub0_0; end else begin addsub0_1 <= addsub0_reg1; end end always @(posedge ADDSUB1_ICLK or posedge ADDSUB1_IRESET or negedge grstn) begin if (!grstn) begin addsub1_reg0_async <= 0; end else if (ADDSUB1_IRESET == 1'b1) begin addsub1_reg0_async <= 0; end else if (ADDSUB1_ICE == 1'b1) begin addsub1_reg0_async <= addsub1_sig; end end always @(posedge ADDSUB1_ICLK or negedge grstn) begin if (!grstn) begin addsub1_reg0_sync <= 0; end else if (ADDSUB1_IRESET == 1'b1) begin addsub1_reg0_sync <= 0; end else if (ADDSUB1_ICE == 1'b1) begin addsub1_reg0_sync <= addsub1_sig; end end always @(addsub1_sig or addsub1_reg0) begin if (ADDSUB1_IREG_CLK == "BYPASS") begin addsub1_0 <= addsub1_sig; end else begin addsub1_0 <= addsub1_reg0; end end always @(posedge ADDSUB1_PCLK or posedge ADDSUB1_PRESET or negedge grstn) begin if (!grstn) begin addsub1_reg1_async <= 0; end else if (ADDSUB1_PRESET == 1'b1) begin addsub1_reg1_async <= 0; end else if (ADDSUB1_PCE == 1'b1) begin addsub1_reg1_async <= addsub1_0; end end always @(posedge ADDSUB1_PCLK or negedge grstn) begin if (!grstn) begin addsub1_reg1_sync <= 0; end else if (ADDSUB1_PRESET == 1'b1) begin addsub1_reg1_sync <= 0; end else if (ADDSUB1_PCE == 1'b1) begin addsub1_reg1_sync <= addsub1_0; end end always @(addsub1_0 or addsub1_reg1) begin if (ADDSUB1_PREG_CLK == "BYPASS") begin addsub1_1 <= addsub1_0; end else begin addsub1_1 <= addsub1_reg1; end end assign a0[23:0] = {{12{ina0[11]}}, ina0[11:0]}; assign b0[23:0] = {{12{inb0[11]}}, inb0[11:0]}; assign a1[23:0] = {{12{ina1[11]}}, ina1[11:0]}; assign b1[23:0] = {{12{inb1[11]}}, inb1[11:0]}; assign mult_out0 = a0 * b0; assign mult_out1 = a1 * b1; // pipeline reg always @(posedge P0_CLK or posedge P0_RESET or negedge grstn) begin if (!grstn) begin out0_reg_async <= 0; end else if (P0_RESET == 1'b1) begin out0_reg_async <= 0; end else if (P0_CE == 1'b1) begin out0_reg_async <= mult_out0; end end always @(posedge P0_CLK or negedge grstn) begin if (!grstn) begin out0_reg_sync <= 0; end else if (P0_RESET == 1'b1) begin out0_reg_sync <= 0; end else if (P0_CE == 1'b1) begin out0_reg_sync <= mult_out0; end end always @(posedge P1_CLK or posedge P1_RESET or negedge grstn) begin if (!grstn) begin out1_reg_async <= 0; end else if (P1_RESET == 1'b1) begin out1_reg_async <= 0; end else if (P1_CE == 1'b1) begin out1_reg_async <= mult_out1; end end always @(posedge P1_CLK or negedge grstn) begin if (!grstn) begin out1_reg_sync <= 0; end else if (P1_RESET == 1'b1) begin out1_reg_sync <= 0; end else if (P1_CE == 1'b1) begin out1_reg_sync <= mult_out1; end end always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_preg_async <= 0; end else if (O_RESET == 1'b1) begin out_preg_async <= 0; end else if (O_CE == 1'b1) begin out_preg_async <= d_out; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_preg_sync <= 0; end else if (O_RESET == 1'b1) begin out_preg_sync <= 0; end else if (O_CE == 1'b1) begin out_preg_sync <= d_out; end end always @(mult_out0 or out0_reg) begin if (PREG0_CLK == "BYPASS") begin out0 = mult_out0; end else begin out0 = out0_reg; end end always @(mult_out1 or out1_reg) begin if (PREG1_CLK == "BYPASS") begin out1 = mult_out1; end else begin out1 = out1_reg; end end always @(d_out or out_preg) begin if (FB_PREG_EN == "FALSE") begin dout_reg = d_out; end else begin dout_reg = out_preg; end end assign m_out0 = {{24{out0[23]}}, out0[23:0]}; assign m_out1 = {{24{out1[23]}}, out1[23:0]}; assign acc_load = (accsel_int1 == 2'b10 || accsel_int1 == 2'b11) ? dout_reg : ((accsel_int1 == 2'b01) ? PRE_LOAD : 48'b0); assign d_casi = (casisel_1 == 1'b1) ? CASI : 48'b0; always @(acc_load or m_out0 or m_out1 or d_casi or addsub0_1 or addsub1_1) begin if (addsub0_1 == 1'b0 && addsub1_1 == 1'b0) begin alu_out = acc_load + m_out0 + m_out1 + d_casi; end else if (addsub0_1 == 1'b0 && addsub1_1 == 1'b1) begin alu_out = acc_load + m_out0 - m_out1 + d_casi; end else if (addsub0_1 == 1'b1 && addsub1_1 == 1'b0) begin alu_out = acc_load - m_out0 + m_out1 + d_casi; end else if (addsub0_1 == 1'b1 && addsub1_1 == 1'b1) begin alu_out = acc_load - m_out0 - m_out1 + d_casi; end end // output reg always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_reg_async <= 0; end else if (O_RESET == 1'b1) begin out_reg_async <= 0; end else if (O_CE == 1'b1) begin out_reg_async <= alu_out; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_reg_sync <= 0; end else if (O_RESET == 1'b1) begin out_reg_sync <= 0; end else if (O_CE == 1'b1) begin out_reg_sync <= alu_out; end end always @(alu_out or out_reg) begin if (OREG_CLK == "BYPASS") begin d_out = alu_out; end else begin d_out = out_reg; end end assign DOUT = d_out[47:0]; assign CASO = d_out[47:0]; endmodule //MULTALU27X18 module MULTALU27X18 ( DOUT, CASO, SOA, A, B, C, D, SIA, CASI, PSEL, ASEL, CSEL, CASISEL, PADDSUB, ACCSEL, ADDSUB, CLK, CE, RESET ); parameter AREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter AREG_CE = "CE0"; // "CE0","CE1" parameter AREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter BREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter BREG_CE = "CE0"; // "CE0","CE1" parameter BREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter DREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter DREG_CE = "CE0"; // "CE0","CE1" parameter DREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter C_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter C_IREG_CE = "CE0"; // "CE0","CE1" parameter C_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PSEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PSEL_IREG_CE = "CE0"; // "CE0","CE1" parameter PSEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PADDSUB_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PADDSUB_IREG_CE = "CE0"; // "CE0","CE1" parameter PADDSUB_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB0_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB0_IREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB0_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB1_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB1_IREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB1_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CSEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CSEL_IREG_CE = "CE0"; // "CE0","CE1" parameter CSEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CASISEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CASISEL_IREG_CE = "CE0"; // "CE0","CE1" parameter CASISEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ACCSEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ACCSEL_IREG_CE = "CE0"; // "CE0","CE1" parameter ACCSEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PREG_CE = "CE0"; // "CE0","CE1" parameter PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB0_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB0_PREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB0_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ADDSUB1_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ADDSUB1_PREG_CE = "CE0"; // "CE0","CE1" parameter ADDSUB1_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CSEL_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CSEL_PREG_CE = "CE0"; // "CE0","CE1" parameter CSEL_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter CASISEL_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter CASISEL_PREG_CE = "CE0"; // "CE0","CE1" parameter CASISEL_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter ACCSEL_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter ACCSEL_PREG_CE = "CE0"; // "CE0","CE1" parameter ACCSEL_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter C_PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter C_PREG_CE = "CE0"; // "CE0","CE1" parameter C_PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter FB_PREG_EN = "FALSE"; // "FALSE";"TRUE" //feedback acc pipeline register,same clk/ce/reset as OREG parameter SOA_PREG_EN = "FALSE"; // "FALSE";"TRUE" //soa pipeline register,,same clk/ce/reset as AREG parameter OREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter OREG_CE = "CE0"; // "CE0","CE1" parameter OREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter MULT_RESET_MODE = "SYNC"; // SYNC,ASYNC parameter PRE_LOAD = 48'h000000000000; parameter DYN_P_SEL = "FALSE"; //"TRUE","FALSE" parameter P_SEL = 1'b0; //1'b0: select direct INA; 1'b1: select preadder parameter DYN_P_ADDSUB = "FALSE"; //"TRUE","FALSE" parameter P_ADDSUB = 1'b0; //1'b0: '+'; 1'b1: '-' parameter DYN_A_SEL = "FALSE"; //"TRUE","FALSE" parameter A_SEL = 1'b0; //1'b0:select A; 1'b1:select SIA. parameter DYN_ADD_SUB_0 = "FALSE"; //"TRUE","FALSE" parameter ADD_SUB_0 = 1'b0; //1'b0: '+'; 1'b1: '-' parameter DYN_ADD_SUB_1 = "FALSE"; //"TRUE","FALSE" parameter ADD_SUB_1 = 1'b0; //1'b0: '+'; 1'b1: '-' parameter DYN_C_SEL = "FALSE"; //"TRUE","FALSE" parameter C_SEL = 1'b1; //1'b0: select 0; 1'b1: select C input parameter DYN_CASI_SEL = "FALSE"; //"TRUE","FALSE" parameter CASI_SEL = 1'b0; //1'b0: select 0; 1'b1:select casi parameter DYN_ACC_SEL = "FALSE"; //"TRUE","FALSE" parameter ACC_SEL = 1'b0; //1'b0: PRE_LOAD;1'b1: DOUT feedback; parameter MULT12X12_EN = "FALSE"; //"TRUE","FALSE" output [47:0] DOUT, CASO; output [26:0] SOA; input [26:0] A, SIA; input [17:0] B; input [47:0] C; input [25:0] D; input [47:0] CASI; input ACCSEL; input PSEL; input ASEL; input PADDSUB; input CSEL, CASISEL; input [1:0] ADDSUB; input [1:0] CLK, CE, RESET; reg A_CLK, A_CE, A_RESET, B_CLK, B_CE, B_RESET, C_ICLK, C_ICE, C_IRESET, C_PCLK, C_PCE, C_PRESET, D_CLK, D_CE, D_RESET, PSEL_ICLK, PSEL_ICE, PSEL_IRESET, ACCSEL_ICLK, ACCSEL_ICE, ACCSEL_IRESET, CSEL_ICLK, CSEL_ICE, CSEL_IRESET, CASISEL_ICLK, CASISEL_ICE, CASISEL_IRESET, ADDSUB0_ICLK, ADDSUB0_ICE, ADDSUB0_IRESET, ADDSUB1_ICLK, ADDSUB1_ICE, ADDSUB1_IRESET, PADDSUB_ICLK, PADDSUB_ICE, PADDSUB_IRESET, P_CLK, P_CE, P_RESET, ACCSEL_PCLK, ACCSEL_PCE, ACCSEL_PRESET, CSEL_PCLK, CSEL_PCE, CSEL_PRESET, CASISEL_PCLK, CASISEL_PCE, CASISEL_PRESET, ADDSUB0_PCLK, ADDSUB0_PCE, ADDSUB0_PRESET, ADDSUB1_PCLK, ADDSUB1_PCE, ADDSUB1_PRESET, O_CLK, O_CE, O_RESET; reg [26:0] ina_reg_async, ina_reg_sync, ina, ina_reg, a_src, a_in, ina_preg_async, ina_preg_sync, ina_preg, SOA; wire [26:0] ina_ext, ind_ext; wire [11:0] ina_12_ext, ind_12_ext; reg [11:0] a_12_in; reg [17:0] inb_reg_async, inb_reg_sync, inb, inb_reg; reg [25:0] ind_reg_async, ind_reg_sync, ind, ind_reg; reg [47:0] inc_ireg_async, inc_ireg_sync, inc_0, inc_ireg, inc_preg_async, inc_preg_sync, inc_1, inc_preg; reg accsel0_reg_async, accsel0_reg_sync, accsel_0, accsel0_reg, accsel1_reg_async, accsel1_reg_sync, accsel_1, accsel1_reg; reg addsub0_reg0_async, addsub0_reg0_sync, addsub0_reg0, addsub0_0, addsub0_reg1_async, addsub0_reg1_sync, addsub0_reg1, addsub0_1; reg addsub1_reg0_async, addsub1_reg0_sync, addsub1_reg0, addsub1_0, addsub1_reg1_async, addsub1_reg1_sync, addsub1_reg1, addsub1_1; reg casisel0_reg_async, casisel0_reg_sync, casisel_0, casisel0_reg, casisel1_reg_async, casisel1_reg_sync, casisel1_reg, casisel_1; reg csel0_reg_async, csel0_reg_sync, csel_0, csel0_reg, csel1_reg_async, csel1_reg_sync, csel1_reg, csel_1; wire [44:0] a0, b0, mult_out; reg [44:0] out0_reg_async, out0_reg_sync, out0, out0_reg; reg [48:0] d_out, out_preg_async, out_preg_sync, out_preg, dout_reg, alu_out; wire [47:0] m_out0, acc_load, d_casi, c_sig; reg [48:0] out_reg_async, out_reg_sync, out_reg; wire preadd_en, p_addsub_sig; reg paddsub_reg0_async, paddsub_reg0_sync, paddsub_reg0, paddsub_0; reg psel_reg_async, psel_reg_sync, psel_reg, psel_0; wire a_sel_sig, accsel_sig, casisel_sig, csel_sig, addsub0_sig, addsub1_sig; reg [1:0] accsel_int; reg [1:0] accsel_int0_reg_async, accsel_int0_reg_sync, accsel_int0, accsel_int0_reg, accsel_int1_reg_async, accsel_int1_reg_sync, accsel_int1, accsel_int1_reg; wire grstn = GSR.GSRO; always @(ina_reg_async or ina_reg_sync or inb_reg_async or inb_reg_sync or ind_reg_async or ind_reg_sync or inc_ireg_async or inc_ireg_sync or inc_preg_async or inc_preg_sync or psel_reg_async or psel_reg_sync or csel0_reg_async or csel0_reg_sync or csel1_reg_async or csel1_reg_sync or casisel0_reg_async or casisel0_reg_sync or casisel1_reg_async or casisel1_reg_sync or accsel0_reg_async or accsel0_reg_sync or accsel1_reg_async or accsel1_reg_sync or addsub0_reg0_async or addsub0_reg0_sync or addsub0_reg1_async or addsub0_reg1_sync or addsub1_reg0_async or addsub1_reg0_sync or addsub1_reg1_async or addsub1_reg1_sync or paddsub_reg0_async or paddsub_reg0_sync or out0_reg_async or out0_reg_sync or out_preg_async or out_preg_sync or ina_preg_sync or ina_preg_async or out_reg_sync or out_reg_async or accsel_int0_reg_async or accsel_int0_reg_sync or accsel_int0_reg or accsel_int1_reg_async or accsel_int1_reg_sync or accsel_int1_reg) begin if (MULT_RESET_MODE == "ASYNC") begin ina_reg <= ina_reg_async; inb_reg <= inb_reg_async; inc_ireg <= inc_ireg_async; inc_preg <= inc_preg_async; ind_reg <= ind_reg_async; psel_reg <= psel_reg_async; accsel0_reg <= accsel0_reg_async; accsel1_reg <= accsel1_reg_async; csel0_reg <= csel0_reg_async; csel1_reg <= csel1_reg_async; casisel0_reg <= casisel0_reg_async; casisel1_reg <= casisel1_reg_async; addsub0_reg0 <= addsub0_reg0_async; addsub0_reg1 <= addsub0_reg1_async; addsub1_reg0 <= addsub1_reg0_async; addsub1_reg1 <= addsub1_reg1_async; paddsub_reg0 <= paddsub_reg0_async; out0_reg <= out0_reg_async; out_preg <= out_preg_async; ina_preg <= ina_preg_async; out_reg <= out_reg_async; accsel_int0_reg <= accsel_int0_reg_async; accsel_int1_reg <= accsel_int1_reg_async; end else if (MULT_RESET_MODE == "SYNC") begin ina_reg <= ina_reg_sync; inb_reg <= inb_reg_sync; ind_reg <= ind_reg_sync; inc_ireg <= inc_ireg_sync; inc_preg <= inc_preg_sync; psel_reg <= psel_reg_sync; accsel0_reg <= accsel0_reg_sync; accsel1_reg <= accsel1_reg_sync; casisel0_reg <= casisel0_reg_sync; casisel1_reg <= casisel1_reg_sync; csel0_reg <= csel0_reg_sync; csel1_reg <= csel1_reg_sync; addsub0_reg0 <= addsub0_reg0_sync; addsub0_reg1 <= addsub0_reg1_sync; addsub1_reg0 <= addsub1_reg0_sync; addsub1_reg1 <= addsub1_reg1_sync; paddsub_reg0 <= paddsub_reg0_sync; out0_reg <= out0_reg_sync; out_preg <= out_preg_sync; ina_preg <= ina_preg_sync; out_reg <= out_reg_sync; accsel_int0_reg <= accsel_int0_reg_sync; accsel_int1_reg <= accsel_int1_reg_sync; end end //clk,ce,reset mux //AREG always @(CLK) begin if (AREG_CLK == "CLK0") A_CLK = CLK[0]; else if (AREG_CLK == "CLK1") A_CLK = CLK[1]; end always @(CE) begin if (AREG_CE == "CE0") A_CE = CE[0]; else if (AREG_CE == "CE1") A_CE = CE[1]; end always @(RESET) begin if (AREG_RESET == "RESET0") A_RESET = RESET[0]; else if (AREG_RESET == "RESET1") A_RESET = RESET[1]; end //BREG always @(CLK) begin if (BREG_CLK == "CLK0") B_CLK = CLK[0]; else if (BREG_CLK == "CLK1") B_CLK = CLK[1]; end always @(CE) begin if (BREG_CE == "CE0") B_CE = CE[0]; else if (BREG_CE == "CE1") B_CE = CE[1]; end always @(RESET) begin if (BREG_RESET == "RESET0") B_RESET = RESET[0]; else if (BREG_RESET == "RESET1") B_RESET = RESET[1]; end //CREG always @(CLK) begin if (C_IREG_CLK == "CLK0") C_ICLK = CLK[0]; else if (C_IREG_CLK == "CLK1") C_ICLK = CLK[1]; end always @(CE) begin if (C_IREG_CE == "CE0") C_ICE = CE[0]; else if (C_IREG_CE == "CE1") C_ICE = CE[1]; end always @(RESET) begin if (C_IREG_RESET == "RESET0") C_IRESET = RESET[0]; else if (C_IREG_RESET == "RESET1") C_IRESET = RESET[1]; end always @(CLK) begin if (C_PREG_CLK == "CLK0") C_PCLK = CLK[0]; else if (C_PREG_CLK == "CLK1") C_PCLK = CLK[1]; end always @(CE) begin if (C_PREG_CE == "CE0") C_PCE = CE[0]; else if (C_PREG_CE == "CE1") C_PCE = CE[1]; end always @(RESET) begin if (C_PREG_RESET == "RESET0") C_PRESET = RESET[0]; else if (C_PREG_RESET == "RESET1") C_PRESET = RESET[1]; end //DREG always @(CLK) begin if (DREG_CLK == "CLK0") D_CLK = CLK[0]; else if (DREG_CLK == "CLK1") D_CLK = CLK[1]; end always @(CE) begin if (DREG_CE == "CE0") D_CE = CE[0]; else if (DREG_CE == "CE1") D_CE = CE[1]; end always @(RESET) begin if (DREG_RESET == "RESET0") D_RESET = RESET[0]; else if (DREG_RESET == "RESET1") D_RESET = RESET[1]; end //IREG always @(CLK) begin if (ACCSEL_IREG_CLK == "CLK0") ACCSEL_ICLK = CLK[0]; else if (ACCSEL_IREG_CLK == "CLK1") ACCSEL_ICLK = CLK[1]; end always @(CE) begin if (ACCSEL_IREG_CE == "CE0") ACCSEL_ICE = CE[0]; else if (ACCSEL_IREG_CE == "CE1") ACCSEL_ICE = CE[1]; end always @(RESET) begin if (ACCSEL_IREG_RESET == "RESET0") ACCSEL_IRESET = RESET[0]; else if (ACCSEL_IREG_RESET == "RESET1") ACCSEL_IRESET = RESET[1]; end always @(CLK) begin if (ADDSUB0_IREG_CLK == "CLK0") ADDSUB0_ICLK = CLK[0]; else if (ADDSUB0_IREG_CLK == "CLK1") ADDSUB0_ICLK = CLK[1]; end always @(CE) begin if (ADDSUB0_IREG_CE == "CE0") ADDSUB0_ICE = CE[0]; else if (ADDSUB0_IREG_CE == "CE1") ADDSUB0_ICE = CE[1]; end always @(RESET) begin if (ADDSUB0_IREG_RESET == "RESET0") ADDSUB0_IRESET = RESET[0]; else if (ADDSUB0_IREG_RESET == "RESET1") ADDSUB0_IRESET = RESET[1]; end always @(CLK) begin if (ADDSUB1_IREG_CLK == "CLK0") ADDSUB1_ICLK = CLK[0]; else if (ADDSUB1_IREG_CLK == "CLK1") ADDSUB1_ICLK = CLK[1]; end always @(CE) begin if (ADDSUB1_IREG_CE == "CE0") ADDSUB1_ICE = CE[0]; else if (ADDSUB1_IREG_CE == "CE1") ADDSUB1_ICE = CE[1]; end always @(RESET) begin if (ADDSUB1_IREG_RESET == "RESET0") ADDSUB1_IRESET = RESET[0]; else if (ADDSUB1_IREG_RESET == "RESET1") ADDSUB1_IRESET = RESET[1]; end always @(CLK) begin if (PSEL_IREG_CLK == "CLK0") PSEL_ICLK = CLK[0]; else if (PSEL_IREG_CLK == "CLK1") PSEL_ICLK = CLK[1]; end always @(CE) begin if (PSEL_IREG_CE == "CE0") PSEL_ICE = CE[0]; else if (PSEL_IREG_CE == "CE1") PSEL_ICE = CE[1]; end always @(RESET) begin if (PSEL_IREG_RESET == "RESET0") PSEL_IRESET = RESET[0]; else if (PSEL_IREG_RESET == "RESET1") PSEL_IRESET = RESET[1]; end always @(CLK) begin if (PADDSUB_IREG_CLK == "CLK0") PADDSUB_ICLK = CLK[0]; else if (PADDSUB_IREG_CLK == "CLK1") PADDSUB_ICLK = CLK[1]; end always @(CE) begin if (PADDSUB_IREG_CE == "CE0") PADDSUB_ICE = CE[0]; else if (PADDSUB_IREG_CE == "CE1") PADDSUB_ICE = CE[1]; end always @(RESET) begin if (PADDSUB_IREG_RESET == "RESET0") PADDSUB_IRESET = RESET[0]; else if (PADDSUB_IREG_RESET == "RESET1") PADDSUB_IRESET = RESET[1]; end always @(CLK) begin if (CSEL_IREG_CLK == "CLK0") CSEL_ICLK = CLK[0]; else if (CSEL_IREG_CLK == "CLK1") CSEL_ICLK = CLK[1]; end always @(CE) begin if (CSEL_IREG_CE == "CE0") CSEL_ICE = CE[0]; else if (CSEL_IREG_CE == "CE1") CSEL_ICE = CE[1]; end always @(RESET) begin if (CSEL_IREG_RESET == "RESET0") CSEL_IRESET = RESET[0]; else if (CSEL_IREG_RESET == "RESET1") CSEL_IRESET = RESET[1]; end always @(CLK) begin if (CASISEL_IREG_CLK == "CLK0") CASISEL_ICLK = CLK[0]; else if (CASISEL_IREG_CLK == "CLK1") CASISEL_ICLK = CLK[1]; end always @(CE) begin if (CASISEL_IREG_CE == "CE0") CASISEL_ICE = CE[0]; else if (CASISEL_IREG_CE == "CE1") CASISEL_ICE = CE[1]; end always @(RESET) begin if (CASISEL_IREG_RESET == "RESET0") CASISEL_IRESET = RESET[0]; else if (CASISEL_IREG_RESET == "RESET1") CASISEL_IRESET = RESET[1]; end //PREG always @(CLK) begin if (PREG_CLK == "CLK0") P_CLK = CLK[0]; else if (PREG_CLK == "CLK1") P_CLK = CLK[1]; end always @(CE) begin if (PREG_CE == "CE0") P_CE = CE[0]; else if (PREG_CE == "CE1") P_CE = CE[1]; end always @(RESET) begin if (PREG_RESET == "RESET0") P_RESET = RESET[0]; else if (PREG_RESET == "RESET1") P_RESET = RESET[1]; end always @(CLK) begin if (ACCSEL_PREG_CLK == "CLK0") ACCSEL_PCLK = CLK[0]; else if (ACCSEL_PREG_CLK == "CLK1") ACCSEL_PCLK = CLK[1]; end always @(CE) begin if (ACCSEL_PREG_CE == "CE0") ACCSEL_PCE = CE[0]; else if (ACCSEL_PREG_CE == "CE1") ACCSEL_PCE = CE[1]; end always @(RESET) begin if (ACCSEL_PREG_RESET == "RESET0") ACCSEL_PRESET = RESET[0]; else if (ACCSEL_PREG_RESET == "RESET1") ACCSEL_PRESET = RESET[1]; end always @(CLK) begin if (ADDSUB0_PREG_CLK == "CLK0") ADDSUB0_PCLK = CLK[0]; else if (ADDSUB0_PREG_CLK == "CLK1") ADDSUB0_PCLK = CLK[1]; end always @(CE) begin if (ADDSUB0_PREG_CE == "CE0") ADDSUB0_PCE = CE[0]; else if (ADDSUB0_PREG_CE == "CE1") ADDSUB0_PCE = CE[1]; end always @(RESET) begin if (ADDSUB0_PREG_RESET == "RESET0") ADDSUB0_PRESET = RESET[0]; else if (ADDSUB0_PREG_RESET == "RESET1") ADDSUB0_PRESET = RESET[1]; end always @(CLK) begin if (ADDSUB1_PREG_CLK == "CLK0") ADDSUB1_PCLK = CLK[0]; else if (ADDSUB1_PREG_CLK == "CLK1") ADDSUB1_PCLK = CLK[1]; end always @(CE) begin if (ADDSUB1_PREG_CE == "CE0") ADDSUB1_PCE = CE[0]; else if (ADDSUB1_PREG_CE == "CE1") ADDSUB1_PCE = CE[1]; end always @(RESET) begin if (ADDSUB1_PREG_RESET == "RESET0") ADDSUB1_PRESET = RESET[0]; else if (ADDSUB1_PREG_RESET == "RESET1") ADDSUB1_PRESET = RESET[1]; end always @(CLK) begin if (CSEL_PREG_CLK == "CLK0") CSEL_PCLK = CLK[0]; else if (CSEL_PREG_CLK == "CLK1") CSEL_PCLK = CLK[1]; end always @(CE) begin if (CSEL_PREG_CE == "CE0") CSEL_PCE = CE[0]; else if (CSEL_PREG_CE == "CE1") CSEL_PCE = CE[1]; end always @(RESET) begin if (CSEL_PREG_RESET == "RESET0") CSEL_PRESET = RESET[0]; else if (CSEL_PREG_RESET == "RESET1") CSEL_PRESET = RESET[1]; end always @(CLK) begin if (CASISEL_PREG_CLK == "CLK0") CASISEL_PCLK = CLK[0]; else if (CASISEL_PREG_CLK == "CLK1") CASISEL_PCLK = CLK[1]; end always @(CE) begin if (CASISEL_PREG_CE == "CE0") CASISEL_PCE = CE[0]; else if (CASISEL_PREG_CE == "CE1") CASISEL_PCE = CE[1]; end always @(RESET) begin if (CASISEL_PREG_RESET == "RESET0") CASISEL_PRESET = RESET[0]; else if (CASISEL_PREG_RESET == "RESET1") CASISEL_PRESET = RESET[1]; end //OREG always @(CLK) begin if (OREG_CLK == "CLK0") O_CLK = CLK[0]; else if (OREG_CLK == "CLK1") O_CLK = CLK[1]; end always @(CE) begin if (OREG_CE == "CE0") O_CE = CE[0]; else if (OREG_CE == "CE1") O_CE = CE[1]; end always @(RESET) begin if (OREG_RESET == "RESET0") O_RESET = RESET[0]; else if (OREG_RESET == "RESET1") O_RESET = RESET[1]; end //PADD or not assign a_sel_sig = (DYN_A_SEL == "TRUE") ? ASEL : A_SEL; always @(A or SIA or a_sel_sig) begin if (a_sel_sig == 1'b0) begin a_src = A; end else begin a_src = SIA; end end assign preadd_en = (DYN_P_SEL == "TRUE") ? PSEL : P_SEL; assign p_addsub_sig = (DYN_P_ADDSUB == "TRUE") ? PADDSUB : P_ADDSUB; always @(posedge PADDSUB_ICLK or posedge PADDSUB_IRESET or negedge grstn) begin if (!grstn) begin paddsub_reg0_async <= 0; end else if (PADDSUB_IRESET == 1'b1) begin paddsub_reg0_async <= 0; end else if (PADDSUB_ICE == 1'b1) begin paddsub_reg0_async <= p_addsub_sig; end end always @(posedge PADDSUB_ICLK or negedge grstn) begin if (!grstn) begin paddsub_reg0_sync <= 0; end else if (PADDSUB_IRESET == 1'b1) begin paddsub_reg0_sync <= 0; end else if (PADDSUB_ICE == 1'b1) begin paddsub_reg0_sync <= p_addsub_sig; end end always @(p_addsub_sig or paddsub_reg0) begin if (PADDSUB_IREG_CLK == "BYPASS") begin paddsub_0 <= p_addsub_sig; end else begin paddsub_0 <= paddsub_reg0; end end always @(posedge PSEL_ICLK or posedge PSEL_IRESET or negedge grstn) begin if (!grstn) begin psel_reg_async <= 0; end else if (PSEL_IRESET == 1'b1) begin psel_reg_async <= 0; end else if (PSEL_ICE == 1'b1) begin psel_reg_async <= preadd_en; end end always @(posedge PSEL_ICLK or negedge grstn) begin if (!grstn) begin psel_reg_sync <= 0; end else if (PSEL_IRESET == 1'b1) begin psel_reg_sync <= 0; end else if (PSEL_ICE == 1'b1) begin psel_reg_sync <= preadd_en; end end always @(preadd_en or psel_reg) begin if (PSEL_IREG_CLK == "BYPASS") begin psel_0 <= preadd_en; end else begin psel_0 <= psel_reg; end end assign ina_ext = {ina[25], ina[25:0]}; assign ind_ext = {ind[25], ind[25:0]}; assign ina_12_ext = {ina[10], ina[10:0]}; assign ind_12_ext = {ind[10], ind[10:0]}; always @(ina_ext or ind_ext or ina or psel_0 or paddsub_0 or ina_12_ext or ind_12_ext) begin if (MULT12X12_EN == "FALSE") begin if (psel_0 == 1'b1) begin if (paddsub_0 == 1'b0) begin a_in = ina_ext + ind_ext; end else begin a_in = ina_ext - ind_ext; end end else begin a_in = ina; end end else if (MULT12X12_EN == "TRUE") begin if (psel_0 == 1'b1) begin if (paddsub_0 == 1'b0) begin a_12_in = ina_12_ext + ind_12_ext; end else begin a_12_in = ina_12_ext - ind_12_ext; end end else begin a_12_in = ina[11:0]; end end end // in reg always @(posedge A_CLK or posedge A_RESET or negedge grstn) begin if (!grstn) begin ina_reg_async <= 0; end else if (A_RESET == 1'b1) begin ina_reg_async <= 0; end else if (A_CE == 1'b1) begin ina_reg_async <= a_src; end end always @(posedge A_CLK or negedge grstn) begin if (!grstn) begin ina_reg_sync <= 0; end else if (A_RESET == 1'b1) begin ina_reg_sync <= 0; end else if (A_CE == 1'b1) begin ina_reg_sync <= a_src; end end always @(a_src or ina_reg) begin if (AREG_CLK == "BYPASS") begin ina = a_src; end else begin ina = ina_reg; end end always @(posedge B_CLK or posedge B_RESET or negedge grstn) begin if (!grstn) begin inb_reg_async <= 0; end else if (B_RESET == 1'b1) begin inb_reg_async <= 0; end else if (B_CE == 1'b1) begin inb_reg_async <= B; end end always @(posedge B_CLK or negedge grstn) begin if (!grstn) begin inb_reg_sync <= 0; end else if (B_RESET == 1'b1) begin inb_reg_sync <= 0; end else if (B_CE == 1'b1) begin inb_reg_sync <= B; end end always @(B or inb_reg) begin if (BREG_CLK == "BYPASS") begin inb = B; end else begin inb = inb_reg; end end always @(posedge C_ICLK or posedge C_IRESET or negedge grstn) begin if (!grstn) begin inc_ireg_async <= 0; end else if (C_IRESET == 1'b1) begin inc_ireg_async <= 0; end else if (C_ICE == 1'b1) begin inc_ireg_async <= C; end end always @(posedge C_ICLK or negedge grstn) begin if (!grstn) begin inc_ireg_sync <= 0; end else if (C_IRESET == 1'b1) begin inc_ireg_sync <= 0; end else if (C_ICE == 1'b1) begin inc_ireg_sync <= C; end end always @(C or inc_ireg) begin if (C_IREG_CLK == "BYPASS") begin inc_0 = C; end else begin inc_0 = inc_ireg; end end always @(posedge C_PCLK or posedge C_PRESET or negedge grstn) begin if (!grstn) begin inc_preg_async <= 0; end else if (C_PRESET == 1'b1) begin inc_preg_async <= 0; end else if (C_PCE == 1'b1) begin inc_preg_async <= inc_0; end end always @(posedge C_PCLK or negedge grstn) begin if (!grstn) begin inc_preg_sync <= 0; end else if (C_PRESET == 1'b1) begin inc_preg_sync <= 0; end else if (C_PCE == 1'b1) begin inc_preg_sync <= inc_0; end end always @(inc_0 or inc_preg) begin if (C_PREG_CLK == "BYPASS") begin inc_1 = inc_0; end else begin inc_1 = inc_preg; end end always @(posedge D_CLK or posedge D_RESET or negedge grstn) begin if (!grstn) begin ind_reg_async <= 0; end else if (D_RESET == 1'b1) begin ind_reg_async <= 0; end else if (D_CE == 1'b1) begin ind_reg_async <= D; end end always @(posedge D_CLK or negedge grstn) begin if (!grstn) begin ind_reg_sync <= 0; end else if (D_RESET == 1'b1) begin ind_reg_sync <= 0; end else if (D_CE == 1'b1) begin ind_reg_sync <= D; end end always @(D or ind_reg) begin if (DREG_CLK == "BYPASS") begin ind = D; end else begin ind = ind_reg; end end assign accsel_sig = (DYN_ACC_SEL == "FALSE") ? ACC_SEL : ACCSEL; assign casisel_sig = (DYN_CASI_SEL == "FALSE") ? CASI_SEL : CASISEL; assign csel_sig = (DYN_C_SEL == "FALSE") ? C_SEL : CSEL; assign addsub0_sig = (DYN_ADD_SUB_0 == "FALSE") ? ADD_SUB_0 : ADDSUB[0]; assign addsub1_sig = (DYN_ADD_SUB_1 == "FALSE") ? ADD_SUB_1 : ADDSUB[1]; always @(accsel_sig) begin if (accsel_sig == 1'b0) begin accsel_int = 2'b01; end else if (accsel_sig == 1'b1) begin accsel_int = 2'b10; end end always @(posedge ACCSEL_ICLK or posedge ACCSEL_IRESET or negedge grstn) begin if (!grstn) begin accsel0_reg_async <= 1'b0; accsel_int0_reg_async <= 2'b00; end else if (ACCSEL_IRESET == 1'b1) begin accsel0_reg_async <= 1'b0; accsel_int0_reg_async <= 2'b0; end else if (ACCSEL_ICE == 1'b1) begin accsel0_reg_async <= accsel_sig; accsel_int0_reg_async <= accsel_int; end end always @(posedge ACCSEL_ICLK or negedge grstn) begin if (!grstn) begin accsel0_reg_sync <= 1'b0; accsel_int0_reg_sync <= 2'b0; end else if (ACCSEL_IRESET == 1'b1) begin accsel0_reg_sync <= 1'b0; accsel_int0_reg_sync <= 2'b0; end else if (ACCSEL_ICE == 1'b1) begin accsel0_reg_sync <= accsel_sig; accsel_int0_reg_sync <= accsel_int; end end always @(accsel_sig or accsel0_reg or accsel_int or accsel_int0_reg) begin if (ACCSEL_IREG_CLK == "BYPASS") begin accsel_0 <= accsel_sig; accsel_int0 <= accsel_int; end else begin accsel_0 <= accsel0_reg; accsel_int0 <= accsel_int0_reg; end end always @(posedge ACCSEL_PCLK or posedge ACCSEL_PRESET or negedge grstn) begin if (!grstn) begin accsel1_reg_async <= 1'b0; accsel_int1_reg_async <= 2'b0; end else if (ACCSEL_PRESET == 1'b1) begin accsel1_reg_async <= 1'b0; accsel_int1_reg_async <= 2'b0; end else if (ACCSEL_PCE == 1'b1) begin accsel1_reg_async <= accsel_0; accsel_int1_reg_async <= accsel_int0; end end always @(posedge ACCSEL_PCLK or negedge grstn) begin if (!grstn) begin accsel1_reg_sync <= 1'b0; accsel_int1_reg_sync <= 2'b0; end else if (ACCSEL_PRESET == 1'b1) begin accsel1_reg_sync <= 1'b0; accsel_int1_reg_sync <= 2'b0; end else if (ACCSEL_PCE == 1'b1) begin accsel1_reg_sync <= accsel_0; accsel_int1_reg_sync <= accsel_int0; end end always @(accsel_0 or accsel1_reg or accsel_int0 or accsel_int1_reg) begin if (ACCSEL_PREG_CLK == "BYPASS") begin accsel_1 <= accsel_0; accsel_int1 <= accsel_int0; end else begin accsel_1 <= accsel1_reg; accsel_int1 <= accsel_int1_reg; end end always @(posedge CASISEL_ICLK or posedge CASISEL_IRESET or negedge grstn) begin if (!grstn) begin casisel0_reg_async <= 0; end else if (CASISEL_IRESET == 1'b1) begin casisel0_reg_async <= 0; end else if (CASISEL_ICE == 1'b1) begin casisel0_reg_async <= casisel_sig; end end always @(posedge CASISEL_ICLK or negedge grstn) begin if (!grstn) begin casisel0_reg_sync <= 0; end else if (CASISEL_IRESET == 1'b1) begin casisel0_reg_sync <= 0; end else if (CASISEL_ICE == 1'b1) begin casisel0_reg_sync <= casisel_sig; end end always @(casisel_sig or casisel0_reg) begin if (CASISEL_IREG_CLK == "BYPASS") begin casisel_0 <= casisel_sig; end else begin casisel_0 <= casisel0_reg; end end always @(posedge CASISEL_PCLK or posedge CASISEL_PRESET or negedge grstn) begin if (!grstn) begin casisel1_reg_async <= 0; end else if (CASISEL_PRESET == 1'b1) begin casisel1_reg_async <= 0; end else if (CASISEL_PCE == 1'b1) begin casisel1_reg_async <= casisel_0; end end always @(posedge CASISEL_PCLK or negedge grstn) begin if (!grstn) begin casisel1_reg_sync <= 0; end else if (CASISEL_PRESET == 1'b1) begin casisel1_reg_sync <= 0; end else if (CASISEL_PCE == 1'b1) begin casisel1_reg_sync <= casisel_0; end end always @(casisel_0 or casisel1_reg) begin if (CASISEL_PREG_CLK == "BYPASS") begin casisel_1 <= casisel_0; end else begin casisel_1 <= casisel1_reg; end end always @(posedge CSEL_ICLK or posedge CSEL_IRESET or negedge grstn) begin if (!grstn) begin csel0_reg_async <= 0; end else if (CSEL_IRESET == 1'b1) begin csel0_reg_async <= 0; end else if (CSEL_ICE == 1'b1) begin csel0_reg_async <= csel_sig; end end always @(posedge CSEL_ICLK or negedge grstn) begin if (!grstn) begin csel0_reg_sync <= 0; end else if (CSEL_IRESET == 1'b1) begin csel0_reg_sync <= 0; end else if (CSEL_ICE == 1'b1) begin csel0_reg_sync <= csel_sig; end end always @(csel_sig or csel0_reg) begin if (CSEL_IREG_CLK == "BYPASS") begin csel_0 <= csel_sig; end else begin csel_0 <= csel0_reg; end end always @(posedge CSEL_PCLK or posedge CSEL_PRESET or negedge grstn) begin if (!grstn) begin csel1_reg_async <= 0; end else if (CSEL_PRESET == 1'b1) begin csel1_reg_async <= 0; end else if (CSEL_PCE == 1'b1) begin csel1_reg_async <= csel_0; end end always @(posedge CSEL_PCLK or negedge grstn) begin if (!grstn) begin csel1_reg_sync <= 0; end else if (CSEL_PRESET == 1'b1) begin csel1_reg_sync <= 0; end else if (CSEL_PCE == 1'b1) begin csel1_reg_sync <= csel_0; end end always @(csel_0 or csel1_reg) begin if (CSEL_PREG_CLK == "BYPASS") begin csel_1 <= csel_0; end else begin csel_1 <= csel1_reg; end end always @(posedge ADDSUB0_ICLK or posedge ADDSUB0_IRESET or negedge grstn) begin if (!grstn) begin addsub0_reg0_async <= 0; end else if (ADDSUB0_IRESET == 1'b1) begin addsub0_reg0_async <= 0; end else if (ADDSUB0_ICE == 1'b1) begin addsub0_reg0_async <= addsub0_sig; end end always @(posedge ADDSUB0_ICLK or negedge grstn) begin if (!grstn) begin addsub0_reg0_sync <= 0; end else if (ADDSUB0_IRESET == 1'b1) begin addsub0_reg0_sync <= 0; end else if (ADDSUB0_ICE == 1'b1) begin addsub0_reg0_sync <= addsub0_sig; end end always @(addsub0_sig or addsub0_reg0) begin if (ADDSUB0_IREG_CLK == "BYPASS") begin addsub0_0 <= addsub0_sig; end else begin addsub0_0 <= addsub0_reg0; end end always @(posedge ADDSUB0_PCLK or posedge ADDSUB0_PRESET or negedge grstn) begin if (!grstn) begin addsub0_reg1_async <= 0; end else if (ADDSUB0_PRESET == 1'b1) begin addsub0_reg1_async <= 0; end else if (ADDSUB0_PCE == 1'b1) begin addsub0_reg1_async <= addsub0_0; end end always @(posedge ADDSUB0_PCLK or negedge grstn) begin if (!grstn) begin addsub0_reg1_sync <= 0; end else if (ADDSUB0_PRESET == 1'b1) begin addsub0_reg1_sync <= 0; end else if (ADDSUB0_PCE == 1'b1) begin addsub0_reg1_sync <= addsub0_0; end end always @(addsub0_0 or addsub0_reg1) begin if (ADDSUB0_PREG_CLK == "BYPASS") begin addsub0_1 <= addsub0_0; end else begin addsub0_1 <= addsub0_reg1; end end always @(posedge ADDSUB1_ICLK or posedge ADDSUB1_IRESET or negedge grstn) begin if (!grstn) begin addsub1_reg0_async <= 0; end else if (ADDSUB1_IRESET == 1'b1) begin addsub1_reg0_async <= 0; end else if (ADDSUB1_ICE == 1'b1) begin addsub1_reg0_async <= addsub1_sig; end end always @(posedge ADDSUB1_ICLK or negedge grstn) begin if (!grstn) begin addsub1_reg0_sync <= 0; end else if (ADDSUB1_IRESET == 1'b1) begin addsub1_reg0_sync <= 0; end else if (ADDSUB1_ICE == 1'b1) begin addsub1_reg0_sync <= addsub1_sig; end end always @(addsub1_sig or addsub1_reg0) begin if (ADDSUB1_IREG_CLK == "BYPASS") begin addsub1_0 <= addsub1_sig; end else begin addsub1_0 <= addsub1_reg0; end end always @(posedge ADDSUB1_PCLK or posedge ADDSUB1_PRESET or negedge grstn) begin if (!grstn) begin addsub1_reg1_async <= 0; end else if (ADDSUB1_PRESET == 1'b1) begin addsub1_reg1_async <= 0; end else if (ADDSUB1_PCE == 1'b1) begin addsub1_reg1_async <= addsub1_0; end end always @(posedge ADDSUB1_PCLK or negedge grstn) begin if (!grstn) begin addsub1_reg1_sync <= 0; end else if (ADDSUB1_PRESET == 1'b1) begin addsub1_reg1_sync <= 0; end else if (ADDSUB1_PCE == 1'b1) begin addsub1_reg1_sync <= addsub1_0; end end always @(addsub1_0 or addsub1_reg1) begin if (ADDSUB1_PREG_CLK == "BYPASS") begin addsub1_1 <= addsub1_0; end else begin addsub1_1 <= addsub1_reg1; end end assign a0[44:0] = (MULT12X12_EN == "FALSE")? {{18{a_in[26]}},a_in[26:0]} : {{33{a_12_in[11]}},a_12_in[11:0]}; assign b0[44:0] = (MULT12X12_EN == "FALSE")? {{27{inb[17]}},inb[17:0]} : {{33{inb[11]}}, inb[11:0]}; assign mult_out = a0 * b0; // pipeline reg always @(posedge P_CLK or posedge P_RESET or negedge grstn) begin if (!grstn) begin out0_reg_async <= 0; end else if (P_RESET == 1'b1) begin out0_reg_async <= 0; end else if (P_CE == 1'b1) begin out0_reg_async <= mult_out; end end always @(posedge P_CLK or negedge grstn) begin if (!grstn) begin out0_reg_sync <= 0; end else if (P_RESET == 1'b1) begin out0_reg_sync <= 0; end else if (P_CE == 1'b1) begin out0_reg_sync <= mult_out; end end always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_preg_async <= 0; end else if (O_RESET == 1'b1) begin out_preg_async <= 0; end else if (O_CE == 1'b1) begin out_preg_async <= d_out; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_preg_sync <= 0; end else if (O_RESET == 1'b1) begin out_preg_sync <= 0; end else if (O_CE == 1'b1) begin out_preg_sync <= d_out; end end always @(mult_out or out0_reg) begin if (PREG_CLK == "BYPASS") begin out0 = mult_out; end else begin out0 = out0_reg; end end always @(d_out or out_preg) begin if (FB_PREG_EN == "FALSE") begin dout_reg = d_out; end else begin dout_reg = out_preg; end end assign m_out0 = {{3{out0[44]}}, out0[44:0]}; assign acc_load = (accsel_int1 == 2'b10 || accsel_int1 == 2'b11) ? dout_reg : ((accsel_int1 == 2'b01) ? PRE_LOAD : 48'b0); assign d_casi = (casisel_1 == 1'b1) ? CASI : 48'b0; assign c_sig = (csel_1 == 1'b1) ? inc_1 : 48'b0; always @(acc_load or m_out0 or d_casi or c_sig or addsub0_1 or addsub1_1) begin if (addsub0_1 == 1'b0 && addsub1_1 == 1'b0) begin alu_out = acc_load + m_out0 + c_sig + d_casi; end else if (addsub0_1 == 1'b0 && addsub1_1 == 1'b1) begin alu_out = acc_load + m_out0 - c_sig + d_casi; end else if (addsub0_1 == 1'b1 && addsub1_1 == 1'b0) begin alu_out = acc_load - m_out0 + c_sig + d_casi; end else if (addsub0_1 == 1'b1 && addsub1_1 == 1'b1) begin alu_out = acc_load - m_out0 - c_sig + d_casi; end end //SOA always @(posedge A_CLK or posedge A_RESET or negedge grstn) begin if (!grstn) begin ina_preg_async <= 0; end else if (A_RESET == 1'b1) begin ina_preg_async <= 0; end else if (A_CE == 1'b1) begin ina_preg_async <= ina; end end always @(posedge A_CLK or negedge grstn) begin if (!grstn) begin ina_preg_sync <= 0; end else if (A_RESET == 1'b1) begin ina_preg_sync <= 0; end else if (A_CE == 1'b1) begin ina_preg_sync <= ina; end end always @(ina or ina_preg) begin if (SOA_PREG_EN == "FALSE") begin SOA = ina; end else begin SOA = ina_preg; end end // output reg always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_reg_async <= 0; end else if (O_RESET == 1'b1) begin out_reg_async <= 0; end else if (O_CE == 1'b1) begin out_reg_async <= alu_out; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_reg_sync <= 0; end else if (O_RESET == 1'b1) begin out_reg_sync <= 0; end else if (O_CE == 1'b1) begin out_reg_sync <= alu_out; end end always @(alu_out or out_reg) begin if (OREG_CLK == "BYPASS") begin d_out = alu_out; end else begin d_out = out_reg; end end assign DOUT = d_out[47:0]; assign CASO = d_out[47:0]; endmodule //MULT12X12 module MULT12X12 ( DOUT, A, B, CLK, CE, RESET ); parameter AREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter AREG_CE = "CE0"; // "CE0","CE1" parameter AREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter BREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter BREG_CE = "CE0"; // "CE0","CE1" parameter BREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PREG_CE = "CE0"; // "CE0","CE1" parameter PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter OREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter OREG_CE = "CE0"; // "CE0","CE1" parameter OREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter MULT_RESET_MODE = "SYNC"; // SYNC,ASYNC output [23:0] DOUT; input [11:0] A, B; input [1:0] CLK, CE, RESET; reg A_CLK, A_CE, A_RESET, B_CLK, B_CE, B_RESET, P_CLK, P_CE, P_RESET, O_CLK, O_CE, O_RESET; reg [11:0] ina_reg_async, ina_reg_sync, ina, ina_reg; reg [11:0] inb_reg_async, inb_reg_sync, inb, inb_reg; wire [23:0] a0, b0, mult_out0; reg [23:0] out0_reg_async, out0_reg_sync, out0, out0_reg; wire [23:0] m_out0; reg [23:0] out_reg_async, out_reg_sync, out_reg, d_out; wire grstn = GSR.GSRO; always @(ina_reg_async or ina_reg_sync or inb_reg_async or inb_reg_sync or out0_reg_async or out0_reg_sync or out_reg_sync or out_reg_async) begin if (MULT_RESET_MODE == "ASYNC") begin ina_reg <= ina_reg_async; inb_reg <= inb_reg_async; out0_reg <= out0_reg_async; out_reg <= out_reg_async; end else if (MULT_RESET_MODE == "SYNC") begin ina_reg <= ina_reg_sync; inb_reg <= inb_reg_sync; out0_reg <= out0_reg_sync; out_reg <= out_reg_sync; end end //clk,ce,reset mux //AREG always @(CLK) begin if (AREG_CLK == "CLK0") A_CLK = CLK[0]; else if (AREG_CLK == "CLK1") A_CLK = CLK[1]; end always @(CE) begin if (AREG_CE == "CE0") A_CE = CE[0]; else if (AREG_CE == "CE1") A_CE = CE[1]; end always @(RESET) begin if (AREG_RESET == "RESET0") A_RESET = RESET[0]; else if (AREG_RESET == "RESET1") A_RESET = RESET[1]; end //BREG always @(CLK) begin if (BREG_CLK == "CLK0") B_CLK = CLK[0]; else if (BREG_CLK == "CLK1") B_CLK = CLK[1]; end always @(CE) begin if (BREG_CE == "CE0") B_CE = CE[0]; else if (BREG_CE == "CE1") B_CE = CE[1]; end always @(RESET) begin if (BREG_RESET == "RESET0") B_RESET = RESET[0]; else if (BREG_RESET == "RESET1") B_RESET = RESET[1]; end //PREG always @(CLK) begin if (PREG_CLK == "CLK0") P_CLK = CLK[0]; else if (PREG_CLK == "CLK1") P_CLK = CLK[1]; end always @(CE) begin if (PREG_CE == "CE0") P_CE = CE[0]; else if (PREG_CE == "CE1") P_CE = CE[1]; end always @(RESET) begin if (PREG_RESET == "RESET0") P_RESET = RESET[0]; else if (PREG_RESET == "RESET1") P_RESET = RESET[1]; end //OREG always @(CLK) begin if (OREG_CLK == "CLK0") O_CLK = CLK[0]; else if (OREG_CLK == "CLK1") O_CLK = CLK[1]; end always @(CE) begin if (OREG_CE == "CE0") O_CE = CE[0]; else if (OREG_CE == "CE1") O_CE = CE[1]; end always @(RESET) begin if (OREG_RESET == "RESET0") O_RESET = RESET[0]; else if (OREG_RESET == "RESET1") O_RESET = RESET[1]; end // in reg always @(posedge A_CLK or posedge A_RESET or negedge grstn) begin if (!grstn) begin ina_reg_async <= 0; end else if (A_RESET == 1'b1) begin ina_reg_async <= 0; end else if (A_CE == 1'b1) begin ina_reg_async <= A; end end always @(posedge A_CLK or negedge grstn) begin if (!grstn) begin ina_reg_sync <= 0; end else if (A_RESET == 1'b1) begin ina_reg_sync <= 0; end else if (A_CE == 1'b1) begin ina_reg_sync <= A; end end always @(A or ina_reg) begin if (AREG_CLK == "BYPASS") begin ina = A; end else begin ina = ina_reg; end end always @(posedge B_CLK or posedge B_RESET or negedge grstn) begin if (!grstn) begin inb_reg_async <= 0; end else if (B_RESET == 1'b1) begin inb_reg_async <= 0; end else if (B_CE == 1'b1) begin inb_reg_async <= B; end end always @(posedge B_CLK or negedge grstn) begin if (!grstn) begin inb_reg_sync <= 0; end else if (B_RESET == 1'b1) begin inb_reg_sync <= 0; end else if (B_CE == 1'b1) begin inb_reg_sync <= B; end end always @(B or inb_reg) begin if (BREG_CLK == "BYPASS") begin inb = B; end else begin inb = inb_reg; end end assign a0[23:0] = {{12{ina[11]}}, ina[11:0]}; assign b0[23:0] = {{12{inb[11]}}, inb[11:0]}; assign mult_out0 = a0 * b0; // pipeline reg always @(posedge P_CLK or posedge P_RESET or negedge grstn) begin if (!grstn) begin out0_reg_async <= 0; end else if (P_RESET == 1'b1) begin out0_reg_async <= 0; end else if (P_CE == 1'b1) begin out0_reg_async <= mult_out0; end end always @(posedge P_CLK or negedge grstn) begin if (!grstn) begin out0_reg_sync <= 0; end else if (P_RESET == 1'b1) begin out0_reg_sync <= 0; end else if (P_CE == 1'b1) begin out0_reg_sync <= mult_out0; end end always @(mult_out0 or out0_reg) begin if (PREG_CLK == "BYPASS") begin out0 = mult_out0; end else begin out0 = out0_reg; end end // output reg always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_reg_async <= 0; end else if (O_RESET == 1'b1) begin out_reg_async <= 0; end else if (O_CE == 1'b1) begin out_reg_async <= out0; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_reg_sync <= 0; end else if (O_RESET == 1'b1) begin out_reg_sync <= 0; end else if (O_CE == 1'b1) begin out_reg_sync <= out0; end end always @(out0 or out_reg) begin if (OREG_CLK == "BYPASS") begin d_out = out0; end else begin d_out = out_reg; end end assign DOUT = d_out[23:0]; endmodule //MULT27X36 module MULT27X36 ( DOUT, A, B, D, PSEL, PADDSUB, CLK, CE, RESET ); parameter AREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter AREG_CE = "CE0"; // "CE0","CE1" parameter AREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter BREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter BREG_CE = "CE0"; // "CE0","CE1" parameter BREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter DREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter DREG_CE = "CE0"; // "CE0","CE1" parameter DREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PADDSUB_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PADDSUB_IREG_CE = "CE0"; // "CE0","CE1" parameter PADDSUB_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PREG_CE = "CE0"; // "CE0","CE1" parameter PREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter PSEL_IREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter PSEL_IREG_CE = "CE0"; // "CE0","CE1" parameter PSEL_IREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter OREG_CLK = "BYPASS"; // "BYPASS","CLK0","CLK1" parameter OREG_CE = "CE0"; // "CE0","CE1" parameter OREG_RESET = "RESET0"; //"RESET0", "RESET1" parameter MULT_RESET_MODE = "SYNC"; // SYNC,ASYNC parameter DYN_P_SEL = "FALSE"; //"TRUE","FALSE" parameter P_SEL = 1'b0; //1'b0: select direct INA; 1'b1: select preadder parameter DYN_P_ADDSUB = "FALSE"; //"TRUE","FALSE" parameter P_ADDSUB = 1'b0; //1'b0:add; 1'b1:sub output [62:0] DOUT; input [26:0] A; input [35:0] B; input [25:0] D; input [1:0] CLK, CE, RESET; input PSEL; input PADDSUB; reg A_CLK, A_CE, A_RESET, B_CLK, B_CE, B_RESET, D_CLK, D_CE, D_RESET, PADDSUB_ICLK, PADDSUB_ICE, PADDSUB_IRESET, PSEL_ICLK, PSEL_ICE, PSEL_IRESET, P_CLK, P_CE, P_RESET, O_CLK, O_CE, O_RESET; reg [26:0] ina_reg_async, ina_reg_sync, ina, ina_reg, a_in; reg [35:0] inb_reg_async, inb_reg_sync, inb, inb_reg; reg [25:0] ind_reg_async, ind_reg_sync, ind, ind_reg; wire [26:0] ina_ext, ind_ext; wire [62:0] a0, b0, mult_out0; reg [62:0] out0_reg_async, out0_reg_sync, out0, out0_reg; reg [62:0] out_reg_async, out_reg_sync, out_reg, d_out; wire preadd_en, p_addsub_sig; reg paddsub_reg0_async, paddsub_reg0_sync, paddsub_reg0, paddsub_0; reg psel_reg_async, psel_reg_sync, psel_reg, psel_0; wire grstn = GSR.GSRO; always @(ina_reg_async or ina_reg_sync or inb_reg_async or inb_reg_sync or ind_reg_async or ind_reg_sync or paddsub_reg0_async or paddsub_reg0_sync or psel_reg_async or psel_reg_sync or out0_reg_async or out0_reg_sync or out_reg_sync or out_reg_async) begin if (MULT_RESET_MODE == "ASYNC") begin ina_reg <= ina_reg_async; inb_reg <= inb_reg_async; ind_reg <= ind_reg_async; paddsub_reg0 <= paddsub_reg0_async; psel_reg <= psel_reg_async; out0_reg <= out0_reg_async; out_reg <= out_reg_async; end else if (MULT_RESET_MODE == "SYNC") begin ina_reg <= ina_reg_sync; inb_reg <= inb_reg_sync; ind_reg <= ind_reg_sync; paddsub_reg0 <= paddsub_reg0_sync; psel_reg <= psel_reg_sync; out0_reg <= out0_reg_sync; out_reg <= out_reg_sync; end end //clk,ce,reset mux //AREG always @(CLK) begin if (AREG_CLK == "CLK0") A_CLK = CLK[0]; else if (AREG_CLK == "CLK1") A_CLK = CLK[1]; end always @(CE) begin if (AREG_CE == "CE0") A_CE = CE[0]; else if (AREG_CE == "CE1") A_CE = CE[1]; end always @(RESET) begin if (AREG_RESET == "RESET0") A_RESET = RESET[0]; else if (AREG_RESET == "RESET1") A_RESET = RESET[1]; end //BREG always @(CLK) begin if (BREG_CLK == "CLK0") B_CLK = CLK[0]; else if (BREG_CLK == "CLK1") B_CLK = CLK[1]; end always @(CE) begin if (BREG_CE == "CE0") B_CE = CE[0]; else if (BREG_CE == "CE1") B_CE = CE[1]; end always @(RESET) begin if (BREG_RESET == "RESET0") B_RESET = RESET[0]; else if (BREG_RESET == "RESET1") B_RESET = RESET[1]; end //DREG always @(CLK) begin if (DREG_CLK == "CLK0") D_CLK = CLK[0]; else if (DREG_CLK == "CLK1") D_CLK = CLK[1]; end always @(CE) begin if (DREG_CE == "CE0") D_CE = CE[0]; else if (DREG_CE == "CE1") D_CE = CE[1]; end always @(RESET) begin if (DREG_RESET == "RESET0") D_RESET = RESET[0]; else if (DREG_RESET == "RESET1") D_RESET = RESET[1]; end //PADDSUB_IREG always @(CLK) begin if (PADDSUB_IREG_CLK == "CLK0") PADDSUB_ICLK = CLK[0]; else if (PADDSUB_IREG_CLK == "CLK1") PADDSUB_ICLK = CLK[1]; end always @(CE) begin if (PADDSUB_IREG_CE == "CE0") PADDSUB_ICE = CE[0]; else if (PADDSUB_IREG_CE == "CE1") PADDSUB_ICE = CE[1]; end always @(RESET) begin if (PADDSUB_IREG_RESET == "RESET0") PADDSUB_IRESET = RESET[0]; else if (PADDSUB_IREG_RESET == "RESET1") PADDSUB_IRESET = RESET[1]; end //PSEL_IREG always @(CLK) begin if (PSEL_IREG_CLK == "CLK0") PSEL_ICLK = CLK[0]; else if (PSEL_IREG_CLK == "CLK1") PSEL_ICLK = CLK[1]; end always @(CE) begin if (PSEL_IREG_CE == "CE0") PSEL_ICE = CE[0]; else if (PSEL_IREG_CE == "CE1") PSEL_ICE = CE[1]; end always @(RESET) begin if (PSEL_IREG_RESET == "RESET0") PSEL_IRESET = RESET[0]; else if (PSEL_IREG_RESET == "RESET1") PSEL_IRESET = RESET[1]; end //PREG always @(CLK) begin if (PREG_CLK == "CLK0") P_CLK = CLK[0]; else if (PREG_CLK == "CLK1") P_CLK = CLK[1]; end always @(CE) begin if (PREG_CE == "CE0") P_CE = CE[0]; else if (PREG_CE == "CE1") P_CE = CE[1]; end always @(RESET) begin if (PREG_RESET == "RESET0") P_RESET = RESET[0]; else if (PREG_RESET == "RESET1") P_RESET = RESET[1]; end //OREG always @(CLK) begin if (OREG_CLK == "CLK0") O_CLK = CLK[0]; else if (OREG_CLK == "CLK1") O_CLK = CLK[1]; end always @(CE) begin if (OREG_CE == "CE0") O_CE = CE[0]; else if (OREG_CE == "CE1") O_CE = CE[1]; end always @(RESET) begin if (OREG_RESET == "RESET0") O_RESET = RESET[0]; else if (OREG_RESET == "RESET1") O_RESET = RESET[1]; end // in reg always @(posedge A_CLK or posedge A_RESET or negedge grstn) begin if (!grstn) begin ina_reg_async <= 0; end else if (A_RESET == 1'b1) begin ina_reg_async <= 0; end else if (A_CE == 1'b1) begin ina_reg_async <= A; end end always @(posedge A_CLK or negedge grstn) begin if (!grstn) begin ina_reg_sync <= 0; end else if (A_RESET == 1'b1) begin ina_reg_sync <= 0; end else if (A_CE == 1'b1) begin ina_reg_sync <= A; end end always @(A or ina_reg) begin if (AREG_CLK == "BYPASS") begin ina = A; end else begin ina = ina_reg; end end always @(posedge B_CLK or posedge B_RESET or negedge grstn) begin if (!grstn) begin inb_reg_async <= 0; end else if (B_RESET == 1'b1) begin inb_reg_async <= 0; end else if (B_CE == 1'b1) begin inb_reg_async <= B; end end always @(posedge B_CLK or negedge grstn) begin if (!grstn) begin inb_reg_sync <= 0; end else if (B_RESET == 1'b1) begin inb_reg_sync <= 0; end else if (B_CE == 1'b1) begin inb_reg_sync <= B; end end always @(B or inb_reg) begin if (BREG_CLK == "BYPASS") begin inb = B; end else begin inb = inb_reg; end end always @(posedge D_CLK or posedge D_RESET or negedge grstn) begin if (!grstn) begin ind_reg_async <= 0; end else if (D_RESET == 1'b1) begin ind_reg_async <= 0; end else if (D_CE == 1'b1) begin ind_reg_async <= D; end end always @(posedge D_CLK or negedge grstn) begin if (!grstn) begin ind_reg_sync <= 0; end else if (D_RESET == 1'b1) begin ind_reg_sync <= 0; end else if (D_CE == 1'b1) begin ind_reg_sync <= D; end end always @(D or ind_reg) begin if (DREG_CLK == "BYPASS") begin ind = D; end else begin ind = ind_reg; end end //PADD or not assign ina_ext = {ina[25], ina[25:0]}; assign ind_ext = {ind[25], ind[25:0]}; assign preadd_en = (DYN_P_SEL == "TRUE") ? PSEL : ((P_SEL == 1'b1) ? 1'b1 : 1'b0); assign p_addsub_sig = (DYN_P_ADDSUB == "TRUE") ? PADDSUB : P_ADDSUB; always @(posedge PADDSUB_ICLK or posedge PADDSUB_IRESET or negedge grstn) begin if (!grstn) begin paddsub_reg0_async <= 0; end else if (PADDSUB_IRESET == 1'b1) begin paddsub_reg0_async <= 0; end else if (PADDSUB_ICE == 1'b1) begin paddsub_reg0_async <= p_addsub_sig; end end always @(posedge PADDSUB_ICLK or negedge grstn) begin if (!grstn) begin paddsub_reg0_sync <= 0; end else if (PADDSUB_IRESET == 1'b1) begin paddsub_reg0_sync <= 0; end else if (PADDSUB_ICE == 1'b1) begin paddsub_reg0_sync <= p_addsub_sig; end end always @(p_addsub_sig or paddsub_reg0) begin if (PADDSUB_IREG_CLK == "BYPASS") begin paddsub_0 <= p_addsub_sig; end else begin paddsub_0 <= paddsub_reg0; end end always @(posedge PSEL_ICLK or posedge PSEL_IRESET or negedge grstn) begin if (!grstn) begin psel_reg_async <= 0; end else if (PSEL_IRESET == 1'b1) begin psel_reg_async <= 0; end else if (PSEL_ICE == 1'b1) begin psel_reg_async <= preadd_en; end end always @(posedge PSEL_ICLK or negedge grstn) begin if (!grstn) begin psel_reg_sync <= 0; end else if (PSEL_IRESET == 1'b1) begin psel_reg_sync <= 0; end else if (PSEL_ICE == 1'b1) begin psel_reg_sync <= preadd_en; end end always @(preadd_en or psel_reg) begin if (PSEL_IREG_CLK == "BYPASS") begin psel_0 <= preadd_en; end else begin psel_0 <= psel_reg; end end always @(ina_ext or ind_ext or ina or psel_0 or paddsub_0) begin if (psel_0 == 1'b1) begin if (paddsub_0 == 1'b0) begin a_in = ina_ext + ind_ext; end else begin a_in = ina_ext - ind_ext; end end else begin a_in = ina; end end assign a0[62:0] = {{36{a_in[26]}}, a_in[26:0]}; assign b0[62:0] = {{27{inb[35]}}, inb[35:0]}; assign mult_out0 = a0 * b0; // pipeline reg always @(posedge P_CLK or posedge P_RESET or negedge grstn) begin if (!grstn) begin out0_reg_async <= 0; end else if (P_RESET == 1'b1) begin out0_reg_async <= 0; end else if (P_CE == 1'b1) begin out0_reg_async <= mult_out0; end end always @(posedge P_CLK or negedge grstn) begin if (!grstn) begin out0_reg_sync <= 0; end else if (P_RESET == 1'b1) begin out0_reg_sync <= 0; end else if (P_CE == 1'b1) begin out0_reg_sync <= mult_out0; end end always @(mult_out0 or out0_reg) begin if (PREG_CLK == "BYPASS") begin out0 = mult_out0; end else begin out0 = out0_reg; end end // output reg always @(posedge O_CLK or posedge O_RESET or negedge grstn) begin if (!grstn) begin out_reg_async <= 0; end else if (O_RESET == 1'b1) begin out_reg_async <= 0; end else if (O_CE == 1'b1) begin out_reg_async <= out0; end end always @(posedge O_CLK or negedge grstn) begin if (!grstn) begin out_reg_sync <= 0; end else if (O_RESET == 1'b1) begin out_reg_sync <= 0; end else if (O_CE == 1'b1) begin out_reg_sync <= out0; end end always @(out0 or out_reg) begin if (OREG_CLK == "BYPASS") begin d_out = out0; end else begin d_out = out_reg; end end assign DOUT = d_out[62:0]; endmodule //MULTACC,15k module MULTACC ( DATAO, CASO, CE, CLK, COFFIN0, COFFIN1, COFFIN2, DATAIN0, DATAIN1, DATAIN2, RSTN, CASI ); output [23:0] DATAO, CASO; input CE, CLK; input [5:0] COFFIN0, COFFIN1, COFFIN2; input [9:0] DATAIN0, DATAIN1; input [9:0] DATAIN2; input RSTN; input [23:0] CASI; //a*b+c*d+e*f,8*4,default parameter COFFIN_WIDTH = 4; // 4/6 bit parameter DATAIN_WIDTH = 8; // 8/10 bit parameter IREG = 1'b0; //0: bypass mode; 1: registered mode parameter OREG = 1'b0; //0: bypass mode; 1: registered mode parameter PREG = 1'b0; //0: bypass mode; 1: registered mode parameter ACC_EN = "FALSE"; //FALSE: CASI/0; TRUE: enable ACC, DOUT parameter CASI_EN = "FALSE"; //FALSE: 0; TRUE: enable CASI. ACC_EN&CASI_EN,mutually exclusive, cannot both be true. Priority is ACC_EN>CASI_EN parameter CASO_EN = "FALSE"; //FALSE: 0; TRUE: enable CASO. wire [5:0] coffin0_sig, coffin1_sig, coffin2_sig; wire [9:0] datain0_sig, datain1_sig, datain2_sig; reg [5:0] coffin0_reg, coffin1_reg, coffin2_reg, ina0, ina1, ina2; reg [9:0] datain0_reg, datain1_reg, datain2_reg, inb0, inb1, inb2; wire [15:0] mult_out0, mult_out1, mult_out2; wire [23:0] d_casi, fb_acc, m_out0, m_out1, m_out2; reg [15:0] out0_reg, out1_reg, out2_reg, out0, out1, out2; reg [23:0] alu_out, dout_reg, d_out; assign coffin0_sig = (COFFIN_WIDTH == 4) ? {{2{1'b0}}, COFFIN0[3:0]} : COFFIN0; assign coffin1_sig = (COFFIN_WIDTH == 4) ? {{2{1'b0}}, COFFIN1[3:0]} : COFFIN1; assign coffin2_sig = (COFFIN_WIDTH == 4) ? {{2{1'b0}}, COFFIN2[3:0]} : COFFIN2; assign datain0_sig = (DATAIN_WIDTH == 8) ? {{2{1'b0}}, DATAIN0[7:0]} : DATAIN0; assign datain1_sig = (DATAIN_WIDTH == 8) ? {{2{1'b0}}, DATAIN1[7:0]} : DATAIN1; assign datain2_sig = (DATAIN_WIDTH == 8) ? {{2{1'b0}}, DATAIN2[7:0]} : DATAIN2; // in reg always @(posedge CLK or negedge RSTN) begin if (RSTN == 1'b0) begin coffin0_reg <= 6'b0; coffin1_reg <= 6'b0; coffin2_reg <= 6'b0; end else if (CE == 1'b1) begin coffin0_reg <= coffin0_sig; coffin1_reg <= coffin1_sig; coffin2_reg <= coffin2_sig; end end always @(posedge CLK or negedge RSTN) begin if (RSTN == 1'b0) begin datain0_reg <= 10'b0; datain1_reg <= 10'b0; datain2_reg <= 10'b0; end else if (CE == 1'b1) begin datain0_reg <= datain0_sig; datain1_reg <= datain1_sig; datain2_reg <= datain2_sig; end end always @(coffin0_reg or coffin1_reg or coffin2_reg or datain0_reg or datain1_reg or datain2_reg or coffin0_sig or coffin1_sig or coffin2_sig or datain0_sig or datain1_sig or datain2_sig) begin if (IREG == 1'b1) begin ina0 = coffin0_reg; ina1 = coffin1_reg; ina2 = coffin2_reg; inb0 = datain0_reg; inb1 = datain1_reg; inb2 = datain2_reg; end else begin ina0 = coffin0_sig; ina1 = coffin1_sig; ina2 = coffin2_sig; inb0 = datain0_sig; inb1 = datain1_sig; inb2 = datain2_sig; end end assign mult_out0 = ina0 * inb0; assign mult_out1 = ina1 * inb1; assign mult_out2 = ina2 * inb2; // pipeline reg always @(posedge CLK or negedge RSTN) begin if (RSTN == 1'b0) begin out0_reg <= 16'b0; out1_reg <= 16'b0; out2_reg <= 16'b0; end else if (CE == 1'b1) begin out0_reg <= mult_out0; out1_reg <= mult_out1; out2_reg <= mult_out2; end end always @(mult_out0 or out0_reg or mult_out1 or out1_reg or mult_out2 or out2_reg) begin if (PREG == 1'b0) begin out0 = mult_out0; out1 = mult_out1; out2 = mult_out2; end else begin out0 = out0_reg; out1 = out1_reg; out2 = out2_reg; end end assign d_casi = (CASI_EN == "TRUE") ? CASI : 24'b0; assign fb_acc = (ACC_EN == "TRUE") ? dout_reg : d_casi; assign m_out0 = {{8{1'b0}}, out0}; assign m_out1 = {{8{1'b0}}, out1}; assign m_out2 = {{8{1'b0}}, out2}; always @(d_casi or fb_acc or m_out0 or m_out1 or m_out2) begin alu_out = m_out0 + m_out1 + m_out2 + fb_acc; end // output reg always @(posedge CLK or negedge RSTN) begin if (RSTN == 1'b0) begin dout_reg <= 0; end else if (CE == 1'b1) begin dout_reg <= alu_out; end end always @(alu_out or dout_reg) begin if (OREG == 1'b0) begin d_out = alu_out; end else begin d_out = dout_reg; end end assign DATAO = d_out[23:0]; assign CASO = (CASO_EN == "TRUE") ? d_out[23:0] : 24'b0; endmodule //////Hardcore models //Iologic //IDDR module IDDR ( Q0, Q1, D, CLK ); input D; input CLK; output Q0; output Q1; parameter Q0_INIT = 1'b0; parameter Q1_INIT = 1'b0; wire gsrt = GSR.GSRO; reg q0_oreg, q1_oreg, q0_reg, q1_reg; reg q0_ireg, q1_ireg; initial begin q0_reg = Q0_INIT; q1_reg = Q1_INIT; q0_oreg = Q0_INIT; q1_oreg = Q1_INIT; q0_ireg = Q0_INIT; q1_ireg = Q1_INIT; end assign Q0 = q0_reg; assign Q1 = q1_reg; always @(gsrt) begin if (!gsrt) begin assign q0_reg = Q0_INIT; assign q1_reg = Q1_INIT; assign q0_oreg = Q0_INIT; assign q1_oreg = Q1_INIT; assign q0_ireg = Q0_INIT; assign q1_ireg = Q1_INIT; end else begin assign q0_reg = q0_reg; assign q1_reg = q1_reg; assign q0_oreg = q0_oreg; assign q1_oreg = q1_oreg; assign q0_ireg = q0_ireg; assign q1_ireg = q1_ireg; end end always @(posedge CLK) begin q0_ireg <= D; q0_oreg <= q0_ireg; q0_reg <= q0_oreg; q1_oreg <= q1_ireg; q1_reg <= q1_oreg; end always @(negedge CLK) begin q1_ireg <= D; end endmodule //IDDR (ddr input) //IDDRC module IDDRC ( Q0, Q1, D, CLK, CLEAR ); input D; input CLK; input CLEAR; output Q0; output Q1; parameter Q0_INIT = 1'b0; parameter Q1_INIT = 1'b0; wire gsrt = GSR.GSRO; reg q0_oreg, q1_oreg, q0_reg, q1_reg; reg q0_ireg, q1_ireg; initial begin q0_reg = Q0_INIT; q1_reg = Q1_INIT; q0_oreg = Q0_INIT; q1_oreg = Q1_INIT; q0_ireg = Q0_INIT; q1_ireg = Q1_INIT; end assign Q0 = q0_reg; assign Q1 = q1_reg; always @(gsrt or CLEAR) begin if (!gsrt) begin assign q0_reg = Q0_INIT; assign q1_reg = Q1_INIT; assign q0_oreg = Q0_INIT; assign q1_oreg = Q1_INIT; assign q0_ireg = Q0_INIT; assign q1_ireg = Q1_INIT; end else if (CLEAR) begin assign q0_reg = 1'b0; assign q1_reg = 1'b0; assign q0_oreg = 1'b0; assign q1_oreg = 1'b0; assign q0_ireg = 1'b0; assign q1_ireg = 1'b0; end else begin assign q0_reg = q0_reg; assign q1_reg = q1_reg; assign q0_oreg = q0_oreg; assign q1_oreg = q1_oreg; assign q0_ireg = q0_ireg; assign q1_ireg = q1_ireg; end end always @(posedge CLK) begin q0_ireg <= D; q0_oreg <= q0_ireg; q0_reg <= q0_oreg; q1_oreg <= q1_ireg; q1_reg <= q1_oreg; end always @(negedge CLK) begin q1_ireg <= D; end endmodule //IDDRC (ddr input, asynchronous clear) //IDDR_MEM module IDDR_MEM ( Q0, Q1, D, WADDR, RADDR, PCLK, ICLK, RESET ); input D, ICLK, PCLK; input [2:0] WADDR; input [2:0] RADDR; input RESET; output Q0, Q1; wire grstn; wire lrstn; //synthesis translate_off assign grstn = GSR.GSRO; assign lrstn = (~RESET); reg d0_reg; reg [7:0] d0_mem; reg [7:0] d1_mem; reg [1:0] q_data; always @(posedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) d0_reg <= 0; else if (!lrstn) d0_reg <= 0; else d0_reg <= D; end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) d0_mem <= 0; else if (!lrstn) d0_mem <= 0; else d0_mem[WADDR] <= d0_reg; end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) d1_mem <= 0; else if (!lrstn) d1_mem <= 0; else d1_mem[WADDR] <= D; end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) q_data <= 0; else if (!lrstn) q_data <= 0; else q_data <= {d1_mem[RADDR], d0_mem[RADDR]}; end assign {Q1, Q0} = q_data; endmodule // IDDR_MEM (ddr input with memory) //ODDR module ODDR ( Q0, Q1, D0, D1, TX, CLK ); input D0; input D1; input TX; input CLK; output Q0; output Q1; parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output parameter INIT = 1'b0; reg d0_reg_0, d0_reg_1, d0_reg_2; reg d1_reg_0, d1_reg_1, d1_reg_2; reg tx_reg_0, tx_reg_1, tx_reg_p, tx_reg_n; wire gsrt = GSR.GSRO; initial begin d0_reg_0 = 1'b0; d0_reg_1 = 1'b0; d0_reg_2 = 1'b0; d1_reg_0 = 1'b0; d1_reg_1 = 1'b0; d1_reg_2 = 1'b0; tx_reg_0 = 1'b0; tx_reg_1 = 1'b0; tx_reg_p = 1'b0; tx_reg_n = 1'b0; end always @(gsrt) begin if (!gsrt) begin assign d1_reg_2 = INIT; assign d0_reg_2 = INIT; assign d1_reg_1 = INIT; assign d0_reg_1 = INIT; assign d1_reg_0 = INIT; assign d0_reg_0 = INIT; assign tx_reg_0 = INIT; assign tx_reg_1 = INIT; assign tx_reg_p = INIT; assign tx_reg_n = INIT; end else begin assign d1_reg_2 = d1_reg_2; assign d0_reg_2 = d0_reg_2; assign d1_reg_1 = d1_reg_1; assign d0_reg_1 = d0_reg_1; assign d1_reg_0 = d1_reg_0; assign d0_reg_0 = d0_reg_0; assign tx_reg_0 = tx_reg_0; assign tx_reg_1 = tx_reg_1; assign tx_reg_p = tx_reg_p; assign tx_reg_n = tx_reg_n; end end always @(posedge CLK) begin d0_reg_0 <= D0; d1_reg_0 <= D1; d0_reg_1 <= d0_reg_0; d1_reg_1 <= d1_reg_0; tx_reg_0 <= TX; tx_reg_1 <= tx_reg_0; end always @(posedge CLK) begin d1_reg_2 <= d1_reg_1; tx_reg_p <= tx_reg_n; end always @(negedge CLK) begin d0_reg_2 <= d0_reg_1; tx_reg_n <= tx_reg_1; end assign Q0 = (CLK) ? d0_reg_2 : d1_reg_2; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; endmodule // ODDR (ddr output) //ODDRC module ODDRC ( Q0, Q1, D0, D1, TX, CLK, CLEAR ); input D0, D1, TX, CLK, CLEAR; output Q0, Q1; parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output parameter INIT = 1'b0; wire gsrt = GSR.GSRO; reg d0_reg_0, d0_reg_1, d0_reg_2; reg d1_reg_0, d1_reg_1, d1_reg_2; reg tx_reg_0, tx_reg_1, tx_reg_p, tx_reg_n; initial begin d0_reg_0 = 1'b0; d0_reg_1 = 1'b0; d0_reg_2 = 1'b0; d1_reg_0 = 1'b0; d1_reg_1 = 1'b0; d1_reg_2 = 1'b0; tx_reg_0 = 1'b0; tx_reg_1 = 1'b0; tx_reg_p = 1'b0; tx_reg_n = 1'b0; end always @(gsrt or CLEAR) begin if (!gsrt) begin assign d1_reg_2 = INIT; assign d0_reg_2 = INIT; assign d1_reg_1 = INIT; assign d0_reg_1 = INIT; assign d1_reg_0 = INIT; assign d0_reg_0 = INIT; assign tx_reg_0 = INIT; assign tx_reg_1 = INIT; assign tx_reg_p = INIT; assign tx_reg_n = INIT; end else if (CLEAR) begin assign d1_reg_2 = 1'b0; assign d0_reg_2 = 1'b0; assign d1_reg_1 = 1'b0; assign d0_reg_1 = 1'b0; assign d1_reg_0 = 1'b0; assign d0_reg_0 = 1'b0; assign tx_reg_0 = 1'b0; assign tx_reg_1 = 1'b0; assign tx_reg_p = 1'b0; assign tx_reg_n = 1'b0; end else begin assign d1_reg_2 = d1_reg_2; assign d0_reg_2 = d0_reg_2; assign d1_reg_1 = d1_reg_1; assign d0_reg_1 = d0_reg_1; assign d1_reg_0 = d1_reg_0; assign d0_reg_0 = d0_reg_0; assign tx_reg_0 = tx_reg_0; assign tx_reg_1 = tx_reg_1; assign tx_reg_p = tx_reg_p; assign tx_reg_n = tx_reg_n; end end always @(posedge CLK) begin d0_reg_0 <= D0; d1_reg_0 <= D1; d0_reg_1 <= d0_reg_0; d1_reg_1 <= d1_reg_0; tx_reg_0 <= TX; tx_reg_1 <= tx_reg_0; end always @(posedge CLK) begin d1_reg_2 <= d1_reg_1; tx_reg_p <= tx_reg_n; end always @(negedge CLK) begin d0_reg_2 <= d0_reg_1; tx_reg_n <= tx_reg_1; end assign Q0 = (CLK) ? d0_reg_2 : d1_reg_2; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; endmodule // ODDRC (ddr output with asynchronous clear) //ODDR_MEM module ODDR_MEM ( Q0, Q1, D0, D1, TX, PCLK, TCLK, RESET ); parameter TCLK_SOURCE = "DQSW"; //"DQSW","DQSW270" parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output input D0, D1; input TX, PCLK, TCLK, RESET; output Q0, Q1; //synthesis translate_off reg [1:0] d_reg_0; reg tx_reg_1; reg [1:0] d_reg_1; reg tx_reg_2; reg d_reg_p; reg tx_reg_p, tx_reg_n; reg d_reg_n; wire tclk_sig; wire grstn; wire lrstn; assign grstn = GSR.GSRO; assign lrstn = (~RESET); assign tclk_sig = (TCLK_SOURCE == "DQSW") ? TCLK : ~TCLK; always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_0 <= 2'b0; tx_reg_1 <= 1'b0; end else if (!lrstn) begin d_reg_0 <= 0; tx_reg_1 <= 0; end else begin d_reg_0 <= {D1, D0}; tx_reg_1 <= TX; end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_1 <= 2'b0; tx_reg_2 <= 1'b0; end else if (!lrstn) begin d_reg_1 <= 2'b0; tx_reg_2 <= 1'b0; end else begin d_reg_1 <= d_reg_0; tx_reg_2 <= tx_reg_1; end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else begin d_reg_p <= d_reg_1[1]; tx_reg_p <= tx_reg_n; end end always @(negedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else begin d_reg_n <= d_reg_1[0]; tx_reg_n <= tx_reg_2; end end assign Q0 = tclk_sig ? d_reg_n : d_reg_p; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; //synthesis translate_on endmodule // ODDR_MEM (ddr output with memory) //IDES4 module IDES4 ( Q0, Q1, Q2, Q3, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3; reg d0_reg; reg d1_reg; reg [3:0] D_data; reg [3:0] data; reg [3:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4; reg reset_delay; reg dcnt0; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; end else if (dcnt_en) begin dcnt0 <= ~dcnt0; end else begin dcnt0 <= dcnt0; end end assign d_up_en = ~dcnt0; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; end end always @(d_sel or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d1_reg0 or d1_reg2 or d1_reg3 or d1_reg4) begin if (d_sel) begin D_data[3] <= d0_reg2; D_data[2] <= d1_reg3; D_data[1] <= d0_reg3; D_data[0] <= d1_reg4; end else begin D_data[3] <= d1_reg3; D_data[2] <= d0_reg3; D_data[1] <= d1_reg4; D_data[0] <= d0_reg4; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES4 (4 to 1 deserializer) //IDES8 module IDES8 ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7; reg d0_reg; reg d1_reg; reg [7:0] D_data; reg [7:0] data; reg [7:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4; reg reset_delay; reg dcnt0, dcnt1; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; dcnt1 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; dcnt1 <= 0; end else if (dcnt_en) begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt0 ^ dcnt1; end else begin dcnt0 <= dcnt0; dcnt1 <= dcnt1; end end assign d_up_en = dcnt0 & (~dcnt1); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; end end always @(d_sel or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4) begin if (d_sel) begin D_data[7] <= d0_reg0; D_data[6] <= d1_reg1; D_data[5] <= d0_reg1; D_data[4] <= d1_reg2; D_data[3] <= d0_reg2; D_data[2] <= d1_reg3; D_data[1] <= d0_reg3; D_data[0] <= d1_reg4; end else begin D_data[7] <= d1_reg1; D_data[6] <= d0_reg1; D_data[5] <= d1_reg2; D_data[4] <= d0_reg2; D_data[3] <= d1_reg3; D_data[2] <= d0_reg3; D_data[1] <= d1_reg4; D_data[0] <= d0_reg4; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES8 (8 to 1 deserializer) //IDES10 module IDES10 ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9; reg d0_reg; reg d1_reg; reg [9:0] D_data; reg [9:0] data; reg [9:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4, d0_reg5; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4, d1_reg5; reg reset_delay; reg dcnt0, dcnt1, dcnt2; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else if (dcnt_en) begin dcnt0 <= ~(dcnt0 | ((~dcnt0) & (~dcnt1) & dcnt2)); dcnt1 <= ~((~(dcnt1 ^ dcnt0)) | ((~dcnt0) & (~dcnt1) & dcnt2)); dcnt2 <= ~((~(dcnt2 ^ (dcnt1 & dcnt0))) | ((~dcnt0) & (~dcnt1) & dcnt2)); end else begin dcnt0 <= dcnt0; dcnt1 <= dcnt1; dcnt2 <= dcnt2; end end assign d_up_en = dcnt1 & (~dcnt0); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d0_reg5 <= d0_reg4; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; d1_reg5 <= d1_reg4; end end always @(d_sel or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d0_reg5 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4 or d1_reg5) begin if (d_sel) begin D_data[9] <= d0_reg0; D_data[8] <= d1_reg1; D_data[7] <= d0_reg1; D_data[6] <= d1_reg2; D_data[5] <= d0_reg2; D_data[4] <= d1_reg3; D_data[3] <= d0_reg3; D_data[2] <= d1_reg4; D_data[1] <= d0_reg4; D_data[0] <= d1_reg5; end else begin D_data[9] <= d1_reg1; D_data[8] <= d0_reg1; D_data[7] <= d1_reg2; D_data[6] <= d0_reg2; D_data[5] <= d1_reg3; D_data[4] <= d0_reg3; D_data[3] <= d1_reg4; D_data[2] <= d0_reg4; D_data[1] <= d1_reg5; D_data[0] <= d0_reg5; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q9, Q8, Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES10 (10 to 1 deserializer) //IDES16 module IDES16 ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13, Q14, Q15, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13, Q14, Q15; reg d0_reg; reg d1_reg; reg [15:0] D_data; reg [15:0] data; reg [15:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4, d0_reg5, d0_reg6, d0_reg7, d0_reg8; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4, d1_reg5, d1_reg6, d1_reg7, d1_reg8; reg reset_delay; reg dcnt0, dcnt1, dcnt2; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else if (dcnt_en) begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt0 ^ dcnt1; dcnt2 <= (dcnt0 & dcnt1) ^ dcnt2; end else begin dcnt0 <= dcnt0; dcnt1 <= dcnt1; dcnt2 <= dcnt2; end end assign d_up_en = (~dcnt2) & dcnt1 & dcnt0; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d0_reg8 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; d1_reg8 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d0_reg8 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; d1_reg8 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d0_reg5 <= d0_reg4; d0_reg6 <= d0_reg5; d0_reg7 <= d0_reg6; d0_reg8 <= d0_reg7; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; d1_reg5 <= d1_reg4; d1_reg6 <= d1_reg5; d1_reg7 <= d1_reg6; d1_reg8 <= d1_reg7; end end always @(d_sel or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d0_reg5 or d0_reg6 or d0_reg7 or d0_reg8 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4 or d1_reg5 or d1_reg6 or d1_reg7 or d1_reg8) begin if (d_sel) begin D_data[15] <= d0_reg0; D_data[14] <= d1_reg1; D_data[13] <= d0_reg1; D_data[12] <= d1_reg2; D_data[11] <= d0_reg2; D_data[10] <= d1_reg3; D_data[9] <= d0_reg3; D_data[8] <= d1_reg4; D_data[7] <= d0_reg4; D_data[6] <= d1_reg5; D_data[5] <= d0_reg5; D_data[4] <= d1_reg6; D_data[3] <= d0_reg6; D_data[2] <= d1_reg7; D_data[1] <= d0_reg7; D_data[0] <= d1_reg8; end else begin D_data[15] <= d1_reg1; D_data[14] <= d0_reg1; D_data[13] <= d1_reg2; D_data[12] <= d0_reg2; D_data[11] <= d1_reg3; D_data[10] <= d0_reg3; D_data[9] <= d1_reg4; D_data[8] <= d0_reg4; D_data[7] <= d1_reg5; D_data[6] <= d0_reg5; D_data[5] <= d1_reg6; D_data[4] <= d0_reg6; D_data[3] <= d1_reg7; D_data[2] <= d0_reg7; D_data[1] <= d1_reg8; D_data[0] <= d0_reg8; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q15, Q14, Q13, Q12, Q11, Q10, Q9, Q8, Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES16 (16 to 1 deserializer) //IDES4_MEM module IDES4_MEM ( Q0, Q1, Q2, Q3, D, WADDR, RADDR, CALIB, PCLK, FCLK, ICLK, RESET ); input PCLK, D, ICLK, FCLK, RESET, CALIB; input [2:0] WADDR; input [2:0] RADDR; output Q0, Q1, Q2, Q3; wire grstn, lrstn; reg d0_reg; reg [3:0] D_data; reg [3:0] Q_data; reg [3:0] data; reg data_en1, data_en; reg data_sel, calib_state; reg reset_delay; wire calib_rising_p; reg calib_0, calib_1, calib_2; wire dcnt_en; reg d0_reg1, d0_reg2, d0_reg3, d0_reg4, d1_reg1, d1_reg2, d1_reg3, d1_reg4; reg [7:0] d0_mem; reg [7:0] d1_mem; initial begin calib_state = 1'b0; data_en1 = 1'b0; data_en = 1'b0; data_sel = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_mem <= 0; end else if (!lrstn) begin d0_mem <= 0; end else begin d0_mem[WADDR] <= d0_reg; end end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_mem <= 0; end else if (!lrstn) begin d1_mem <= 0; end else begin d1_mem[WADDR] <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else if (!lrstn) begin d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else begin d0_reg1 <= d0_mem[RADDR]; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d1_reg1 <= d1_mem[RADDR]; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign calib_rising_p = calib_1 & (~calib_2); assign dcnt_en = ~(calib_rising_p & calib_state); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; data_en1 <= 0; data_en <= 0; data_sel <= 0; end else begin data_en <= ~data_en1; if (calib_rising_p) begin calib_state <= ~calib_state; data_sel <= ~data_sel; end else begin calib_state <= calib_state; data_sel <= data_sel; end if (dcnt_en) begin data_en1 <= ~data_en1; end else begin data_en1 <= data_en1; end end end always @(data_sel or d0_mem[RADDR] or d1_mem[RADDR]or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4) begin if (data_sel) begin D_data[3] = d0_reg2; D_data[2] = d1_reg3; D_data[1] = d0_reg3; D_data[0] = d1_reg4; end else begin D_data[3] = d1_reg3; D_data[2] = d0_reg3; D_data[1] = d1_reg4; D_data[0] = d0_reg4; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (data_en) begin data <= D_data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q3, Q2, Q1, Q0} = Q_data; endmodule //IDES4_MEM (4 to 1 deserializer with memory) module IVIDEO ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6; wire grstn; wire lrstn; assign grstn = GSR.GSRO; assign lrstn = (~RESET); reg d0_reg; reg d1_reg; reg [6:0] D_data; reg [6:0] data; reg [6:0] Q_data; reg data_sel; reg reset_delay; wire calib_rising_p; reg [2:0] calib_data; wire dcnt_en, dsel_en; reg d0_reg0, d0_reg1, d0_reg2, d1_reg0, d1_reg1, d1_reg2, d1_reg3; reg d0_ireg, d0_ireg0, d1_ireg, d1_ireg1; reg data_en, data_en0, data_en1; always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_ireg <= 0; d0_ireg0 <= d0_ireg; d0_reg <= d0_ireg0; end else if (!lrstn) begin d0_ireg <= 0; d0_ireg0 <= d0_ireg; d0_reg <= d0_ireg0; end else begin d0_ireg <= D; d0_ireg0 <= d0_ireg; d0_reg <= d0_ireg0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_ireg <= 0; d1_ireg1 <= d1_ireg; d1_reg <= d1_ireg1; end else if (!lrstn) begin d1_ireg <= 0; d1_ireg1 <= d1_ireg; d1_reg <= d1_ireg1; end else begin d1_ireg <= D; d1_ireg1 <= d1_ireg; d1_reg <= d1_ireg1; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 1'b0; end else if (!lrstn) begin reset_delay <= 1'b0; end else begin reset_delay <= 1'b1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_data <= 3'b0; end else begin calib_data <= {calib_data[1:0], CALIB}; end end assign calib_rising_p = ~(calib_data[1] && (~calib_data[2])); assign dcnt_en = calib_rising_p; assign dsel_en = ~(~(data_sel & data_en1 & (~data_en0) & calib_rising_p)) & (~(data_en0 & data_en1 & (~data_sel))); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin data_en1 <= 1'b0; data_en0 <= 1'b0; data_en <= 1'b0; data_sel <= 1'b0; end else begin data_en <= ~(~(data_en0 & (~data_en1) & (~data_sel))&(~((~data_en0) & (~data_en1) & data_sel))); if (dsel_en) begin data_sel <= ~data_sel; end else begin data_sel <= data_sel; end if (dcnt_en) begin data_en0 <= ~data_en0; end else begin data_en0 <= data_en0; end if (dcnt_en) begin data_en1 <= data_en0 ^ data_en1; end else begin data_en1 <= data_en1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; end else begin d0_ireg0 <= d0_ireg; d0_reg <= d0_ireg0; d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d1_ireg1 <= d1_ireg; d1_reg <= d1_ireg1; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; end end always @(data_sel or d0_reg or d0_reg0 or d0_reg1 or d0_reg2 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3) begin if (data_sel) begin D_data[6] <= d0_reg; D_data[5] <= d1_reg0; D_data[4] <= d0_reg0; D_data[3] <= d1_reg1; D_data[2] <= d0_reg1; D_data[1] <= d1_reg2; D_data[0] <= d0_reg2; end else begin D_data[6] <= d1_reg0; D_data[5] <= d0_reg0; D_data[4] <= d1_reg1; D_data[3] <= d0_reg1; D_data[2] <= d1_reg2; D_data[1] <= d0_reg2; D_data[0] <= d1_reg3; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (data_en) begin data <= D_data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule //IVIDEO (7 to 1 deserializer) //IDES8_MEM module IDES8_MEM ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, D, WADDR, RADDR, CALIB, PCLK, FCLK, ICLK, RESET ); input PCLK, D, ICLK, FCLK, RESET, CALIB; input [2:0] WADDR; input [2:0] RADDR; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7; wire grstn, lrstn; reg d0_reg; reg [7:0] D_data; reg [7:0] Q_data; reg [7:0] data; reg data_en0, data_en1, data_en; reg data_sel, calib_state; reg reset_delay; wire calib_rising_p; reg calib_0, calib_1, calib_2; wire dcnt_en; reg d0_reg1, d0_reg2, d0_reg3, d0_reg4, d1_reg1, d1_reg2, d1_reg3, d1_reg4; reg [7:0] d0_mem; reg [7:0] d1_mem; initial begin calib_state = 1'b0; data_en0 = 1'b0; data_en1 = 1'b0; data_en = 1'b0; data_sel = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_mem <= 0; end else if (!lrstn) begin d0_mem <= 0; end else begin d0_mem[WADDR] <= d0_reg; end end always @(negedge ICLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_mem <= 0; end else if (!lrstn) begin d1_mem <= 0; end else begin d1_mem[WADDR] <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else if (!lrstn) begin d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; end else begin d0_reg1 <= d0_mem[RADDR]; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d1_reg1 <= d1_mem[RADDR]; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign calib_rising_p = calib_1 & (~calib_2); assign dcnt_en = ~(calib_rising_p & calib_state); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; data_en0 <= 0; data_en1 <= 0; data_en <= 0; data_sel <= 0; end else begin data_en <= ~data_en1 & data_en0; if (calib_rising_p) begin calib_state <= ~calib_state; data_sel <= ~data_sel; end else begin calib_state <= calib_state; data_sel <= data_sel; end if (dcnt_en) begin data_en0 <= ~data_en0; end else begin data_en0 <= data_en0; end if (dcnt_en) begin data_en1 <= data_en0 ^ data_en1; end else begin data_en1 <= data_en1; end end end always @(data_sel or d0_mem[RADDR] or d1_mem[RADDR]or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4) begin if (data_sel) begin D_data[7] <= d0_mem[RADDR]; D_data[6] <= d1_reg1; D_data[5] <= d0_reg1; D_data[4] <= d1_reg2; D_data[3] <= d0_reg2; D_data[2] <= d1_reg3; D_data[1] <= d0_reg3; D_data[0] <= d1_reg4; end else begin D_data[7] <= d1_reg1; D_data[6] <= d0_reg1; D_data[5] <= d1_reg2; D_data[4] <= d0_reg2; D_data[3] <= d1_reg3; D_data[2] <= d0_reg3; D_data[1] <= d1_reg4; D_data[0] <= d0_reg4; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (data_en) begin data <= D_data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule //IDES8_MEM (8 to 1 deserializer with memory) //IDES4 module IDES14 ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13; reg d0_reg; reg d1_reg; reg [13:0] D_data; reg [13:0] data; reg [13:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4, d0_reg5, d0_reg6, d0_reg7; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4, d1_reg5, d1_reg6, d1_reg7; reg reset_delay; reg dcnt0, dcnt1, dcnt2; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else if (dcnt_en) begin dcnt0 <= ~(dcnt0 | ((~dcnt0) & dcnt1 & dcnt2)); dcnt1 <= ~((~(dcnt1 ^ dcnt0)) | ((~dcnt0) & dcnt1 & dcnt2)); dcnt2 <= ~((~(dcnt2 ^ (dcnt1 & dcnt0))) | ((~dcnt0) & dcnt1 & dcnt2)); end else begin dcnt0 <= dcnt0; dcnt1 <= dcnt1; dcnt2 <= dcnt2; end end assign d_up_en = ((~dcnt2) & dcnt1) & dcnt0; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d0_reg5 <= d0_reg4; d0_reg6 <= d0_reg5; d0_reg7 <= d0_reg6; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; d1_reg5 <= d1_reg4; d1_reg6 <= d1_reg5; d1_reg7 <= d1_reg6; end end always @(d_sel or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d0_reg5 or d0_reg6 or d0_reg7 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4 or d1_reg5 or d1_reg6 or d1_reg7) begin if (d_sel) begin D_data[13] <= d0_reg0; D_data[12] <= d1_reg1; D_data[11] <= d0_reg1; D_data[10] <= d1_reg2; D_data[9] <= d0_reg2; D_data[8] <= d1_reg3; D_data[7] <= d0_reg3; D_data[6] <= d1_reg4; D_data[5] <= d0_reg4; D_data[4] <= d1_reg5; D_data[3] <= d0_reg5; D_data[2] <= d1_reg6; D_data[1] <= d0_reg6; D_data[0] <= d1_reg7; end else begin D_data[13] <= d1_reg1; D_data[12] <= d0_reg1; D_data[11] <= d1_reg2; D_data[10] <= d0_reg2; D_data[9] <= d1_reg3; D_data[8] <= d0_reg3; D_data[7] <= d1_reg4; D_data[6] <= d0_reg4; D_data[5] <= d1_reg5; D_data[4] <= d0_reg5; D_data[3] <= d1_reg6; D_data[2] <= d0_reg6; D_data[1] <= d1_reg7; D_data[0] <= d0_reg7; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q13, Q12, Q11, Q10, Q9, Q8, Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES14 (14 to 1 deserializer) //IDES32 module IDES32 ( Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13, Q14, Q15, Q16, Q17, Q18, Q19, Q20, Q21, Q22, Q23, Q24, Q25, Q26, Q27, Q28, Q29, Q30, Q31, D, CALIB, PCLK, FCLK, RESET ); input D, FCLK, PCLK, CALIB, RESET; output Q0, Q1, Q2, Q3, Q4, Q5, Q6, Q7, Q8, Q9, Q10, Q11, Q12, Q13, Q14, Q15, Q16, Q17, Q18, Q19, Q20, Q21, Q22, Q23, Q24, Q25, Q26, Q27, Q28, Q29, Q30, Q31; reg d0_reg; reg d1_reg; reg [31:0] D_data; reg [31:0] data; reg [31:0] Q_data; reg d0_reg0, d0_reg1, d0_reg2, d0_reg3, d0_reg4, d0_reg5, d0_reg6, d0_reg7, d0_reg8, d0_reg9, d0_reg10, d0_reg11, d0_reg12, d0_reg13, d0_reg14, d0_reg15, d0_reg16; reg d1_reg0, d1_reg1, d1_reg2, d1_reg3, d1_reg4, d1_reg5, d1_reg6, d1_reg7, d1_reg8, d1_reg9, d1_reg10, d1_reg11, d1_reg12, d1_reg13, d1_reg14, d1_reg15, d1_reg16; reg reset_delay; reg dcnt0, dcnt1, dcnt2; reg calib_0, calib_1, calib_2; reg calib_state; reg d_up, d_sel; wire grstn, lrstn; wire calib_state_en, dcnt_en; wire dsel_en, d_up_en; assign grstn = GSR.GSRO; assign lrstn = (~RESET); initial begin d_sel = 1'b0; calib_state = 1'b0; dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin reset_delay <= 0; end else if (!lrstn) begin reset_delay <= 0; end else begin reset_delay <= 1; end end always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_0 <= 0; calib_1 <= 0; calib_2 <= 0; end else begin calib_0 <= CALIB; calib_1 <= calib_0; calib_2 <= calib_1; end end assign dsel_en = calib_1 & ~calib_2; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_sel <= 0; end else begin if (dsel_en) begin d_sel <= ~d_sel; end else begin d_sel <= d_sel; end end end assign calib_state_en = dsel_en; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin calib_state <= 0; end else if (calib_state_en) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end assign dcnt_en = ~(calib_state & calib_state_en); always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else if (dcnt_en) begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt1 ^ dcnt0; dcnt2 <= dcnt2 ^ (dcnt1 & dcnt0); end else begin dcnt0 <= dcnt0; dcnt1 <= dcnt1; dcnt2 <= dcnt2; end end assign d_up_en = ((~dcnt2) & dcnt1) & dcnt0; always @(posedge FCLK or negedge reset_delay) begin if (!reset_delay) begin d_up <= 0; end else if (d_up_en) begin d_up <= 1; end else begin d_up <= 0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg <= 0; end else if (!lrstn) begin d0_reg <= 0; end else begin d0_reg <= D; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d1_reg <= 0; end else if (!lrstn) begin d1_reg <= 0; end else begin d1_reg <= D; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d0_reg8 <= 1'b0; d0_reg9 <= 1'b0; d0_reg10 <= 1'b0; d0_reg11 <= 1'b0; d0_reg12 <= 1'b0; d0_reg13 <= 1'b0; d0_reg14 <= 1'b0; d0_reg15 <= 1'b0; d0_reg16 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; d1_reg8 <= 1'b0; d1_reg9 <= 1'b0; d1_reg10 <= 1'b0; d1_reg11 <= 1'b0; d1_reg12 <= 1'b0; d1_reg13 <= 1'b0; d1_reg14 <= 1'b0; d1_reg15 <= 1'b0; d1_reg16 <= 1'b0; end else if (!lrstn) begin d0_reg0 <= 1'b0; d0_reg1 <= 1'b0; d0_reg2 <= 1'b0; d0_reg3 <= 1'b0; d0_reg4 <= 1'b0; d0_reg5 <= 1'b0; d0_reg6 <= 1'b0; d0_reg7 <= 1'b0; d0_reg8 <= 1'b0; d0_reg9 <= 1'b0; d0_reg10 <= 1'b0; d0_reg11 <= 1'b0; d0_reg12 <= 1'b0; d0_reg13 <= 1'b0; d0_reg14 <= 1'b0; d0_reg15 <= 1'b0; d0_reg16 <= 1'b0; d1_reg0 <= 1'b0; d1_reg1 <= 1'b0; d1_reg2 <= 1'b0; d1_reg3 <= 1'b0; d1_reg4 <= 1'b0; d1_reg5 <= 1'b0; d1_reg6 <= 1'b0; d1_reg7 <= 1'b0; d1_reg8 <= 1'b0; d1_reg9 <= 1'b0; d1_reg10 <= 1'b0; d1_reg11 <= 1'b0; d1_reg12 <= 1'b0; d1_reg13 <= 1'b0; d1_reg14 <= 1'b0; d1_reg15 <= 1'b0; d1_reg16 <= 1'b0; end else begin d0_reg0 <= d0_reg; d0_reg1 <= d0_reg0; d0_reg2 <= d0_reg1; d0_reg3 <= d0_reg2; d0_reg4 <= d0_reg3; d0_reg5 <= d0_reg4; d0_reg6 <= d0_reg5; d0_reg7 <= d0_reg6; d0_reg8 <= d0_reg7; d0_reg9 <= d0_reg8; d0_reg10 <= d0_reg9; d0_reg11 <= d0_reg10; d0_reg12 <= d0_reg11; d0_reg13 <= d0_reg12; d0_reg14 <= d0_reg13; d0_reg15 <= d0_reg14; d0_reg16 <= d0_reg15; d1_reg0 <= d1_reg; d1_reg1 <= d1_reg0; d1_reg2 <= d1_reg1; d1_reg3 <= d1_reg2; d1_reg4 <= d1_reg3; d1_reg5 <= d1_reg4; d1_reg6 <= d1_reg5; d1_reg7 <= d1_reg6; d1_reg8 <= d1_reg7; d1_reg9 <= d1_reg8; d1_reg10 <= d1_reg9; d1_reg11 <= d1_reg10; d1_reg12 <= d1_reg11; d1_reg13 <= d1_reg12; d1_reg14 <= d1_reg13; d1_reg15 <= d1_reg14; d1_reg16 <= d1_reg15; end end always @(d_sel or d0_reg or d0_reg0 or d0_reg1 or d0_reg2 or d0_reg3 or d0_reg4 or d0_reg5 or d0_reg6 or d0_reg7 or d0_reg8 or d0_reg9 or d0_reg10 or d0_reg11 or d0_reg12 or d0_reg13 or d0_reg14 or d0_reg15 or d0_reg16 or d1_reg0 or d1_reg1 or d1_reg2 or d1_reg3 or d1_reg4 or d1_reg5 or d1_reg6 or d1_reg7 or d1_reg8 or d1_reg9 or d1_reg10 or d1_reg11 or d1_reg12 or d1_reg13 or d1_reg14 or d1_reg15 or d1_reg16) begin if (d_sel) begin D_data[31] <= d0_reg0; D_data[30] <= d1_reg1; D_data[29] <= d0_reg1; D_data[28] <= d1_reg2; D_data[27] <= d0_reg2; D_data[26] <= d1_reg3; D_data[25] <= d0_reg3; D_data[24] <= d1_reg4; D_data[23] <= d0_reg4; D_data[22] <= d1_reg5; D_data[21] <= d0_reg5; D_data[20] <= d1_reg6; D_data[19] <= d0_reg6; D_data[18] <= d1_reg7; D_data[17] <= d0_reg7; D_data[16] <= d1_reg8; D_data[15] <= d0_reg8; D_data[14] <= d1_reg9; D_data[13] <= d0_reg9; D_data[12] <= d1_reg10; D_data[11] <= d0_reg10; D_data[10] <= d1_reg11; D_data[9] <= d0_reg11; D_data[8] <= d1_reg12; D_data[7] <= d0_reg12; D_data[6] <= d1_reg13; D_data[5] <= d0_reg13; D_data[4] <= d1_reg14; D_data[3] <= d0_reg14; D_data[2] <= d1_reg15; D_data[1] <= d0_reg15; D_data[0] <= d1_reg16; end else begin D_data[31] <= d1_reg1; D_data[30] <= d0_reg1; D_data[29] <= d1_reg2; D_data[28] <= d0_reg2; D_data[27] <= d1_reg3; D_data[26] <= d0_reg3; D_data[25] <= d1_reg4; D_data[24] <= d0_reg4; D_data[23] <= d1_reg5; D_data[22] <= d0_reg5; D_data[21] <= d1_reg6; D_data[20] <= d0_reg6; D_data[19] <= d1_reg7; D_data[18] <= d0_reg7; D_data[17] <= d1_reg8; D_data[16] <= d0_reg8; D_data[15] <= d1_reg9; D_data[14] <= d0_reg9; D_data[13] <= d1_reg10; D_data[12] <= d0_reg10; D_data[11] <= d1_reg11; D_data[10] <= d0_reg11; D_data[9] <= d1_reg12; D_data[8] <= d0_reg12; D_data[7] <= d1_reg13; D_data[6] <= d0_reg13; D_data[5] <= d1_reg14; D_data[4] <= d0_reg14; D_data[3] <= d1_reg15; D_data[2] <= d0_reg15; D_data[1] <= d1_reg16; D_data[0] <= d0_reg16; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin data <= 0; end else if (!lrstn) begin data <= 0; end else if (d_up) begin data <= D_data; end else begin data <= data; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin Q_data <= 0; end else if (!lrstn) begin Q_data <= 0; end else begin Q_data <= data; end end assign {Q31, Q30, Q29, Q28, Q27, Q26, Q25, Q24, Q23, Q22, Q21, Q20, Q19, Q18, Q17, Q16, Q15, Q14, Q13, Q12, Q11, Q10, Q9, Q8, Q7, Q6, Q5, Q4, Q3, Q2, Q1, Q0} = Q_data; endmodule // IDES32 (32 to 1 deserializer) //OSER4 module OSER4 ( Q0, Q1, D0, D1, D2, D3, TX0, TX1, PCLK, FCLK, RESET ); parameter HWL = "false"; //"true"; "false" parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output input D3, D2, D1, D0; input TX1, TX0; input PCLK, FCLK, RESET; output Q0, Q1; //synthesis translate_off reg [3:0] d_reg0, d_reg1, d_reg2; reg [1:0] tx_reg0, tx_reg1, tx_reg2; reg rstn_dsel, dsel, d_up0, d_up1; wire d_en0, d_en1; reg d_reg_n, tx_reg_n, d_reg_p, tx_reg_p; wire grstn, lrstn; initial begin dsel = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 4'b0; tx_reg0 <= 2'b0; end else if (!lrstn) begin d_reg0 <= 4'b0; tx_reg0 <= 2'b0; end else begin d_reg0 <= {D3, D2, D1, D0}; tx_reg0 <= {TX1, TX0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 1'b0; end else if (!lrstn) begin rstn_dsel <= 1'b0; end else begin rstn_dsel <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dsel <= 1'b0; end else begin dsel <= ~dsel; end end assign d_en0 = ~dsel; assign d_en1 = (HWL == "true") ? (~dsel) : dsel; always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 1'b0; d_up1 <= 1'b0; end else begin if (d_en0) begin d_up0 <= 1'b1; end else begin d_up0 <= 1'b0; end if (d_en1) begin d_up1 <= 1'b1; end else begin d_up1 <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 4'b0; tx_reg1 <= 2'b0; end else if (!lrstn) begin d_reg1 <= 4'b0; tx_reg1 <= 2'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; tx_reg1 <= tx_reg0; end else begin d_reg1 <= d_reg1; tx_reg1 <= tx_reg1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 4'b0; tx_reg2 <= 2'b0; end else if (!lrstn) begin d_reg2 <= 4'b0; tx_reg2 <= 2'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; tx_reg2 <= tx_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[2] <= 1'b0; d_reg2[1] <= d_reg2[3]; d_reg2[3] <= 1'b0; tx_reg2[0] <= tx_reg2[1]; tx_reg2[1] <= 1'b0; end end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; tx_reg_n <= tx_reg2[0]; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin tx_reg_p <= 1'b0; end else if (!lrstn) begin tx_reg_p <= 1'b0; end else begin tx_reg_p <= tx_reg_n; end end assign Q0 = FCLK ? d_reg_n : d_reg_p; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; //synthesis translate_on endmodule // OSER4 (4 to 1 serializer) module OSER4_MEM ( Q0, Q1, D0, D1, D2, D3, TX0, TX1, PCLK, FCLK, TCLK, RESET ); parameter HWL = "false"; //"true"; "false" parameter TCLK_SOURCE = "DQSW"; //"DQSW","DQSW270" parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output input D0, D1, D2, D3; input TX0, TX1; input PCLK, FCLK, TCLK, RESET; output Q0, Q1; //synthesis translate_off reg [3:0] d_reg0, d_reg1, d_reg2; reg [1:0] tx_reg0, tx_reg1, tx_reg2; reg rstn_dsel0, dsel0, d_up0; reg rstn_dsel1, dsel1, d_up1; wire d_en0, d_en1; reg d_reg_n, tx_reg_n, d_reg_p, tx_reg_p; wire tclk_sig; wire grstn, lrstn; initial begin dsel0 = 1'b0; dsel1 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); assign tclk_sig = (TCLK_SOURCE == "DQSW") ? TCLK : ~TCLK; always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 4'b0; tx_reg0 <= 2'b0; end else if (!lrstn) begin d_reg0 <= 4'b0; tx_reg0 <= 2'b0; end else begin d_reg0 <= {D3, D2, D1, D0}; tx_reg0 <= {TX1, TX0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel0 <= 1'b0; end else if (!lrstn) begin rstn_dsel0 <= 1'b0; end else begin rstn_dsel0 <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel0) begin if (!rstn_dsel0) begin dsel0 <= 1'b0; end else begin dsel0 <= ~dsel0; end end assign d_en0 = ~dsel0; always @(posedge FCLK or negedge rstn_dsel0) begin if (!rstn_dsel0) begin d_up0 <= 1'b0; end else begin if (d_en0) begin d_up0 <= 1'b1; end else begin d_up0 <= 1'b0; end end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel1 <= 1'b0; end else if (!lrstn) begin rstn_dsel1 <= 1'b0; end else begin rstn_dsel1 <= 1'b1; end end always @(posedge tclk_sig or negedge rstn_dsel1) begin if (!rstn_dsel1) begin dsel1 <= 1'b0; end else begin dsel1 <= ~dsel1; end end assign d_en1 = (HWL == "true") ? ~dsel1 : dsel1; always @(posedge tclk_sig or negedge rstn_dsel1) begin if (!rstn_dsel1) begin d_up1 <= 1'b0; end else begin if (d_en1) begin d_up1 <= 1'b1; end else begin d_up1 <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 4'b0; tx_reg1 <= 2'b0; end else if (!lrstn) begin d_reg1 <= 4'b0; tx_reg1 <= 2'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; tx_reg1 <= tx_reg0; end else begin d_reg1 <= d_reg1; tx_reg1 <= tx_reg1; end end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 4'b0; tx_reg2 <= 2'b0; end else if (!lrstn) begin d_reg2 <= 4'b0; tx_reg2 <= 2'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; tx_reg2 <= tx_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[2] <= 1'b0; d_reg2[1] <= d_reg2[3]; d_reg2[3] <= 1'b0; tx_reg2[0] <= tx_reg2[1]; tx_reg2[1] <= 1'b0; end end end always @(negedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; tx_reg_n <= tx_reg2[0]; end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin tx_reg_p <= 1'b0; end else if (!lrstn) begin tx_reg_p <= 1'b0; end else begin tx_reg_p <= tx_reg_n; end end assign Q0 = tclk_sig ? d_reg_n : d_reg_p; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; //synthesis translate_on endmodule // OSER4_MEM (4 to 1 serializer with memory) //OVIDEO module OVIDEO ( Q, D0, D1, D2, D3, D4, D5, D6, PCLK, FCLK, RESET ); input D6, D5, D4, D3, D2, D1, D0; input PCLK, FCLK, RESET; output Q; //synthesis translate_off reg [6:0] d_reg0; reg rstn_dsel, dcnt0, dcnt1, dsel; wire dsel_en, dcnt_reset, d_en0, d_en1; reg d_up0, d_up1; reg [7:0] d_reg1, d_reg2, d_reg3; reg d_reg_p, d_reg_n; wire grstn; wire lrstn; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; dsel = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 0; end else if (!lrstn) begin d_reg0 <= 0; end else begin d_reg0 <= {D6, D5, D4, D3, D2, D1, D0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 1'b0; end else if (!lrstn) begin rstn_dsel <= 1'b0; end else begin rstn_dsel <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dcnt0 <= 1'b0; dcnt1 <= 1'b0; end else begin dcnt0 <= ~(dcnt0 | dcnt_reset); dcnt1 <= ~((dcnt0 ^~ dcnt1) | dcnt_reset); end end assign dsel_en = (dsel & dcnt1 & (~dcnt0)) | ((~dsel) & dcnt1 & dcnt0); always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dsel <= 1'b0; end else begin if (dsel_en) begin dsel <= ~dsel; end else begin dsel <= dsel; end end end assign dcnt_reset = (~dcnt0) & dcnt1 & dsel; assign d_en0 = ((~dsel) & (~dcnt1) & dcnt0) | (dsel & (~dcnt1) & (~dcnt0)); always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 1'b0; end else begin if (d_en0) begin d_up0 <= 1'b1; end else begin d_up0 <= 1'b0; end end end assign d_en1 = ((~dsel) & dcnt1 & (~dcnt0)) | (dsel & (~dcnt1) & dcnt0); always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up1 <= 1'b0; end else begin if (d_en1) begin d_up1 <= 1'b1; end else begin d_up1 <= 1'b0; end end end always @(d_reg0 or d_reg2 or dsel) begin if (dsel) begin d_reg1[0] <= d_reg2[6]; d_reg1[1] <= d_reg0[0]; d_reg1[2] <= d_reg0[1]; d_reg1[3] <= d_reg0[2]; d_reg1[4] <= d_reg0[3]; d_reg1[5] <= d_reg0[4]; d_reg1[6] <= d_reg0[5]; d_reg1[7] <= d_reg0[6]; end else begin d_reg1[0] <= d_reg0[0]; d_reg1[1] <= d_reg0[1]; d_reg1[2] <= d_reg0[2]; d_reg1[3] <= d_reg0[3]; d_reg1[4] <= d_reg0[4]; d_reg1[5] <= d_reg0[5]; d_reg1[6] <= d_reg0[6]; d_reg1[7] <= 1'b0; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 8'b0; end else if (!lrstn) begin d_reg2 <= 8'b0; end else begin if (d_up0) begin d_reg2 <= d_reg1; end else begin d_reg2 <= d_reg2; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg3 <= 8'b0; end else if (!lrstn) begin d_reg3 <= 8'b0; end else begin if (d_up1) begin d_reg3 <= d_reg2; end else begin d_reg3[0] <= d_reg3[2]; d_reg3[1] <= d_reg3[3]; d_reg3[2] <= d_reg3[4]; d_reg3[3] <= d_reg3[5]; d_reg3[4] <= d_reg3[6]; d_reg3[5] <= d_reg3[7]; d_reg3[6] <= 1'b0; d_reg3[7] <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 0; end else if (!lrstn) begin d_reg_p <= 0; end else begin d_reg_p <= d_reg3[1]; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 0; end else if (!lrstn) begin d_reg_n <= 0; end else begin d_reg_n <= d_reg3[0]; end end assign Q = FCLK ? d_reg_n : d_reg_p; //synthesis translate_on endmodule // OVIDEO (7 to 1 serializer) //OSER8 module OSER8 ( Q0, Q1, D0, D1, D2, D3, D4, D5, D6, D7, TX0, TX1, TX2, TX3, PCLK, FCLK, RESET ); parameter HWL = "false"; //"true"; "false" parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output input D0, D1, D2, D3, D4, D5, D6, D7; input TX0, TX1, TX2, TX3; input PCLK, FCLK, RESET; output Q0, Q1; //synthesis translate_off reg [7:0] d_reg0, d_reg1, d_reg2; reg [3:0] tx_reg0, tx_reg1, tx_reg2; reg rstn_dsel, dcnt0, dcnt1, d_up0, d_up1; wire d_en0, d_en1; reg d_reg_p, d_reg_n, tx_reg_p, tx_reg_n; wire grstn, lrstn; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 8'b0; tx_reg0 <= 4'b0; end else if (!lrstn) begin d_reg0 <= 8'b0; tx_reg0 <= 4'b0; end else begin d_reg0 <= {D7, D6, D5, D4, D3, D2, D1, D0}; tx_reg0 <= {TX3, TX2, TX1, TX0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 1'b0; end else if (!lrstn) begin rstn_dsel <= 1'b0; end else begin rstn_dsel <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dcnt0 <= 1'b0; dcnt1 <= 1'b0; end else begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt0 ^ dcnt1; end end assign d_en0 = dcnt0 & (~dcnt1); assign d_en1 = (HWL == "true") ? (dcnt0 & (~dcnt1)) : ((~dcnt0) & (~dcnt1)); always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 1'b0; end else begin if (d_en0) begin d_up0 <= 1'b1; end else begin d_up0 <= 1'b0; end end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up1 <= 1'b0; end else begin if (d_en1) begin d_up1 <= 1'b1; end else begin d_up1 <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 8'b0; tx_reg1 <= 4'b0; end else if (!lrstn) begin d_reg1 <= 8'b0; tx_reg1 <= 4'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; tx_reg1 <= tx_reg0; end else begin d_reg1 <= d_reg1; tx_reg1 <= tx_reg1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 8'b0; tx_reg2 <= 4'b0; end else if (!lrstn) begin d_reg2 <= 8'b0; tx_reg2 <= 4'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; tx_reg2 <= tx_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[1] <= d_reg2[3]; d_reg2[2] <= d_reg2[4]; d_reg2[3] <= d_reg2[5]; d_reg2[4] <= d_reg2[6]; d_reg2[5] <= d_reg2[7]; d_reg2[6] <= 1'b0; d_reg2[7] <= 1'b0; tx_reg2[0] <= tx_reg2[1]; tx_reg2[1] <= tx_reg2[2]; tx_reg2[2] <= tx_reg2[3]; tx_reg2[3] <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; tx_reg_p <= tx_reg_n; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; tx_reg_n <= tx_reg2[0]; end end assign Q0 = FCLK ? d_reg_n : d_reg_p; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; //synthesis translate_on endmodule // OSER8 (8 to 1 serializer) //OSER8_MEM module OSER8_MEM ( Q0, Q1, D0, D1, D2, D3, D4, D5, D6, D7, TX0, TX1, TX2, TX3, PCLK, FCLK, TCLK, RESET ); parameter HWL = "false"; //"true"; "false" parameter TCLK_SOURCE = "DQSW"; //"DQSW","DQSW270" parameter TXCLK_POL = 1'b0; //1'b0:Rising edge output; 1'b1:Falling edge output input D0, D1, D2, D3, D4, D5, D6, D7; input TX0, TX1, TX2, TX3; input PCLK, FCLK, TCLK, RESET; output Q0, Q1; //synthesis translate_off reg [7:0] d_reg0, d_reg1, d_reg2; reg [3:0] tx_reg0, tx_reg1, tx_reg2; reg rstn_dsel0, dcnt0, dcnt1, d_up0; reg rstn_dsel1, hcnt0, hcnt1, d_up1; wire d_en0, d_en1; reg d_reg_p, d_reg_n, tx_reg_p, tx_reg_n; wire tclk_sig; wire grstn, lrstn; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; hcnt0 = 1'b0; hcnt1 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); assign tclk_sig = (TCLK_SOURCE == "DQSW") ? TCLK : ~TCLK; always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 8'b0; tx_reg0 <= 4'b0; end else if (!lrstn) begin d_reg0 <= 8'b0; tx_reg0 <= 4'b0; end else begin d_reg0 <= {D7, D6, D5, D4, D3, D2, D1, D0}; tx_reg0 <= {TX3, TX2, TX1, TX0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel0 <= 1'b0; end else if (!lrstn) begin rstn_dsel0 <= 1'b0; end else begin rstn_dsel0 <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel0) begin if (!rstn_dsel0) begin dcnt0 <= 1'b0; dcnt1 <= 1'b0; end else begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt0 ^ dcnt1; end end assign d_en0 = dcnt0 & (~dcnt1); always @(posedge FCLK or negedge rstn_dsel0) begin if (!rstn_dsel0) begin d_up0 <= 1'b0; end else begin if (d_en0) begin d_up0 <= 1'b1; end else begin d_up0 <= 1'b0; end end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel1 <= 1'b0; end else if (!lrstn) begin rstn_dsel1 <= 1'b0; end else begin rstn_dsel1 <= 1'b1; end end always @(posedge tclk_sig or negedge rstn_dsel1) begin if (!rstn_dsel1) begin hcnt0 <= 1'b0; hcnt1 <= 1'b0; end else begin hcnt0 <= ~hcnt0; hcnt1 <= hcnt0 ^ hcnt1; end end assign d_en1 = (HWL == "true") ? (hcnt0 & (~hcnt1)) : ((~hcnt0) & (~hcnt1)); always @(posedge tclk_sig or negedge rstn_dsel1) begin if (!rstn_dsel1) begin d_up1 <= 1'b0; end else begin if (d_en1) begin d_up1 <= 1'b1; end else begin d_up1 <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 8'b0; tx_reg1 <= 4'b0; end else if (!lrstn) begin d_reg1 <= 8'b0; tx_reg1 <= 4'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; tx_reg1 <= tx_reg0; end else begin d_reg1 <= d_reg1; tx_reg1 <= tx_reg1; end end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 8'b0; tx_reg2 <= 4'b0; end else if (!lrstn) begin d_reg2 <= 8'b0; tx_reg2 <= 4'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; tx_reg2 <= tx_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[1] <= d_reg2[3]; d_reg2[2] <= d_reg2[4]; d_reg2[3] <= d_reg2[5]; d_reg2[4] <= d_reg2[6]; d_reg2[5] <= d_reg2[7]; d_reg2[6] <= 1'b0; d_reg2[7] <= 1'b0; tx_reg2[0] <= tx_reg2[1]; tx_reg2[1] <= tx_reg2[2]; tx_reg2[2] <= tx_reg2[3]; tx_reg2[3] <= 1'b0; end end end always @(posedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; tx_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; tx_reg_p <= tx_reg_n; end end always @(negedge tclk_sig or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; tx_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; tx_reg_n <= tx_reg2[0]; end end assign Q0 = tclk_sig ? d_reg_n : d_reg_p; assign Q1 = (TXCLK_POL == 1'b0) ? tx_reg_p : tx_reg_n; //synthesis translate_on endmodule // OSER8_MEM (8 to 1 serializer with memory) //OSER10 module OSER10 ( Q, D0, D1, D2, D3, D4, D5, D6, D7, D8, D9, PCLK, FCLK, RESET ); input D0, D1, D2, D3, D4, D5, D6, D7, D8, D9; input PCLK, FCLK, RESET; output Q; //synthesis translate_off reg [9:0] d_reg0, d_reg1, d_reg2; reg rstn_dsel, dcnt0, dcnt1, dcnt2, d_up0, d_up1; wire d_en, dcnt_reset; reg d_reg_p, d_reg_n; wire grstn, lrstn; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 0; end else if (!lrstn) begin d_reg0 <= 0; end else begin d_reg0 <= {D9, D8, D7, D6, D5, D4, D3, D2, D1, D0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 1'b0; end else if (!lrstn) begin rstn_dsel <= 1'b0; end else begin rstn_dsel <= 1'b1; end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dcnt0 <= 1'b0; dcnt1 <= 1'b0; dcnt2 <= 1'b0; end else begin dcnt0 <= ~(dcnt0 | dcnt_reset); dcnt1 <= (dcnt0 ^ dcnt1) & (~dcnt_reset); dcnt2 <= (dcnt2 ^ (dcnt0 & dcnt1)) & (~dcnt_reset); end end assign dcnt_reset = (~dcnt0) & (~dcnt1) & dcnt2; assign d_en = (~dcnt0) & dcnt1; always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 1'b0; d_up1 <= 1'b0; end else begin if (d_en) begin d_up0 <= 1'b1; d_up1 <= 1'b1; end else begin d_up0 <= 1'b0; d_up1 <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 10'b0; end else if (!lrstn) begin d_reg1 <= 10'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; end else begin d_reg1 <= d_reg1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 10'b0; end else if (!lrstn) begin d_reg2 <= 10'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[1] <= d_reg2[3]; d_reg2[2] <= d_reg2[4]; d_reg2[3] <= d_reg2[5]; d_reg2[4] <= d_reg2[6]; d_reg2[5] <= d_reg2[7]; d_reg2[6] <= d_reg2[8]; d_reg2[7] <= d_reg2[9]; d_reg2[8] <= 1'b0; d_reg2[9] <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; end end assign Q = FCLK ? d_reg_n : d_reg_p; //synthesis translate_on endmodule // OSER10 (10 to 1 serializer) //OSER14 module OSER14 ( Q, D0, D1, D2, D3, D4, D5, D6, D7, D8, D9, D10, D11, D12, D13, PCLK, FCLK, RESET ); input D0, D1, D2, D3, D4, D5, D6, D7, D8, D9, D10, D11, D12, D13; input PCLK, FCLK, RESET; output Q; reg [13:0] d_reg0, d_reg1, d_reg2; reg rstn_dsel; reg dcnt0, dcnt1, dcnt2; reg d_up0, d_up1; reg d_reg_p, d_reg_n; wire grstn, lrstn; wire cnt_rst, d_en; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 0; end else if (!lrstn) begin rstn_dsel <= 0; end else begin rstn_dsel <= 1; end end assign cnt_rst = (~dcnt0) & dcnt1 & dcnt2; always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else begin dcnt0 <= ~(dcnt0 | cnt_rst); dcnt1 <= (dcnt1 ^ dcnt0) & (~cnt_rst); dcnt2 <= ((dcnt0 & dcnt1) ^ dcnt2) & (~cnt_rst); end end assign d_en = ((~dcnt2) & dcnt1) & dcnt0; always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 0; d_up1 <= 0; end else if (d_en) begin d_up0 <= 1; d_up1 <= 1; end else begin d_up0 <= 0; d_up1 <= 0; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 14'b0; end else if (!lrstn) begin d_reg0 <= 14'b0; end else begin d_reg0 <= {D13, D12, D11, D10, D9, D8, D7, D6, D5, D4, D3, D2, D1, D0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 14'b0; end else if (!lrstn) begin d_reg1 <= 14'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; end else begin d_reg1 <= d_reg1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 14'b0; end else if (!lrstn) begin d_reg2 <= 14'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[1] <= d_reg2[3]; d_reg2[2] <= d_reg2[4]; d_reg2[3] <= d_reg2[5]; d_reg2[4] <= d_reg2[6]; d_reg2[5] <= d_reg2[7]; d_reg2[6] <= d_reg2[8]; d_reg2[7] <= d_reg2[9]; d_reg2[8] <= d_reg2[10]; d_reg2[9] <= d_reg2[11]; d_reg2[10] <= d_reg2[12]; d_reg2[11] <= d_reg2[13]; d_reg2[12] <= 1'b0; d_reg2[13] <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; end end assign Q = FCLK ? d_reg_n : d_reg_p; endmodule //OSER16 module OSER16 ( Q, D0, D1, D2, D3, D4, D5, D6, D7, D8, D9, D10, D11, D12, D13, D14, D15, PCLK, FCLK, RESET ); input D0, D1, D2, D3, D4, D5, D6, D7, D8, D9, D10, D11, D12, D13, D14, D15; input PCLK, FCLK, RESET; output Q; //synthesis translate_off reg [15:0] d_reg0, d_reg1, d_reg2; reg rstn_dsel; reg dcnt0, dcnt1, dcnt2; reg d_up0, d_up1; reg d_reg_p, d_reg_n; wire grstn, lrstn; wire d_en; initial begin dcnt0 = 1'b0; dcnt1 = 1'b0; dcnt2 = 1'b0; end assign grstn = GSR.GSRO; assign lrstn = (~RESET); always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin rstn_dsel <= 0; end else if (!lrstn) begin rstn_dsel <= 0; end else begin rstn_dsel <= 1; end end always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin dcnt0 <= 0; dcnt1 <= 0; dcnt2 <= 0; end else begin dcnt0 <= ~dcnt0; dcnt1 <= dcnt1 ^ dcnt0; dcnt2 <= dcnt2 ^ (dcnt1 & dcnt0); end end assign d_en = ((~dcnt2) & dcnt1) & dcnt0; always @(posedge FCLK or negedge rstn_dsel) begin if (!rstn_dsel) begin d_up0 <= 0; d_up1 <= 0; end else if (d_en) begin d_up0 <= 1; d_up1 <= 1; end else begin d_up0 <= 0; d_up1 <= 0; end end always @(posedge PCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg0 <= 16'b0; end else if (!lrstn) begin d_reg0 <= 16'b0; end else begin d_reg0 <= {D15, D14, D13, D12, D11, D10, D9, D8, D7, D6, D5, D4, D3, D2, D1, D0}; end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg1 <= 16'b0; end else if (!lrstn) begin d_reg1 <= 16'b0; end else begin if (d_up0) begin d_reg1 <= d_reg0; end else begin d_reg1 <= d_reg1; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg2 <= 16'b0; end else if (!lrstn) begin d_reg2 <= 16'b0; end else begin if (d_up1) begin d_reg2 <= d_reg1; end else begin d_reg2[0] <= d_reg2[2]; d_reg2[1] <= d_reg2[3]; d_reg2[2] <= d_reg2[4]; d_reg2[3] <= d_reg2[5]; d_reg2[4] <= d_reg2[6]; d_reg2[5] <= d_reg2[7]; d_reg2[6] <= d_reg2[8]; d_reg2[7] <= d_reg2[9]; d_reg2[8] <= d_reg2[10]; d_reg2[9] <= d_reg2[11]; d_reg2[10] <= d_reg2[12]; d_reg2[11] <= d_reg2[13]; d_reg2[12] <= d_reg2[14]; d_reg2[13] <= d_reg2[15]; d_reg2[14] <= 1'b0; d_reg2[15] <= 1'b0; end end end always @(posedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_p <= 1'b0; end else if (!lrstn) begin d_reg_p <= 1'b0; end else begin d_reg_p <= d_reg2[1]; end end always @(negedge FCLK or negedge grstn or negedge lrstn) begin if (!grstn) begin d_reg_n <= 1'b0; end else if (!lrstn) begin d_reg_n <= 1'b0; end else begin d_reg_n <= d_reg2[0]; end end assign Q = FCLK ? d_reg_n : d_reg_p; //synthesis translate_on endmodule //IO delay module IODELAY ( DO, DF, DI, DLYSTEP, SDTAP, VALUE ); parameter C_STATIC_DLY = 0; //integer,0~255 parameter DYN_DLY_EN = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN = "FALSE"; //"TRUE","FALSE" input DI; input SDTAP; input VALUE; input [7:0] DLYSTEP; output DF; output DO; reg [7:0] delay_data, delay_data_adapt; reg pre_value; reg delay_out; wire [7:0] delay_code; wire [7:0] delay_data_real; integer cnt_step, cnt_value; reg cnt_start, cnt_step_start, cnt_value_start; initial begin cnt_step = 0; cnt_value = 0; cnt_start = 1'b0; cnt_step_start = 1'b0; cnt_value_start = 1'b0; end assign delay_code = (DYN_DLY_EN == "FALSE") ? C_STATIC_DLY : DLYSTEP; always @(SDTAP or VALUE) begin if (!SDTAP) begin delay_data <= delay_code; end end always @(SDTAP or VALUE) begin if (SDTAP) begin if (pre_value == 1'b0 && VALUE == 1'b1) begin cnt_start <= 1'b1; end else begin cnt_start <= 1'b0; end end end always @(negedge DI) begin if (cnt_start) begin if (cnt_value == 22) begin cnt_value <= 0; cnt_value_start <= 1'b1; end else if (cnt_value == 15) begin cnt_step_start <= 1'b1; cnt_value <= cnt_value + 1; end else begin cnt_value <= cnt_value + 1; end if (cnt_value_start == 1'b1) begin cnt_value <= 0; end end else begin cnt_value <= 0; cnt_value_start <= 1'b0; cnt_step_start <= 1'b0; end end always @(negedge DI) begin if (cnt_step_start) begin if (cnt_step == 7) begin cnt_step <= 0; end else begin cnt_step <= cnt_step + 1; end end else begin cnt_step <= 0; end end always @(SDTAP or VALUE or cnt_step or DLYSTEP or cnt_value_start) begin if (!SDTAP) begin delay_data_adapt <= C_STATIC_DLY; end else begin if (cnt_value_start == 1'b1) begin if (C_STATIC_DLY < DLYSTEP) begin if (delay_data_adapt != DLYSTEP) begin if (cnt_step == 7) begin delay_data_adapt <= delay_data_adapt + 1; end end end else if (C_STATIC_DLY > DLYSTEP) begin if (delay_data_adapt != DLYSTEP) begin if (cnt_step == 7) begin delay_data_adapt <= delay_data_adapt - 1; end end end end end end always @(VALUE) begin pre_value <= VALUE; end assign DF = ((C_STATIC_DLY > DLYSTEP) && (delay_data_adapt == DLYSTEP)) || ((C_STATIC_DLY < DLYSTEP) && (delay_data_adapt == DLYSTEP)); assign delay_data_real = (ADAPT_EN == "FALSE") ? delay_data : delay_data_adapt; //assign #(0.0125*(delay_data_real+1)) delay_out = DI; always @(DI) begin delay_out <= #(0.0125 * (delay_data_real + 1)) DI; end assign DO = delay_out; endmodule // IODELAY (i/o delay in IOB) module OSIDES32 ( Q, DF0, DF1, D, PCLK, FCLKP, FCLKN, FCLKQP, FCLKQN, RESET, SDTAP0, VALUE0, DLYSTEP0, SDTAP1, VALUE1, DLYSTEP1 ); output [31:0] Q; input D; input PCLK, FCLKP, FCLKN, FCLKQP, FCLKQN; input RESET; output DF0, DF1; input SDTAP0, SDTAP1; input VALUE0, VALUE1; input [7:0] DLYSTEP0, DLYSTEP1; parameter C_STATIC_DLY_0 = 0; //integer,0~255 parameter DYN_DLY_EN_0 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_0 = "FALSE"; //"TRUE","FALSE" parameter C_STATIC_DLY_1 = 0; //integer,0~255 parameter DYN_DLY_EN_1 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_1 = "FALSE"; //"TRUE","FALSE" wire D_a, D_b; reg d_p, dq_p, dq_n, d_n, d_qp, dq_qp, dq_qn, d_qn; reg db_p, dqb_p, dqb_n, db_n, db_qp, dqb_qp, dqb_qn, db_qn; reg rstn_syn, cnt_0, cnt_1, d_up; wire d_up_en; reg dqn_reg0, dqnb_reg0, dn_reg0, dnb_reg0, dqp_reg0, dqpb_reg0, dp_reg0, dpb_reg0, dqn_reg1, dqnb_reg1, dn_reg1, dnb_reg1, dqp_reg1, dqpb_reg1, dp_reg1, dpb_reg1, dqn_reg2, dqnb_reg2, dn_reg2, dnb_reg2, dqp_reg2, dqpb_reg2, dp_reg2, dpb_reg2, dqn_reg3, dqnb_reg3, dn_reg3, dnb_reg3, dqp_reg3, dqpb_reg3, dp_reg3, dpb_reg3; reg [31:0] D_data; reg [31:0] Q_data; wire grstn; assign grstn = GSR.GSRO; wire DF0, DF1; IODELAY dly_0 ( .DO(D_a), .DF(DF0), .DI(D), .DLYSTEP(DLYSTEP0), .SDTAP(SDTAP0), .VALUE(VALUE0) ); defparam dly_0.C_STATIC_DLY = C_STATIC_DLY_0; defparam dly_0.DYN_DLY_EN = DYN_DLY_EN_0; defparam dly_0.ADAPT_EN = ADAPT_EN_0; IODELAY dly_1 ( .DO(D_b), .DF(DF1), .DI(D), .DLYSTEP(DLYSTEP1), .SDTAP(SDTAP1), .VALUE(VALUE1) ); defparam dly_1.C_STATIC_DLY = C_STATIC_DLY_1; defparam dly_1.DYN_DLY_EN = DYN_DLY_EN_1; defparam dly_1.ADAPT_EN = ADAPT_EN_1; always @(posedge FCLKP or negedge grstn or posedge RESET) begin if (!grstn) begin d_p <= 1'b0; dq_p <= 1'b0; dq_n <= 1'b0; end else if (RESET) begin d_p <= 1'b0; dq_p <= 1'b0; dq_n <= 1'b0; end else begin d_p <= D_a; dq_p <= d_p; dq_n <= d_n; end end always @(posedge FCLKN or negedge grstn or posedge RESET) begin if (!grstn) begin d_n <= 1'b0; end else if (RESET) begin d_n <= 1'b0; end else begin d_n <= D_a; end end always @(posedge FCLKQP or negedge grstn or posedge RESET) begin if (!grstn) begin d_qp <= 1'b0; dq_qp <= 1'b0; dq_qn <= 1'b0; end else if (RESET) begin d_qp <= 1'b0; dq_qp <= 1'b0; dq_qn <= 1'b0; end else begin d_qp <= D_a; dq_qp <= d_qp; dq_qn <= d_qn; end end always @(posedge FCLKQN or negedge grstn or posedge RESET) begin if (!grstn) begin d_qn <= 1'b0; end else if (RESET) begin d_qn <= 1'b0; end else begin d_qn <= D_a; end end always @(posedge FCLKP or negedge grstn or posedge RESET) begin if (!grstn) begin db_p <= 1'b0; dqb_p <= 1'b0; dqb_n <= 1'b0; end else if (RESET) begin db_p <= 1'b0; dqb_p <= 1'b0; dqb_n <= 1'b0; end else begin db_p <= D_b; dqb_p <= db_p; dqb_n <= db_n; end end always @(posedge FCLKN or negedge grstn or posedge RESET) begin if (!grstn) begin db_n <= 1'b0; end else if (RESET) begin db_n <= 1'b0; end else begin db_n <= D_b; end end always @(posedge FCLKQP or negedge grstn or posedge RESET) begin if (!grstn) begin db_qp <= 1'b0; dqb_qp <= 1'b0; dqb_qn <= 1'b0; end else if (RESET) begin db_qp <= 1'b0; dqb_qp <= 1'b0; dqb_qn <= 1'b0; end else begin db_qp <= D_b; dqb_qp <= db_qp; dqb_qn <= db_qn; end end always @(posedge FCLKQN or negedge grstn or posedge RESET) begin if (!grstn) begin db_qn <= 1'b0; end else if (RESET) begin db_qn <= 1'b0; end else begin db_qn <= D_b; end end always @(posedge FCLKP or negedge grstn or posedge RESET) begin if (!grstn) begin dn_reg0 <= 1'b0; dp_reg0 <= 1'b0; dn_reg1 <= 1'b0; dp_reg1 <= 1'b0; dn_reg2 <= 1'b0; dp_reg2 <= 1'b0; dn_reg3 <= 1'b0; dp_reg3 <= 1'b0; dqn_reg0 <= 1'b0; dqp_reg0 <= 1'b0; dqn_reg1 <= 1'b0; dqp_reg1 <= 1'b0; dqn_reg2 <= 1'b0; dqp_reg2 <= 1'b0; dqn_reg3 <= 1'b0; dqp_reg3 <= 1'b0; dnb_reg0 <= 1'b0; dpb_reg0 <= 1'b0; dnb_reg1 <= 1'b0; dpb_reg1 <= 1'b0; dnb_reg2 <= 1'b0; dpb_reg2 <= 1'b0; dnb_reg3 <= 1'b0; dpb_reg3 <= 1'b0; dqnb_reg0 <= 1'b0; dqpb_reg0 <= 1'b0; dqnb_reg1 <= 1'b0; dqpb_reg1 <= 1'b0; dqnb_reg2 <= 1'b0; dqpb_reg2 <= 1'b0; dqnb_reg3 <= 1'b0; dqpb_reg3 <= 1'b0; end else if (RESET) begin dn_reg0 <= 1'b0; dp_reg0 <= 1'b0; dn_reg1 <= 1'b0; dp_reg1 <= 1'b0; dn_reg2 <= 1'b0; dp_reg2 <= 1'b0; dn_reg3 <= 1'b0; dp_reg3 <= 1'b0; dqn_reg0 <= 1'b0; dqp_reg0 <= 1'b0; dqn_reg1 <= 1'b0; dqp_reg1 <= 1'b0; dqn_reg2 <= 1'b0; dqp_reg2 <= 1'b0; dqn_reg3 <= 1'b0; dqp_reg3 <= 1'b0; dnb_reg0 <= 1'b0; dpb_reg0 <= 1'b0; dnb_reg1 <= 1'b0; dpb_reg1 <= 1'b0; dnb_reg2 <= 1'b0; dpb_reg2 <= 1'b0; dnb_reg3 <= 1'b0; dpb_reg3 <= 1'b0; dqnb_reg0 <= 1'b0; dqpb_reg0 <= 1'b0; dqnb_reg1 <= 1'b0; dqpb_reg1 <= 1'b0; dqnb_reg2 <= 1'b0; dqpb_reg2 <= 1'b0; dqnb_reg3 <= 1'b0; dqpb_reg3 <= 1'b0; end else begin dn_reg0 <= dq_n; dp_reg0 <= dq_p; dn_reg1 <= dn_reg0; dp_reg1 <= dp_reg0; dn_reg2 <= dn_reg1; dp_reg2 <= dp_reg1; dn_reg3 <= dn_reg2; dp_reg3 <= dp_reg2; dqn_reg0 <= dq_qn; dqp_reg0 <= dq_qp; dqn_reg1 <= dqn_reg0; dqp_reg1 <= dqp_reg0; dqn_reg2 <= dqn_reg1; dqp_reg2 <= dqp_reg1; dqn_reg3 <= dqn_reg2; dqp_reg3 <= dqp_reg2; dnb_reg0 <= dqb_n; dpb_reg0 <= dqb_p; dnb_reg1 <= dnb_reg0; dpb_reg1 <= dpb_reg0; dnb_reg2 <= dnb_reg1; dpb_reg2 <= dpb_reg1; dnb_reg3 <= dnb_reg2; dpb_reg3 <= dpb_reg2; dqnb_reg0 <= dqb_qn; dqpb_reg0 <= dqb_qp; dqnb_reg1 <= dqnb_reg0; dqpb_reg1 <= dqpb_reg0; dqnb_reg2 <= dqnb_reg1; dqpb_reg2 <= dqpb_reg1; dqnb_reg3 <= dqnb_reg2; dqpb_reg3 <= dqpb_reg2; end end always @(posedge FCLKQP or negedge grstn or posedge RESET) begin if (!grstn) begin rstn_syn <= 1'b0; end else if (RESET) begin rstn_syn <= 1'b0; end else begin rstn_syn <= 1'b1; end end always @(posedge FCLKQP or negedge grstn or negedge rstn_syn) begin if (!grstn) begin cnt_0 <= 1'b0; cnt_1 <= 1'b0; end else if (!rstn_syn) begin cnt_0 <= 1'b0; cnt_1 <= 1'b0; end else begin cnt_0 <= ~cnt_0; cnt_1 <= cnt_0 ^ cnt_1; end end assign d_up_en = cnt_0 && (~cnt_1); always @(posedge FCLKQP or negedge grstn or negedge rstn_syn) begin if (!grstn) begin d_up <= 1'b0; end else if (!rstn_syn) begin d_up <= 1'b0; end else begin if (d_up_en) begin d_up <= 1'b1; end else begin d_up <= 1'b0; end end end always @(posedge FCLKQP or negedge grstn or posedge RESET) begin if (!grstn) begin D_data <= 32'b0; end else if (RESET) begin D_data <= 32'b0; end else if (d_up) begin D_data[31] <= dqn_reg0; D_data[30] <= dqnb_reg0; D_data[29] <= dn_reg0; D_data[28] <= dnb_reg0; D_data[27] <= dqp_reg0; D_data[26] <= dqpb_reg0; D_data[25] <= dp_reg0; D_data[24] <= dpb_reg0; D_data[23] <= dqn_reg1; D_data[22] <= dqnb_reg1; D_data[21] <= dn_reg1; D_data[20] <= dnb_reg1; D_data[19] <= dqp_reg1; D_data[18] <= dqpb_reg1; D_data[17] <= dp_reg1; D_data[16] <= dpb_reg1; D_data[15] <= dqn_reg2; D_data[14] <= dqnb_reg2; D_data[13] <= dn_reg2; D_data[12] <= dnb_reg2; D_data[11] <= dqp_reg2; D_data[10] <= dqpb_reg2; D_data[9] <= dp_reg2; D_data[8] <= dpb_reg2; D_data[7] <= dqn_reg3; D_data[6] <= dqnb_reg3; D_data[5] <= dn_reg3; D_data[4] <= dnb_reg3; D_data[3] <= dqp_reg3; D_data[2] <= dqpb_reg3; D_data[1] <= dp_reg3; D_data[0] <= dpb_reg3; end end always @(posedge PCLK or negedge grstn or posedge RESET) begin if (!grstn) begin Q_data <= 32'b0; end else if (RESET) begin Q_data <= 32'b0; end else begin Q_data <= D_data; end end assign Q = Q_data; endmodule //OSIDES64 module OSIDES64 ( Q, DF0, DF1, DF2, DF3, D, PCLK, FCLKP, FCLKN, FCLKQP, FCLKQN, RESET, SDTAP0, VALUE0, DLYSTEP0, SDTAP1, VALUE1, DLYSTEP1, SDTAP2, VALUE2, DLYSTEP2, SDTAP3, VALUE3, DLYSTEP3 ); output [63:0] Q; input D; input PCLK, FCLKP, FCLKN, FCLKQP, FCLKQN; input RESET; output DF0, DF1, DF2, DF3; input SDTAP0, SDTAP1, SDTAP2, SDTAP3; input VALUE0, VALUE1, VALUE2, VALUE3; input [7:0] DLYSTEP0, DLYSTEP1, DLYSTEP2, DLYSTEP3; parameter C_STATIC_DLY_0 = 0; //integer,0~255 parameter DYN_DLY_EN_0 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_0 = "FALSE"; //"TRUE","FALSE" parameter C_STATIC_DLY_1 = 0; //integer,0~255 parameter DYN_DLY_EN_1 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_1 = "FALSE"; //"TRUE","FALSE" parameter C_STATIC_DLY_2 = 0; //integer,0~255 parameter DYN_DLY_EN_2 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_2 = "FALSE"; //"TRUE","FALSE" parameter C_STATIC_DLY_3 = 0; //integer,0~255 parameter DYN_DLY_EN_3 = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN_3 = "FALSE"; //"TRUE","FALSE" wire [31:0] parallel_data_0, parallel_data_1; //osides32_0 OSIDES32 osides32_0 ( .Q (parallel_data_0), .D (D), .DF0 (DF0), .DF1 (DF1), .PCLK (PCLK), .FCLKP (FCLKP), .FCLKN (FCLKN), .FCLKQP (FCLKQP), .FCLKQN (FCLKQN), .RESET (RESET), .SDTAP0 (SDTAP0), .VALUE0 (VALUE0), .DLYSTEP0(DLYSTEP0), .SDTAP1 (SDTAP1), .VALUE1 (VALUE1), .DLYSTEP1(DLYSTEP1) ); defparam osides32_0.C_STATIC_DLY_0 = C_STATIC_DLY_0; defparam osides32_0.DYN_DLY_EN_0 = DYN_DLY_EN_0; defparam osides32_0.ADAPT_EN_0 = ADAPT_EN_0; defparam osides32_0.C_STATIC_DLY_1 = C_STATIC_DLY_1; defparam osides32_0.DYN_DLY_EN_1 = DYN_DLY_EN_1; defparam osides32_0.ADAPT_EN_1 = ADAPT_EN_1; //osides32_1 OSIDES32 osides32_1 ( .Q (parallel_data_1), .D (D), .DF0 (DF2), .DF1 (DF3), .PCLK (PCLK), .FCLKP (FCLKP), .FCLKN (FCLKN), .FCLKQP (FCLKQP), .FCLKQN (FCLKQN), .RESET (RESET), .SDTAP0 (SDTAP2), .VALUE0 (VALUE2), .DLYSTEP0(DLYSTEP2), .SDTAP1 (SDTAP3), .VALUE1 (VALUE3), .DLYSTEP1(DLYSTEP3) ); defparam osides32_1.C_STATIC_DLY_0 = C_STATIC_DLY_2; defparam osides32_1.DYN_DLY_EN_0 = DYN_DLY_EN_2; defparam osides32_1.ADAPT_EN_0 = ADAPT_EN_2; defparam osides32_1.C_STATIC_DLY_1 = C_STATIC_DLY_3; defparam osides32_1.DYN_DLY_EN_1 = DYN_DLY_EN_3; defparam osides32_1.ADAPT_EN_1 = ADAPT_EN_3; assign Q = { parallel_data_0[31], parallel_data_0[30], parallel_data_1[31], parallel_data_1[30], parallel_data_0[29], parallel_data_0[28], parallel_data_1[29], parallel_data_1[28], parallel_data_0[27], parallel_data_0[26], parallel_data_1[27], parallel_data_1[26], parallel_data_0[25], parallel_data_0[24], parallel_data_1[25], parallel_data_1[24], parallel_data_0[23], parallel_data_0[22], parallel_data_1[23], parallel_data_1[22], parallel_data_0[21], parallel_data_0[20], parallel_data_1[21], parallel_data_1[20], parallel_data_0[19], parallel_data_0[18], parallel_data_1[19], parallel_data_1[18], parallel_data_0[17], parallel_data_0[16], parallel_data_1[17], parallel_data_1[16], parallel_data_0[15], parallel_data_0[14], parallel_data_1[15], parallel_data_1[14], parallel_data_0[13], parallel_data_0[12], parallel_data_1[13], parallel_data_1[12], parallel_data_0[11], parallel_data_0[10], parallel_data_1[11], parallel_data_1[10], parallel_data_0[9], parallel_data_0[8], parallel_data_1[9], parallel_data_1[8], parallel_data_0[7], parallel_data_0[6], parallel_data_1[7], parallel_data_1[6], parallel_data_0[5], parallel_data_0[4], parallel_data_1[5], parallel_data_1[4], parallel_data_0[3], parallel_data_0[2], parallel_data_1[3], parallel_data_1[2], parallel_data_0[1], parallel_data_0[0], parallel_data_1[1], parallel_data_1[0] }; endmodule // DCE module DCE ( CLKOUT, CLKIN, CE ); input CLKIN; input CE; output CLKOUT; reg ce_reg; always @(CLKIN or CE) begin if (!CLKIN) begin ce_reg <= CE; end end assign CLKOUT = CLKIN & ce_reg; endmodule // DCS module DCS ( CLKOUT, CLKIN0, CLKIN1, CLKIN2, CLKIN3, CLKSEL, SELFORCE ); input CLKIN0, CLKIN1, CLKIN2, CLKIN3, SELFORCE; input [3:0] CLKSEL; output CLKOUT; parameter DCS_MODE = "RISING"; //CLK0,CLK1,CLK2,CLK3,GND,VCC,RISING,FALLING,CLK0_GND,CLK0_VCC,CLK1_GND,CLK1_VCC,CLK2_GND,CLK2_VCC,CLK3_GND,CLK3_VCC wire clk0_out, clk1_out, clk2_out, clk3_out, gnd_out, vcc_out; //CLK,GND,VCC reg flag_g0, flag_v0, flag_g1, flag_v1, flag_g2, flag_v2, flag_g3, flag_v3; //CLK_GND,CLK_VCC wire clk0_gnd, clk0_vcc, clk1_gnd, clk1_vcc, clk2_gnd, clk2_vcc, clk3_gnd, clk3_vcc, clk3_vc; wire clkout_f0, clkout_f1, clkout_f2, clkout_f3, clkout_f; //FALLING reg flag_f0, flag_f1, flag_f2, flag_f3; wire clkout_r0, clkout_r1, clkout_r2, clkout_r3, clkout_r; //RISING reg flag_r0, flag_r1, flag_r2, flag_r3; wire selforce_out; reg dcsout; reg clkout; initial begin flag_g0 = 1'b0; flag_v0 = 1'b0; flag_g1 = 1'b0; flag_v1 = 1'b0; flag_g2 = 1'b0; flag_v2 = 1'b0; flag_g3 = 1'b0; flag_v3 = 1'b0; flag_f0 = 1'b0; flag_f1 = 1'b0; flag_f2 = 1'b0; flag_f3 = 1'b0; flag_r0 = 1'b0; flag_r1 = 1'b0; flag_r2 = 1'b0; flag_r3 = 1'b0; clkout = 1'b0; end //CLK,GND,VCC assign clk0_out = CLKIN0; assign clk1_out = CLKIN1; assign clk2_out = CLKIN2; assign clk3_out = CLKIN3; assign gnd_out = 1'b0; assign vcc_out = 1'b1; //FALLING always @(negedge CLKIN0) begin if (CLKSEL[0] && !flag_f1 && !flag_f2 && !flag_f3) begin flag_f0 <= 1'b1; end else begin flag_f0 <= 1'b0; end end assign clkout_f0 = CLKIN0 & flag_f0; always @(negedge CLKIN1) begin if (CLKSEL[1] && !flag_f0 && !flag_f2 && !flag_f3) begin flag_f1 <= 1'b1; end else begin flag_f1 <= 1'b0; end end assign clkout_f1 = CLKIN1 & flag_f1; always @(negedge CLKIN2) begin if (CLKSEL[2] && !flag_f0 && !flag_f1 && !flag_f3) begin flag_f2 <= 1'b1; end else begin flag_f2 <= 1'b0; end end assign clkout_f2 = CLKIN2 & flag_f2; always @(negedge CLKIN3) begin if (CLKSEL[3] && !flag_f0 && !flag_f1 && !flag_f2) begin flag_f3 <= 1'b1; end else begin flag_f3 <= 1'b0; end end assign clkout_f3 = CLKIN3 & flag_f3; assign clkout_f = flag_f0 ? clkout_f0 : flag_f1 ? clkout_f1 : flag_f2 ? clkout_f2 : flag_f3 ? clkout_f3 : 0; //RISING always @(posedge CLKIN0) begin if (CLKSEL[0] && !flag_r1 && !flag_r2 && !flag_r3) begin flag_r0 <= 1'b1; end else begin flag_r0 <= 1'b0; end end assign clkout_r0 = ~(~CLKIN0 & flag_r0); always @(posedge CLKIN1) begin if (CLKSEL[1] && !flag_r0 && !flag_r2 && !flag_r3) begin flag_r1 <= 1'b1; end else begin flag_r1 <= 1'b0; end end assign clkout_r1 = ~(~CLKIN1 & flag_r1); always @(posedge CLKIN2) begin if (CLKSEL[2] && !flag_r0 && !flag_r1 && !flag_r3) begin flag_r2 <= 1'b1; end else begin flag_r2 <= 1'b0; end end assign clkout_r2 = ~(~CLKIN2 & flag_r2); always @(posedge CLKIN3) begin if (CLKSEL[3] && !flag_r0 && !flag_r1 && !flag_r2) begin flag_r3 <= 1'b1; end else begin flag_r3 <= 1'b0; end end assign clkout_r3 = ~(~CLKIN3 & flag_r3); assign clkout_r = flag_r0 ? clkout_r0 : flag_r1 ? clkout_r1 : flag_r2 ? clkout_r2 : flag_r3 ? clkout_r3 : 1; //CLK0_GND always @(negedge CLKIN0) begin if (CLKSEL[0]) begin flag_g0 <= 1'b1; end else begin flag_g0 <= 1'b0; end end assign clk0_gnd = flag_g0 & CLKIN0; //CLK0_VCC always @(posedge CLKIN0) begin if (CLKSEL[0]) begin flag_v0 <= 1'b1; end else begin flag_v0 <= 1'b0; end end assign clk0_vcc = ~(flag_v0 & (~CLKIN0)); //CLK1_GND always @(negedge CLKIN1) begin if (CLKSEL[1]) begin flag_g1 <= 1'b1; end else begin flag_g1 <= 1'b0; end end assign clk1_gnd = flag_g1 & CLKIN1; //CLK1_VCC always @(posedge CLKIN1) begin if (CLKSEL[1]) begin flag_v1 <= 1'b1; end else begin flag_v1 <= 1'b0; end end assign clk1_vcc = ~(flag_v1 & (~CLKIN1)); //CLK2_GND always @(negedge CLKIN2) begin if (CLKSEL[2]) begin flag_g2 <= 1'b1; end else begin flag_g2 <= 1'b0; end end assign clk2_gnd = flag_g2 & CLKIN2; //CLK2_VCC always @(posedge CLKIN2) begin if (CLKSEL[2]) begin flag_v2 <= 1'b1; end else begin flag_v2 <= 1'b0; end end assign clk2_vcc = ~(flag_v2 & (~CLKIN2)); //CLK3_GND always @(negedge CLKIN3) begin if (CLKSEL[3]) begin flag_g3 <= 1'b1; end else begin flag_g3 <= 1'b0; end end assign clk3_gnd = flag_g3 & CLKIN3; //CLK3_VCC always @(posedge CLKIN3) begin if (CLKSEL[3]) begin flag_v3 <= 1'b1; end else begin flag_v3 <= 1'b0; end end assign clk3_vcc = ~(flag_v3 & (~CLKIN3)); assign clk3_vc = flag_v3 ? CLKIN3 : 1'b1; //dcsout always @(clk0_out,clk1_out,clk2_out,clk3_out,gnd_out,vcc_out,clk0_gnd,clk0_vcc,clk1_gnd,clk1_vcc,clk2_gnd,clk2_vcc,clk3_gnd,clk3_vcc,clkout_f,clkout_r) begin if (DCS_MODE == "CLK0") begin dcsout <= clk0_out; end else if (DCS_MODE == "CLK1") begin dcsout <= clk1_out; end else if (DCS_MODE == "CLK2") begin dcsout <= clk2_out; end else if (DCS_MODE == "CLK3") begin dcsout <= clk3_out; end else if (DCS_MODE == "GND") begin dcsout <= gnd_out; end else if (DCS_MODE == "VCC") begin dcsout <= vcc_out; end else if (DCS_MODE == "FALLING") begin dcsout <= clkout_f; end else if (DCS_MODE == "RISING") begin dcsout <= clkout_r; end else if (DCS_MODE == "CLK0_GND") begin dcsout <= clk0_gnd; end else if (DCS_MODE == "CLK0_VCC") begin dcsout <= clk0_vcc; end else if (DCS_MODE == "CLK1_GND") begin dcsout <= clk1_gnd; end else if (DCS_MODE == "CLK1_VCC") begin dcsout <= clk1_vcc; end else if (DCS_MODE == "CLK2_GND") begin dcsout <= clk2_gnd; end else if (DCS_MODE == "CLK2_VCC") begin dcsout <= clk2_vcc; end else if (DCS_MODE == "CLK3_GND") begin dcsout <= clk3_gnd; end else if (DCS_MODE == "CLK3_VCC") begin dcsout <= clk3_vcc; end else begin dcsout <= 0; end end //clkout assign selforce_out = (CLKSEL == 4'b0001) ? CLKIN0 : (CLKSEL == 4'b0010) ? CLKIN1 : (CLKSEL == 4'b0100) ? CLKIN2 : (CLKSEL == 4'b1000) ? CLKIN3 : 0; always @(dcsout or selforce_out or SELFORCE) begin if (!SELFORCE) begin clkout <= dcsout; end else begin clkout <= selforce_out; end end assign CLKOUT = clkout; endmodule // DDRDLL module DDRDLL ( STEP, LOCK, UPDNCNTL, STOP, CLKIN, RESET ); input CLKIN; input STOP; input UPDNCNTL; input RESET; output [7:0] STEP; output LOCK; parameter DLL_FORCE = "FALSE";//TRUE: force lock and code; FALSE: code/lock generated from DDRDLL loop parameter CODESCAL = "000"; //001 010 011 100 101 110 111 parameter SCAL_EN = "TRUE"; //TRUE,FALSE parameter DIV_SEL = 1'b0; // 1'b0,normal lock mode; 1'b1,fast lock mode realtime clkin_edge, clkin_period, clkin_period_pre; real del; reg [7:0] step_reg, step_reg_sig; reg stop_0, stop_1n; integer cnt; reg clk_effect, lock_reg; wire reset_sig; wire grstn = GSR.GSRO; wire clk_out; initial begin del = 0.025; clk_effect = 1'b0; step_reg = 8'b00000000; lock_reg = 1'b0; end assign reset_sig = RESET | (~grstn); always @(posedge CLKIN or posedge reset_sig) begin if (reset_sig) begin clk_effect <= 0; clkin_period <= 0; end else begin clkin_edge <= $realtime; clkin_period <= $realtime - clkin_edge; clkin_period_pre <= clkin_period; end if (clkin_period > 0) begin if((clkin_period-clkin_period_pre <0.001) &&(clkin_period-clkin_period_pre>-0.001)) begin clk_effect = 1; end else begin clk_effect = 0; end end end always @(negedge CLKIN or posedge reset_sig) begin if (reset_sig) begin stop_0 <= 1'b0; end else begin stop_0 <= STOP; end end always @(negedge CLKIN or posedge reset_sig) begin if (reset_sig) begin stop_1n <= 1'b1; end else begin stop_1n <= ~stop_0; end end assign clk_out = CLKIN && stop_1n; always @(posedge clk_out or posedge reset_sig) begin if (reset_sig) begin cnt <= 0; lock_reg <= 1'b0; end else begin cnt <= cnt + 1; if (DIV_SEL == 1'b0) begin if (cnt >= 33600) begin lock_reg <= 1'b1; end else begin lock_reg <= 1'b0; end end if (DIV_SEL == 1'b1) begin if (cnt >= 2100) begin lock_reg <= 1'b1; end else begin lock_reg <= 1'b0; end end end end assign LOCK = (DLL_FORCE == "TRUE") ? 1'b1 : lock_reg; always @(*) begin if (clk_effect) begin if (SCAL_EN == "TRUE") begin case (CODESCAL) "000": step_reg <= clkin_period / del / 360 * 101; "001": step_reg <= clkin_period / del / 360 * 112; "010": step_reg <= clkin_period / del / 360 * 123; "011": step_reg <= clkin_period / del / 360 * 135; "100": step_reg <= clkin_period / del / 360 * 79; "101": step_reg <= clkin_period / del / 360 * 68; "110": step_reg <= clkin_period / del / 360 * 57; "111": step_reg <= clkin_period / del / 360 * 45; endcase end else begin step_reg <= clkin_period / del / 360 * 90; end end end always @(step_reg or reset_sig or UPDNCNTL) begin if (reset_sig == 1'b1) begin step_reg_sig <= 8'b00000000; end else if (UPDNCNTL == 0) begin step_reg_sig <= step_reg; end end assign STEP = (DLL_FORCE == "TRUE") ? 255 : step_reg_sig; endmodule // DLLDLY module DLLDLY ( CLKOUT, FLAG, CLKIN, DLLSTEP, CSTEP, LOADN, MOVE ); input CLKIN; input [7:0] DLLSTEP, CSTEP; input LOADN, MOVE; output CLKOUT; output FLAG; parameter DLY_SIGN = 1'b0; // 1'b0:'+', 1'b1: '-' parameter DLY_ADJ = 0; // 0~255, dly_sign=0 :dly_adj; dly_sign=1: -dly_adj parameter DYN_DLY_EN = "FALSE"; //"TRUE","FALSE" parameter ADAPT_EN = "FALSE"; //"TRUE","FALSE" parameter STEP_SEL = 1'b0; //1'b0:DLLSTEP; 1'b1:CSTEP reg premove, clk_effect; reg [7:0] dllstep_adj_pre, CSTEP_pre; wire [7:0] dllstep_adj; real dly_adj; realtime del, step_dly; realtime clkin_edge, clkin_period, clkin_period_pre; reg [7:0] step_data, step_data_adapt; wire [7:0] step_pre, step_cur, step_code; wire [7:0] step_data_real; integer cnt_step, cnt_value; reg cnt_start, cnt_step_start, cnt_value_start; reg flag_add, flag_sub; reg CLKOUT; wire grstn = GSR.GSRO; initial begin step_data = 8'b00000000; step_data_adapt = 8'b00000000; del = 0.0125; clk_effect = 1'b0; dly_adj = 0; cnt_step = 0; cnt_value = 0; cnt_start = 1'b0; cnt_step_start = 1'b0; cnt_value_start = 1'b0; flag_add = 1'b0; flag_sub = 1'b0; end initial begin if (DLY_SIGN == 1'b0) begin dly_adj = DLY_ADJ; end else if (DLY_SIGN == 1'b1) begin dly_adj = -DLY_ADJ; end end always @(posedge CLKIN) begin if (!grstn) begin clkin_edge <= 0; end else begin clkin_edge <= $realtime; clkin_period <= $realtime - clkin_edge; clkin_period_pre <= clkin_period; end if (clkin_period > 0) begin //if((clkin_period_pre-clkin_period<0.001) &&(clkin_period_pre-clkin_period>-0.001)) if (clkin_period_pre == clkin_period) begin clk_effect = 1; end else begin clk_effect = 0; end end end assign step_code = (DYN_DLY_EN == "FALSE") ? DLY_ADJ : step_cur; always @(LOADN or step_code or clk_effect) begin if (clk_effect == 1'b1) begin if (!LOADN) begin step_data <= step_code; end end end always @(MOVE) begin premove <= MOVE; end always @(LOADN or MOVE) begin if (clk_effect == 1'b1) begin if (LOADN) begin if (premove == 1'b0 && MOVE == 1'b1) begin cnt_start <= 1'b1; end else begin cnt_start <= 1'b0; end end end end always @(negedge CLKIN) begin if (cnt_start) begin if (cnt_value == 22) begin cnt_value <= 0; cnt_value_start <= 1'b1; end else if (cnt_value == 15) begin cnt_step_start <= 1'b1; cnt_value <= cnt_value + 1; end else begin cnt_value <= cnt_value + 1; end if (cnt_value_start == 1'b1) begin cnt_value <= 0; end end else begin cnt_value <= 0; cnt_value_start <= 1'b0; cnt_step_start <= 1'b0; end end always @(negedge CLKIN) begin if (cnt_step_start) begin if (cnt_step == 7) begin cnt_step <= 0; end else begin cnt_step <= cnt_step + 1; end end else begin cnt_step <= 0; end end assign dllstep_adj = ((DLLSTEP + dly_adj) <= 0) ? 0 : ((DLLSTEP + dly_adj) >= 255) ? 255 : (DLLSTEP + dly_adj); always @(dllstep_adj) begin dllstep_adj_pre <= dllstep_adj; end always @(CSTEP) begin CSTEP_pre <= CSTEP; end assign step_pre = (STEP_SEL == 1'b0) ? dllstep_adj_pre : CSTEP_pre; assign step_cur = (STEP_SEL == 1'b0) ? dllstep_adj : CSTEP; always @(DLLSTEP, CSTEP, LOADN, MOVE, CLKIN, clk_effect) begin if (clk_effect == 1'b1) begin flag_add = 1'b0; flag_sub = 1'b0; if (LOADN == 1'b0) begin step_data_adapt <= step_pre; end else begin if (cnt_value_start == 1'b1) begin if (step_data_adapt < step_cur) begin flag_add = 1'b1; if (step_data_adapt != step_cur) begin if (cnt_step == 7) begin step_data_adapt <= step_data_adapt + 1; end end end else if (step_data_adapt > step_cur) begin flag_sub = 1'b1; if (step_data_adapt != step_cur) begin if (cnt_step == 7) begin step_data_adapt <= step_data_adapt - 1; end end end end end end end assign FLAG = (flag_add && (step_data_adapt == step_cur)) || (flag_sub && (step_data_adapt == step_cur)); assign step_data_real = (ADAPT_EN == "FALSE") ? step_data : step_data_adapt; always @(step_data_real) begin step_dly <= (step_data_real + 1) * del; end always @(CLKIN) begin CLKOUT <= #(step_dly) CLKIN; end endmodule // CLKDIV module CLKDIV ( CLKOUT, CALIB, HCLKIN, RESETN ); input HCLKIN; input RESETN; input CALIB; output CLKOUT; parameter DIV_MODE = "2"; //"1","2","3","3.5","4","5","6","7","8" reg reset_0; reg calib_0, calib_1, calib_2, calib_state; wire calib_en, calib_resetn, cnt_enable; reg select_no_3p5, select3p5, select5, select3, select6, select7; wire dsel_en, clk_div_0, clk_div2, clk_div7_8, clk_div; reg d_sel, cnt_0, cnt_1, cnt_2, clk_div_1; wire dsel_clk; wire grstn; assign grstn = GSR.GSRO; initial begin cnt_0 = 1'b0; cnt_1 = 1'b0; cnt_2 = 1'b0; d_sel = 1'b0; calib_state = 1'b0; clk_div_1 = 1'b0; if (DIV_MODE == "3.5") begin select3p5 = 1'b1; select_no_3p5 = 1'b0; end else begin select_no_3p5 = 1'b1; select3p5 = 1'b0; end if (DIV_MODE == "5") begin select5 = 1'b1; end else begin select5 = 1'b0; end if (DIV_MODE == "3") begin select3 = 1'b1; end else begin select3 = 1'b0; end if (DIV_MODE == "6") begin select6 = 1'b1; end else begin select6 = 1'b0; end if (DIV_MODE == "7") begin select7 = 1'b1; end else begin select7 = 1'b0; end end always @(posedge HCLKIN or negedge grstn or negedge RESETN) begin if (!grstn) begin reset_0 <= 1'b0; end else if (!RESETN) begin reset_0 <= 1'b0; end else begin reset_0 <= 1'b1; end end always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin calib_0 <= 1'b0; end else begin calib_0 <= ~CALIB; end end always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin calib_1 <= 0; end else begin calib_1 <= calib_0; end end always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin calib_2 <= 1'b0; end else begin calib_2 <= calib_1; end end assign calib_resetn = ~(calib_1 && (~calib_2)); assign calib_en = ~(calib_resetn | (~select_no_3p5)); always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin calib_state <= 1'b0; end else begin if (calib_en == 1'b1) begin calib_state <= ~calib_state; end else begin calib_state <= calib_state; end end end assign cnt_enable = (~((~calib_resetn)&calib_state) & select_no_3p5) | (calib_resetn & select3p5); assign dsel_en = (d_sel& cnt_0 & cnt_1 & select3p5) | (calib_resetn & (~d_sel) & (~cnt_0) & cnt_1 & select3p5); assign dsel_clk = HCLKIN ^ d_sel; always @(posedge dsel_clk or negedge reset_0) begin if (!reset_0) begin d_sel <= 1'b0; end else if (dsel_en == 1'b1) begin d_sel <= ~d_sel; end else if (dsel_en == 1'b0) begin d_sel <= d_sel; end end assign cnt_reset = ((select3&((~cnt_2)&cnt_1&(~cnt_0))) | (select6&(cnt_2&(~cnt_1)&cnt_0)) | (select7&(cnt_2&cnt_1&(~cnt_0))) | (select5&(cnt_2&(~cnt_1)&(~cnt_0)))) | (select3p5 & (~d_sel) & (~cnt_0) & cnt_1); always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin cnt_0 <= 1'b1; end else if (cnt_enable == 1'b1) begin cnt_0 <= ~(cnt_0 | cnt_reset); end else if (cnt_enable == 1'b0) begin cnt_0 <= cnt_0; end end always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin cnt_1 <= 1'b1; end else if (cnt_enable == 1'b1) begin cnt_1 <= ~(cnt_reset | (cnt_0 ^~ cnt_1)); end else if (cnt_enable == 1'b0) begin cnt_1 <= cnt_1; end end always @(posedge HCLKIN or negedge reset_0) begin if (!reset_0) begin cnt_2 <= 1'b0; end else if (cnt_enable == 1'b1) begin cnt_2 <= ~(cnt_reset | (cnt_2 ^~ (cnt_0 & cnt_1))); end else if (cnt_enable == 1'b0) begin cnt_2 <= cnt_2; end end assign clk_div_0 = ~cnt_1; always @(negedge HCLKIN or negedge reset_0) begin if (!reset_0) clk_div_1 <= 1'b0; else clk_div_1 <= clk_div_0; end assign clk_div = (d_sel == 1'b1) ? clk_div_1 : clk_div_0; assign clk_div2 = ~cnt_0; assign clk_div7_8 = cnt_2; assign CLKOUT = (DIV_MODE == "1")? HCLKIN: ((DIV_MODE == "2")? clk_div2 : (((DIV_MODE == "7") || (DIV_MODE == "8")) ? clk_div7_8 : clk_div)); endmodule //CLKDIV2 module CLKDIV2 ( CLKOUT, HCLKIN, RESETN ); input HCLKIN, RESETN; output CLKOUT; reg reset_0; reg clk_div2; wire grstn; initial begin clk_div2 = 1'b0; reset_0 = 1'b0; end assign grstn = GSR.GSRO; always @(posedge HCLKIN or negedge grstn or negedge RESETN) begin if (!grstn) begin reset_0 <= 1'b0; end else if (!RESETN) begin reset_0 <= 1'b0; end else begin reset_0 <= 1'b0; end end always @(posedge HCLKIN or negedge grstn or negedge RESETN) begin if (!grstn) begin clk_div2 <= 1'b0; end else if (!RESETN) begin clk_div2 <= 1'b0; end else begin clk_div2 <= (clk_div2 ^ (~reset_0)); end end assign CLKOUT = clk_div2; endmodule // DHCE module DHCE ( CLKOUT, CLKIN, CEN ); input CLKIN; input CEN; //CEN,active low output CLKOUT; reg ce_reg0, ce_reg1, ce_reg2, ce_reg3; wire grstn; assign grstn = GSR.GSRO; always @(negedge CLKIN or negedge grstn) begin if (!grstn) begin ce_reg0 <= 1'b0; ce_reg1 <= 1'b0; ce_reg2 <= 1'b0; ce_reg3 <= 1'b0; end else begin ce_reg0 <= ~CEN; ce_reg1 <= ce_reg0; ce_reg2 <= ce_reg1; ce_reg3 <= ce_reg2; end end assign CLKOUT = CLKIN & ce_reg3; endmodule //OSC //Fosc = 210M/FREQ_DIV module OSC ( OSCOUT ); parameter FREQ_DIV = 100; // 3, 2~126(only even num) output OSCOUT; reg oscr; realtime half_clk; initial begin oscr = 1'b0; half_clk = 2.381 * FREQ_DIV; end assign OSCOUT = oscr; always begin #half_clk; oscr = 1'b1; #half_clk; oscr = 1'b0; end endmodule //OSCA, gw5a-25 //Fosc = 210M/FREQ_DIV module OSCA ( OSCOUT, OSCEN ); parameter FREQ_DIV = 100; // 3, 2~126(only even num) output OSCOUT; input OSCEN; reg oscr; realtime half_clk; initial begin oscr = 1'b0; half_clk = 2.381 * FREQ_DIV; end assign OSCOUT = OSCEN ? oscr : 1'b1; always begin #half_clk; oscr = 1'b1; #half_clk; oscr = 1'b0; end endmodule //OSCB, gw5a-15k module OSCB ( OSCOUT, OSCREF, OSCEN, FMODE, RTRIM, RTCTRIM ); parameter FREQ_MODE = "25"; //"25": 25Mhz; "210": 210MHz parameter FREQ_DIV = 10; // 3, 2~126(only even num) parameter DYN_TRIM_EN = "FALSE"; //"TRUE","FALSE". TRUE:select port RTRIM and RTCTRIM output OSCOUT; output OSCREF; //25M, osc as reference for serdes and pll input OSCEN, FMODE; input [7:0] RTRIM; //trim OSCREF input [5:0] RTCTRIM; //tc_trim OSCREF reg oscr, osc_ref, osc_210, oscr_210; reg OSCOUT, OSCREF; realtime half_clk, half_clkref, half_clk_210, half_clk210; initial begin oscr = 1'b0; half_clk = 20 * FREQ_DIV; osc_ref = 1'b0; half_clkref = 20; osc_210 = 1'b0; half_clk210 = 2.381; oscr_210 = 1'b0; half_clk_210 = 2.381 * FREQ_DIV; end always @(OSCEN, FMODE, oscr, oscr_210) begin if (OSCEN == 1'b1) begin if (FREQ_MODE == "25") begin OSCOUT <= oscr; OSCREF <= osc_ref; end else begin if (FMODE == 1'b0) begin OSCOUT <= oscr; OSCREF <= osc_ref; end else begin OSCOUT <= oscr_210; OSCREF <= osc_210; end end end else begin OSCOUT <= 1'b1; OSCREF <= 1'b1; end end always begin #half_clk; oscr = 1'b1; #half_clk; oscr = 1'b0; end always begin #half_clkref; osc_ref = 1'b1; #half_clkref; osc_ref = 1'b0; end always begin #half_clk210; osc_210 = 1'b1; #half_clk210; osc_210 = 1'b0; end always begin #half_clk_210; oscr_210 = 1'b1; #half_clk_210; oscr_210 = 1'b0; end endmodule //PLL module PLL ( CLKOUT0, CLKOUT1, CLKOUT2, CLKOUT3, CLKOUT4, CLKOUT5, CLKOUT6, CLKFBOUT, LOCK, CLKIN, CLKFB, ENCLK0, ENCLK1, ENCLK2, ENCLK3, ENCLK4, ENCLK5, ENCLK6, FBDSEL, IDSEL, MDSEL, MDSEL_FRAC, ODSEL0, ODSEL0_FRAC, ODSEL1, ODSEL2, ODSEL3, ODSEL4, ODSEL5, ODSEL6, DT0, DT1, DT2, DT3, PSSEL, PSDIR, PSPULSE, SSCPOL, SSCON, SSCMDSEL, SSCMDSEL_FRAC, ICPSEL, LPFRES, LPFCAP, RESET, PLLPWD, RESET_I, RESET_O ); input CLKIN; input CLKFB; input RESET; input PLLPWD; input RESET_I; input RESET_O; input [5:0] FBDSEL; input [5:0] IDSEL; input [6:0] MDSEL; input [2:0] MDSEL_FRAC; input [6:0] ODSEL0; input [2:0] ODSEL0_FRAC; input [6:0] ODSEL1; input [6:0] ODSEL2; input [6:0] ODSEL3; input [6:0] ODSEL4; input [6:0] ODSEL5; input [6:0] ODSEL6; input [3:0] DT0, DT1, DT2, DT3; input [5:0] ICPSEL; input [2:0] LPFRES; input [1:0] LPFCAP; input [2:0] PSSEL; input PSDIR; input PSPULSE; input ENCLK0; input ENCLK1; input ENCLK2; input ENCLK3; input ENCLK4; input ENCLK5; input ENCLK6; input SSCPOL; input SSCON; input [6:0] SSCMDSEL; input [2:0] SSCMDSEL_FRAC; output LOCK; output CLKOUT0; output CLKOUT1; output CLKOUT2; output CLKOUT3; output CLKOUT4; output CLKOUT5; output CLKOUT6; output CLKFBOUT; parameter FCLKIN = "100.0"; // frequency of the CLKIN(M) parameter DYN_IDIV_SEL = "FALSE"; //TRUE:IDSEL; FALSE:IDIV_SEL parameter IDIV_SEL = 1; // 1~64 parameter DYN_FBDIV_SEL = "FALSE"; //TRUE:FBDSEL; FALSE:FBDIV_SEL parameter FBDIV_SEL = 1; // 1~64 parameter DYN_ODIV0_SEL = "FALSE"; //TRUE:ODSEL0; FALSE:ODIV0_SEL parameter ODIV0_SEL = 8; // 1~128 parameter DYN_ODIV1_SEL = "FALSE"; //TRUE:ODSEL1; FALSE:ODIV1_SEL parameter ODIV1_SEL = 8; // 1~128 parameter DYN_ODIV2_SEL = "FALSE"; //TRUE:ODSEL2; FALSE:ODIV2_SEL parameter ODIV2_SEL = 8; // 1~128 parameter DYN_ODIV3_SEL = "FALSE"; //TRUE:ODSEL3; FALSE:ODIV3_SEL parameter ODIV3_SEL = 8; // 1~128 parameter DYN_ODIV4_SEL = "FALSE"; //TRUE:ODSEL4; FALSE:ODIV4_SEL parameter ODIV4_SEL = 8; // 1~128 parameter DYN_ODIV5_SEL = "FALSE"; //TRUE:ODSEL5; FALSE:ODIV5_SEL parameter ODIV5_SEL = 8; // 1~128 parameter DYN_ODIV6_SEL = "FALSE"; //TRUE:ODSEL6; FALSE:ODIV6_SEL parameter ODIV6_SEL = 8; // 1~128 parameter DYN_MDIV_SEL = "FALSE"; //TRUE:MDSEL; FALSE:MDIV_SEL parameter MDIV_SEL = 8; // 2~128 parameter MDIV_FRAC_SEL = 0; // 0~7 parameter ODIV0_FRAC_SEL = 0; // 0~7 parameter CLKOUT0_EN = "TRUE"; //"TRUE","FALSE" parameter CLKOUT1_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT2_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT3_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT4_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT5_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT6_EN = "FALSE"; //"TRUE","FALSE" parameter CLKFB_SEL = "INTERNAL"; // "INTERNAL", "EXTERNAL"; parameter DYN_DT0_SEL = "FALSE"; //TRUE:DT0; FALSE:CLKOUT0_DT_DIR & CLKOUT0_DT_STEP parameter DYN_DT1_SEL = "FALSE"; //TRUE:DT1; FALSE:CLKOUT1_DT_DIR & CLKOUT1_DT_STEP parameter DYN_DT2_SEL = "FALSE"; //TRUE:DT2; FALSE:CLKOUT2_DT_DIR & CLKOUT2_DT_STEP parameter DYN_DT3_SEL = "FALSE"; //TRUE:DT3; FALSE:CLKOUT3_DT_DIR & CLKOUT3_DT_STEP parameter CLKOUT0_DT_DIR = 1'b1; // CLKOUT0 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT1_DT_DIR = 1'b1; // CLKOUT1 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT2_DT_DIR = 1'b1; // CLKOUT2 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT3_DT_DIR = 1'b1; // CLKOUT3 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT0_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT1_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT2_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT3_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLK0_IN_SEL = 1'b0; //ODIV0 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK0_OUT_SEL = 1'b0; //CLKOUT0 output select. 1'b0:DIV0 output; 1'b1:CLKIN parameter CLK1_IN_SEL = 1'b0; //ODIV1 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK1_OUT_SEL = 1'b0; //CLKOUT1 output select. 1'b0:DIV1 output; 1'b1:CLKIN parameter CLK2_IN_SEL = 1'b0; //ODIV2 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK2_OUT_SEL = 1'b0; //CLKOUT2 output select. 1'b0:DIV2 output; 1'b1:CLKIN parameter CLK3_IN_SEL = 1'b0; //ODIV3 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK3_OUT_SEL = 1'b0; //CLKOUT3 output select. 1'b0:DIV3 output; 1'b1:CLKIN parameter CLK4_IN_SEL = 2'b00;//ODIV4 input source select.2'b00:from VCO;2'b10:from CLKIN;2'b01:from CASCADE parameter CLK4_OUT_SEL = 1'b0; //CLKOUT4 output select. 1'b0:DIV4 output; 1'b1:CLKIN parameter CLK5_IN_SEL = 1'b0; //ODIV5 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK5_OUT_SEL = 1'b0; //CLKOUT5 output select. 1'b0:DIV5 output; 1'b1:CLKIN parameter CLK6_IN_SEL = 1'b0; //ODIV6 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK6_OUT_SEL = 1'b0; //CLKOUT6 output select. 1'b0:DIV6 output; 1'b1:CLKIN parameter DYN_DPA_EN = "FALSE"; //dynamic phaseshift adjustment Enable."TRUE","FALSE" parameter CLKOUT0_PE_COARSE = 0; //0~127 parameter CLKOUT0_PE_FINE = 0; //0~7 parameter CLKOUT1_PE_COARSE = 0; //0~127 parameter CLKOUT1_PE_FINE = 0; //0~7 parameter CLKOUT2_PE_COARSE = 0; //0~127 parameter CLKOUT2_PE_FINE = 0; //0~7 parameter CLKOUT3_PE_COARSE = 0; //0~127 parameter CLKOUT3_PE_FINE = 0; //0~7 parameter CLKOUT4_PE_COARSE = 0; //0~127 parameter CLKOUT4_PE_FINE = 0; //0~7 parameter CLKOUT5_PE_COARSE = 0; //0~127 parameter CLKOUT5_PE_FINE = 0; //0~7 parameter CLKOUT6_PE_COARSE = 0; //0~127 parameter CLKOUT6_PE_FINE = 0; //0~7 parameter DYN_PE0_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV0 phase shift. "FALSE":select CLKOUT0_PE_COARSE & CLKOUT0_PE_FINE as the static control signal for ODIV0 phase shift parameter DYN_PE1_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV1 phase shift. "FALSE":select CLKOUT1_PE_COARSE & CLKOUT1_PE_FINE as the static control signal for ODIV1 phase shift parameter DYN_PE2_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV2 phase shift. "FALSE":select CLKOUT2_PE_COARSE & CLKOUT2_PE_FINE as the static control signal for ODIV2 phase shift parameter DYN_PE3_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV3 phase shift. "FALSE":select CLKOUT3_PE_COARSE & CLKOUT3_PE_FINE as the static control signal for ODIV3 phase shift parameter DYN_PE4_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV4 phase shift. "FALSE":select CLKOUT4_PE_COARSE & CLKOUT4_PE_FINE as the static control signal for ODIV4 phase shift parameter DYN_PE5_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV5 phase shift. "FALSE":select CLKOUT5_PE_COARSE & CLKOUT5_PE_FINE as the static control signal for ODIV5 phase shift parameter DYN_PE6_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV6 phase shift. "FALSE":select CLKOUT6_PE_COARSE & CLKOUT6_PE_FINE as the static control signal for ODIV6 phase shift parameter DE0_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv0=2~128; "TRUE":select CLKOUT0_PE_COARSE & CLKOUT0_PE_FINE as duty edge when DYN_PE0_SEL="TRUE" for case ODIV0=2~128 parameter DE1_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv1=2~128; "TRUE":select CLKOUT1_PE_COARSE & CLKOUT1_PE_FINE as duty edge when DYN_PE1_SEL="TRUE" for case ODIV1=2~128 parameter DE2_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv2=2~128; "TRUE":select CLKOUT2_PE_COARSE & CLKOUT2_PE_FINE as duty edge when DYN_PE2_SEL="TRUE" for case ODIV2=2~128 parameter DE3_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv3=2~128; "TRUE":select CLKOUT3_PE_COARSE & CLKOUT3_PE_FINE as duty edge when DYN_PE3_SEL="TRUE" for case ODIV3=2~128 parameter DE4_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv4=2~128; "TRUE":select CLKOUT4_PE_COARSE & CLKOUT4_PE_FINE as duty edge when DYN_PE4_SEL="TRUE" for case ODIV4=2~128 parameter DE5_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv5=2~128; "TRUE":select CLKOUT5_PE_COARSE & CLKOUT5_PE_FINE as duty edge when DYN_PE5_SEL="TRUE" for case ODIV5=2~128 parameter DE6_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv6=2~128; "TRUE":select CLKOUT6_PE_COARSE & CLKOUT6_PE_FINE as duty edge when DYN_PE6_SEL="TRUE" for case ODIV6=2~128 parameter RESET_I_EN = "FALSE";//"TRUE","FALSE". Enable RESET_I through the dedicated signal from ciu. parameter RESET_O_EN = "FALSE";//"TRUE","FALSE". Enable RESET_S through the dedicated signal from ciu. parameter DYN_ICP_SEL = "FALSE"; //TRUE:ICPSEL; FALSE:ICP_SEL parameter ICP_SEL = 6'bXXXXXX;//X means that software will automatically calculate and set this parameter.If the user wants to set it, use 6'b000000~6'b111111 parameter DYN_LPF_SEL = "FALSE"; //TRUE:LPFRES,LPFCAP; FALSE:LPF_RES,LPF_CAP parameter LPF_RES = 3'bXXX;//X means that software will automatically calculate and set this parameter.If the user wants to set it, use 3'b000(R0)/3'b001(R1)/3'b010(R2)/3'b011(R3)/3'b100(R4)/3'b101(R5)/3'b110(R6)/3'b111(R7) parameter LPF_CAP = 2'b00; // 2'b00,C0 ;2'b01,C1; 2'b10,C2 parameter SSC_EN = "FALSE"; //"FALSE","TRUE".ssc mode enable wire resetn; wire [6:0] IDIV_dyn, FBDIV_dyn; wire [7:0] ODIV0_dyn, ODIV1_dyn, ODIV2_dyn, ODIV3_dyn, ODIV4_dyn, ODIV5_dyn, ODIV6_dyn, MDIV_dyn; wire [2:0] ODIV0_f_dyn, MDIV_f_dyn; wire [6:0] IDIV_SEL_reg, FBDIV_SEL_reg; wire [7:0] ODIV0_SEL_reg,ODIV1_SEL_reg,ODIV2_SEL_reg,ODIV3_SEL_reg,ODIV4_SEL_reg,ODIV5_SEL_reg,ODIV6_SEL_reg,MDIV_SEL_reg; wire [2:0] ODIV0_f_reg, MDIV_f_reg; reg [6:0] IDIV_dyn_reg, FBDIV_dyn_reg; reg [7:0] ODIV0_dyn_reg, ODIV1_dyn_reg, ODIV2_dyn_reg, ODIV3_dyn_reg, ODIV4_dyn_reg, ODIV5_dyn_reg, ODIV6_dyn_reg, MDIV_dyn_reg; wire div_dyn_change; reg clk_effect, oclk_effect; realtime curtime, pretime, fb_delay; realtime clkin_cycle[4:0]; realtime clkin_period, clkin_period1, vco_period, clkout0_period, clkout1_period, clkout2_period, clkout3_period, clkout4_period, clkout5_period, clkout6_period, clkfbout_period; realtime clkout0_half, clkout1_half, clkout2_half, clkout3_half, clkout4_half, clkout5_half, clkout6_half, clkfbout_half; real real_phase0, real_duty0, real_phase1, real_duty1, real_phase2, real_duty2, real_phase3, real_duty3, real_phase4, real_duty4, real_phase5, real_duty5, real_phase6, real_duty6; realtime phase_value0, clkout0_duty, clkout1_duty, tclk0_duty, tclk1_duty; realtime phase_value1, phase_value2, phase_value3, clkout2_duty, clkout3_duty; realtime phase_value4, phase_value5, phase_value6, clkout4_duty, clkout5_duty, clkout6_duty, tclk2_duty, tclk3_duty; realtime clkfb_curtime, clkin_curtime, FB_dly, FB_dly0; reg clkin_init, fb_clk_init; reg clk0_reg, clk1_reg, clk2_reg, clk3_reg, clk4_reg, clk5_reg, clk6_reg, clkfb_reg, clk0, clk1, clk2, clk3, clk4, clk5, clk6, clkfb; reg [2:0] fine_dyn_0, fine_dyn_1, fine_dyn_2, fine_dyn_3, fine_dyn_4, fine_dyn_5, fine_dyn_6; integer coarse_dyn_0, coarse_dyn_1, coarse_dyn_2, coarse_dyn_3, coarse_dyn_4, coarse_dyn_5, coarse_dyn_6; reg ps_pulse_pre; reg clkout_0, clkout0_ps, clk0_out, clkout_1, clkout1_ps, clk1_out, clkout_2, clkout2_ps, clk2_out, clkout_3, clkout3_ps, clk3_out, clkout_4, clkout4_ps, clk4_out, clkout_5, clkout5_ps, clk5_out, clkout_6, clkout6_ps, clk6_out, clkfb_out, clkout_fb; wire clk0_dt_dir, clk1_dt_dir, clk3_dt_dir, clk4_dt_dir; wire [2:0] clk0_dt_step, clk1_dt_step, clk2_dt_step, clk3_dt_step; realtime clk0_dt_delay, clk1_dt_delay, clk2_dt_delay, clk3_dt_delay; reg clkout_dt_0, clkout_dt_1, clkout_dt_2, clkout_dt_3; reg lock_reg; reg [2:0] fine_0, fine_1, fine_2, fine_3, fine_4, fine_5, fine_6; integer coarse_0, coarse_1, coarse_2, coarse_3, coarse_4, coarse_5, coarse_6; real unit_duty = 1.0, unit_phase = 1.0; real unit_div = 1.0, real_fbdiv = 1.0; integer multi_clkin; reg clkfb_init; reg pssel_0_flag, pssel_1_flag, pssel_2_flag, pssel_3_flag, pssel_4_flag, pssel_5_flag, pssel_6_flag; reg cken0, cken1, cken2, cken3, cken4, cken5, cken6; wire reseti, reseto; initial begin clkin_cycle[0] = 0.0; clkin_cycle[1] = 0.0; clkin_cycle[2] = 0.0; clkin_cycle[3] = 0.0; clkin_cycle[4] = 0.0; clkin_period = 0.0; clkin_period1 = 0.0; vco_period = 0.0; clkout0_period = 0.0; clkout1_period = 0.0; clkout2_period = 0.0; clkout3_period = 0.0; clkout4_period = 0.0; clkout5_period = 0.0; clkout6_period = 0.0; clkfbout_period = 0.0; clkout0_half = 0.0; clkout1_half = 0.0; clkout2_half = 0.0; clkout3_half = 0.0; clkout4_half = 0.0; clkout5_half = 0.0; clkout6_half = 0.0; clkfbout_half = 0.0; clk_effect = 1'b0; oclk_effect = 1'b0; clk0_reg = 1'b0; clk1_reg = 1'b0; clk2_reg = 1'b0; clk3_reg = 1'b0; clk4_reg = 1'b0; clk5_reg = 1'b0; clk6_reg = 1'b0; clkfb_reg = 1'b0; clk0 = 1'b0; clk1 = 1'b0; clk2 = 1'b0; clk3 = 1'b0; clk4 = 1'b0; clk5 = 1'b0; clk6 = 1'b0; clkfb = 1'b0; clk0_out = 1'b0; clk1_out = 1'b0; clk2_out = 1'b0; clk3_out = 1'b0; clk4_out = 1'b0; clk5_out = 1'b0; clk6_out = 1'b0; clkfb_out = 1'b0; clkout0_ps = 1'b0; clkout1_ps = 1'b0; clkout2_ps = 1'b0; clkout3_ps = 1'b0; clkout4_ps = 1'b0; clkout5_ps = 1'b0; clkout6_ps = 1'b0; clkout_fb = 1'b0; clkout_0 = 1'b0; clkout_1 = 1'b0; clkout_2 = 1'b0; clkout_3 = 1'b0; clkout_4 = 1'b0; clkout_5 = 1'b0; clkout_6 = 1'b0; clkin_init = 1'b1; fb_clk_init = 1'b1; clkfb_init = 1'b1; FB_dly = 0.0; FB_dly0 = 0.0; clkin_curtime = 0.0; clkfb_curtime = 0.0; lock_reg = 0; fine_dyn_0 = 0; fine_dyn_1 = 0; fine_dyn_2 = 0; fine_dyn_4 = 0; fine_dyn_5 = 0; fine_dyn_6 = 0; coarse_dyn_0 = 0; coarse_dyn_1 = 0; coarse_dyn_2 = 0; coarse_dyn_3 = 0; coarse_dyn_4 = 0; coarse_dyn_5 = 0; coarse_dyn_6 = 0; fine_0 = 0; fine_1 = 0; fine_2 = 0; fine_3 = 0; fine_4 = 0; fine_5 = 0; fine_6 = 0; coarse_0 = 0; coarse_1 = 0; coarse_2 = 0; coarse_3 = 0; coarse_4 = 0; coarse_5 = 0; coarse_6 = 0; //////////// end assign reseti = (RESET_I_EN == "TRUE") ? RESET_I : 1'b0; assign reseto = (RESET_O_EN == "TRUE") ? RESET_O : 1'b0; assign resetn = ~(RESET | PLLPWD | reseti); // determine period of CLKIN and clkout always @(posedge CLKIN or negedge resetn) begin if (!resetn) begin clk_effect <= 1'b0; clkin_cycle[0] <= 0; end else begin pretime <= curtime; curtime <= $realtime; if (pretime > 0) begin clkin_cycle[0] <= curtime - pretime; end if (clkin_cycle[0] > 0) begin clkin_cycle[1] <= clkin_cycle[0]; clkin_cycle[2] <= clkin_cycle[1]; clkin_cycle[3] <= clkin_cycle[2]; clkin_cycle[4] <= clkin_cycle[3]; end if (clkin_cycle[0] > 0) begin if(((clkin_cycle[0] - clkin_period1 < 0.01) && (clkin_cycle[0] - clkin_period1 > -0.01)) &&(!div_dyn_change)) begin clk_effect <= 1'b1; clkin_period <= clkin_period1; end else begin clk_effect <= 1'b0; end end end end always @(clkin_cycle[0] or clkin_cycle[1] or clkin_cycle[2] or clkin_cycle[3] or clkin_cycle[4] or clkin_period1) begin if (clkin_cycle[0] != clkin_period1) begin clkin_period1 <= (clkin_cycle[0]+clkin_cycle[1]+clkin_cycle[2]+clkin_cycle[3]+clkin_cycle[4])/5; end end assign IDIV_dyn = 64 - IDSEL; assign FBDIV_dyn = 64 - FBDSEL; assign ODIV0_dyn = 128 - ODSEL0; assign ODIV1_dyn = 128 - ODSEL1; assign ODIV2_dyn = 128 - ODSEL2; assign ODIV3_dyn = 128 - ODSEL3; assign ODIV4_dyn = 128 - ODSEL4; assign ODIV5_dyn = 128 - ODSEL5; assign ODIV6_dyn = 128 - ODSEL6; assign MDIV_dyn = 128 - MDSEL; assign MDIV_f_dyn = 7 - MDSEL_FRAC; assign ODIV0_f_dyn = 7 - ODSEL0_FRAC; assign IDIV_SEL_reg = (DYN_IDIV_SEL == "TRUE") ? IDIV_dyn : IDIV_SEL; assign FBDIV_SEL_reg = (DYN_FBDIV_SEL == "TRUE") ? FBDIV_dyn : FBDIV_SEL; assign ODIV0_SEL_reg = (DYN_ODIV0_SEL == "TRUE") ? ODIV0_dyn : ODIV0_SEL; assign ODIV1_SEL_reg = (DYN_ODIV1_SEL == "TRUE") ? ODIV1_dyn : ODIV1_SEL; assign ODIV2_SEL_reg = (DYN_ODIV2_SEL == "TRUE") ? ODIV2_dyn : ODIV2_SEL; assign ODIV3_SEL_reg = (DYN_ODIV3_SEL == "TRUE") ? ODIV3_dyn : ODIV3_SEL; assign ODIV4_SEL_reg = (DYN_ODIV4_SEL == "TRUE") ? ODIV4_dyn : ODIV4_SEL; assign ODIV5_SEL_reg = (DYN_ODIV5_SEL == "TRUE") ? ODIV5_dyn : ODIV5_SEL; assign ODIV6_SEL_reg = (DYN_ODIV6_SEL == "TRUE") ? ODIV6_dyn : ODIV6_SEL; assign MDIV_SEL_reg = (DYN_MDIV_SEL == "TRUE") ? MDIV_dyn : MDIV_SEL; assign ODIV0_f_reg = (DYN_ODIV0_SEL == "TRUE") ? ODIV0_f_dyn : ODIV0_FRAC_SEL; assign MDIV_f_reg = (DYN_MDIV_SEL == "TRUE") ? MDIV_f_dyn : MDIV_FRAC_SEL; always @(posedge CLKIN) begin IDIV_dyn_reg <= IDIV_dyn; FBDIV_dyn_reg <= FBDIV_dyn; ODIV0_dyn_reg <= ODIV0_dyn; ODIV1_dyn_reg <= ODIV1_dyn; ODIV2_dyn_reg <= ODIV2_dyn; ODIV3_dyn_reg <= ODIV3_dyn; ODIV4_dyn_reg <= ODIV4_dyn; ODIV5_dyn_reg <= ODIV5_dyn; ODIV6_dyn_reg <= ODIV6_dyn; MDIV_dyn_reg <= MDIV_dyn; end assign div_dyn_change = (IDIV_dyn_reg != IDIV_dyn) || (FBDIV_dyn_reg != FBDIV_dyn) || (ODIV0_dyn_reg != ODIV0_dyn) || (ODIV1_dyn_reg != ODIV1_dyn) || (ODIV2_dyn_reg != ODIV2_dyn) || (ODIV3_dyn_reg != ODIV3_dyn) || (ODIV4_dyn_reg != ODIV4_dyn) || (ODIV5_dyn_reg != ODIV5_dyn) || (ODIV6_dyn_reg != ODIV6_dyn) || (MDIV_dyn_reg != MDIV_dyn); always @(clkin_period or IDIV_SEL_reg or FBDIV_SEL_reg or ODIV0_SEL_reg) begin real_fbdiv = (FBDIV_SEL_reg * unit_div); if (CLKFB_SEL == "INTERNAL") begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (MDIV_SEL_reg + MDIV_f_reg / 8.0); end else begin if (ODIV0_SEL_reg == 1) begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (ODIV0_SEL_reg); end else begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (ODIV0_SEL_reg + ODIV0_f_reg/8.0); end end end always @(*) begin if (CLK0_IN_SEL == 1'b0) begin if (ODIV0_SEL_reg == 1) begin clkout0_period = (vco_period * (ODIV0_SEL_reg)); end else begin clkout0_period = (vco_period * (ODIV0_SEL_reg + ODIV0_f_reg / 8.0)); end end else if (CLK0_IN_SEL == 1'b1) begin clkout0_period = (clkin_period * ODIV0_SEL_reg); end end always @(*) begin if (CLK1_IN_SEL == 1'b0) begin clkout1_period = (vco_period * ODIV1_SEL_reg); end else if (CLK1_IN_SEL == 1'b1) begin clkout1_period = (clkin_period * ODIV1_SEL_reg); end end always @(*) begin if (CLK2_IN_SEL == 1'b0) begin clkout2_period = (vco_period * ODIV2_SEL_reg); end else if (CLK2_IN_SEL == 1'b1) begin clkout2_period = (clkin_period * ODIV2_SEL_reg); end end always @(*) begin if (CLK3_IN_SEL == 1'b0) begin clkout3_period = (vco_period * ODIV3_SEL_reg); end else if (CLK3_IN_SEL == 1'b1) begin clkout3_period = (clkin_period * ODIV3_SEL_reg); end end always @(*) begin if (CLK4_IN_SEL == 2'b00) begin clkout4_period = (vco_period * ODIV4_SEL_reg); end else if (CLK4_IN_SEL == 2'b01) begin clkout4_period = (clkout6_period * ODIV4_SEL_reg); end else if (CLK4_IN_SEL == 2'b10) begin clkout4_period = (clkin_period * ODIV4_SEL_reg); end end always @(*) begin if (CLK5_IN_SEL == 1'b0) begin clkout5_period = (vco_period * ODIV5_SEL_reg); end else if (CLK5_IN_SEL == 1'b1) begin clkout5_period = (clkin_period * ODIV5_SEL_reg); end end always @(*) begin if (CLK6_IN_SEL == 1'b0) begin clkout6_period = (vco_period * ODIV6_SEL_reg); end else if (CLK6_IN_SEL == 1'b1) begin clkout6_period = (clkin_period * ODIV6_SEL_reg); end end always @(*) begin clkfbout_period = (vco_period * (MDIV_SEL_reg + MDIV_f_reg / 8.0)); end always@(clkout0_period or clkout1_period or clkout2_period or clkout3_period or clkout4_period or clkout5_period or clkout6_period or clkfbout_period) begin clkout0_half = (clkout0_period / 2.0); clkout1_half = (clkout1_period / 2.0); clkout2_half = (clkout2_period / 2.0); clkout3_half = (clkout3_period / 2.0); clkout4_half = (clkout4_period / 2.0); clkout5_half = (clkout5_period / 2.0); clkout6_half = (clkout6_period / 2.0); clkfbout_half = (clkfbout_period / 2.0); end realtime clk_tlock_cur; realtime max_tlock; integer cnt_lock; initial begin clk_tlock_cur = 0.0; max_tlock = 0.0; cnt_lock = 0; end // lock time assign rst = RESET | PLLPWD | reseti | reseto; always @(posedge CLKIN or posedge rst) begin if (rst == 1'b1) begin max_tlock <= 0.0; end else begin if ((clkin_cycle[0] >= 2) && (clkin_cycle[0] <= 40)) begin max_tlock <= 50000; end else if ((clkin_cycle[0] > 40) && (clkin_cycle[0] <= 500)) begin max_tlock <= 200000; end end end always @(posedge CLKIN or posedge rst) begin if (rst == 1'b1) begin lock_reg <= 1'b0; oclk_effect <= 1'b0; end else begin if (clk_effect == 1'b1) begin cnt_lock <= cnt_lock + 1; if (cnt_lock > ((max_tlock / clkin_period) - 10)) begin oclk_effect <= 1'b1; end else begin oclk_effect <= 1'b0; end if (cnt_lock > (max_tlock / clkin_period)) begin lock_reg <= 1'b1; end else begin lock_reg <= 1'b0; end end else begin oclk_effect <= 1'b0; cnt_lock <= 0; lock_reg <= 1'b0; end end end assign LOCK = (CLKFB_SEL == "EXTERNAL" && CLK0_IN_SEL == 1'b1) ? 1'b0 : lock_reg; // calculate CLKFB feedback delay always @(posedge CLKIN) begin if (clkin_init == 1'b1) begin clkin_curtime = $realtime; clkin_init = 1'b0; end end always @(posedge CLKFB) begin if (fb_clk_init == 1'b1) begin clkfb_curtime = $realtime; fb_clk_init = 1'b0; end end always @(CLKFB or CLKIN) begin if ((clkfb_curtime > 0) && (clkin_curtime > 0)) begin FB_dly0 = clkfb_curtime - clkin_curtime; if ((FB_dly0 >= 0) && (clkin_cycle[0] > 0)) begin multi_clkin = FB_dly0 / (clkin_cycle[0]); FB_dly = clkin_cycle[0] - (FB_dly0 - (clkin_cycle[0]) * multi_clkin); end end end always @(clk0_reg or clk1_reg or clk2_reg or clk3_reg or clk4_reg or clk5_reg or clk6_reg or clkfb_reg or oclk_effect) begin if (oclk_effect == 1'b0) begin clk0_reg = 1'b0; clk1_reg = 1'b0; clk2_reg = 1'b0; clk3_reg = 1'b0; clk4_reg = 1'b0; clk5_reg = 1'b0; clk6_reg = 1'b0; clkfb_reg = 1'b0; end else begin if (clkfb_init == 1'b1) begin clk0_reg <= 1'b1; clk1_reg <= 1'b1; clk2_reg <= 1'b1; clk3_reg <= 1'b1; clk4_reg <= 1'b1; clk5_reg <= 1'b1; clk6_reg <= 1'b1; clkfb_reg <= 1'b1; clkfb_init = 1'b0; end else begin clk0_reg <= #clkout0_half ~clk0_reg; clk1_reg <= #clkout1_half ~clk1_reg; clk2_reg <= #clkout2_half ~clk2_reg; clk3_reg <= #clkout3_half ~clk3_reg; clk4_reg <= #clkout4_half ~clk4_reg; clk5_reg <= #clkout5_half ~clk5_reg; clk6_reg <= #clkout6_half ~clk6_reg; clkfb_reg <= #clkfbout_half ~clkfb_reg; end end end always @(clk0_reg or clk1_reg or clk2_reg or clk3_reg or clk4_reg or clk5_reg or clk6_reg or clkfb_reg or FB_dly) begin if (CLKFB_SEL == "INTERNAL") begin clk0 <= clk0_reg; clk1 <= clk1_reg; clk2 <= clk2_reg; clk3 <= clk3_reg; clk4 <= clk4_reg; clk5 <= clk5_reg; clk6 <= clk6_reg; clkfb <= clkfb_reg; end else begin clk0 <= #(FB_dly) clk0_reg; clk1 <= #(FB_dly) clk1_reg; clk2 <= #(FB_dly) clk2_reg; clk3 <= #(FB_dly) clk3_reg; clk4 <= #(FB_dly) clk4_reg; clk5 <= #(FB_dly) clk5_reg; clk6 <= #(FB_dly) clk6_reg; clkfb <= #(FB_dly) clkfb_reg; end end //dynamic phase shift always @(*) begin if (PSSEL == 3'b000) begin pssel_0_flag <= 1'b1; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_0_flag <= 1'b0; end else if (PSSEL == 3'b001) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b1; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_1_flag <= 1'b0; end else if (PSSEL == 3'b010) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b1; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_2_flag <= 1'b0; end else if (PSSEL == 3'b011) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b1; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_3_flag <= 1'b0; end else if (PSSEL == 3'b100) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b1; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_4_flag <= 1'b0; end else if (PSSEL == 3'b101) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b1; pssel_6_flag <= 1'b0; #1; pssel_5_flag <= 1'b0; end else if (PSSEL == 3'b110) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b1; #1; pssel_6_flag <= 1'b0; end end always @(PSPULSE) begin ps_pulse_pre <= PSPULSE; end always @(*) begin if (resetn == 1'b0) begin fine_dyn_0 <= 0; fine_dyn_1 <= 0; fine_dyn_2 <= 0; fine_dyn_3 <= 0; fine_dyn_4 <= 0; fine_dyn_5 <= 0; fine_dyn_6 <= 0; coarse_dyn_0 <= 0; coarse_dyn_1 <= 0; coarse_dyn_2 <= 0; coarse_dyn_3 <= 0; coarse_dyn_4 <= 0; coarse_dyn_5 <= 0; coarse_dyn_6 <= 0; end else begin if (PSSEL == 3'b000) begin if (pssel_0_flag == 1'b1) begin fine_dyn_0 <= 0; coarse_dyn_0 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV0_SEL_reg == 1) begin coarse_dyn_0 <= 0; end else begin if (fine_dyn_0 == 7) begin coarse_dyn_0 <= coarse_dyn_0 + 1; if (coarse_dyn_0 == (ODIV0_SEL_reg - 1)) begin coarse_dyn_0 <= 0; end end end fine_dyn_0 <= fine_dyn_0 + 1; end else begin if (ODIV0_SEL_reg == 1) begin coarse_dyn_0 <= 0; end else begin if (fine_dyn_0 == 0) begin coarse_dyn_0 <= coarse_dyn_0 - 1; if (coarse_dyn_0 == 0) begin coarse_dyn_0 <= (ODIV0_SEL_reg - 1); end end end fine_dyn_0 <= fine_dyn_0 - 1; end end end end else if (PSSEL == 3'b001) begin if (pssel_1_flag == 1'b1) begin fine_dyn_1 <= 0; coarse_dyn_1 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV1_SEL_reg == 1) begin coarse_dyn_1 <= 0; end else begin if (fine_dyn_1 == 7) begin coarse_dyn_1 <= coarse_dyn_1 + 1; if (coarse_dyn_1 == (ODIV1_SEL_reg - 1)) begin coarse_dyn_1 <= 0; end end end fine_dyn_1 <= fine_dyn_1 + 1; end else begin if (ODIV1_SEL_reg == 1) begin coarse_dyn_1 <= 0; end else begin if (fine_dyn_1 == 0) begin coarse_dyn_1 <= coarse_dyn_1 - 1; if (coarse_dyn_1 == 0) begin coarse_dyn_1 <= (ODIV1_SEL_reg - 1); end end end fine_dyn_1 <= fine_dyn_1 - 1; end end end end else if (PSSEL == 3'b010) begin if (pssel_2_flag == 1'b1) begin fine_dyn_2 <= 0; coarse_dyn_2 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV2_SEL_reg == 1) begin coarse_dyn_2 <= 0; end else begin if (fine_dyn_2 == 7) begin coarse_dyn_2 <= coarse_dyn_2 + 1; if (coarse_dyn_2 == (ODIV2_SEL_reg - 1)) begin coarse_dyn_2 <= 0; end end end fine_dyn_2 <= fine_dyn_2 + 1; end else begin if (ODIV2_SEL_reg == 1) begin coarse_dyn_2 <= 0; end else begin if (fine_dyn_2 == 0) begin coarse_dyn_2 <= coarse_dyn_2 - 1; if (coarse_dyn_2 == 0) begin coarse_dyn_2 <= (ODIV2_SEL_reg - 1); end end end fine_dyn_2 <= fine_dyn_2 - 1; end end end end else if (PSSEL == 3'b011) begin if (pssel_3_flag == 1'b1) begin fine_dyn_3 <= 0; coarse_dyn_3 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV3_SEL_reg == 1) begin coarse_dyn_3 <= 0; end else begin if (fine_dyn_3 == 7) begin coarse_dyn_3 <= coarse_dyn_3 + 1; if (coarse_dyn_3 == (ODIV3_SEL_reg - 1)) begin coarse_dyn_3 <= 0; end end end fine_dyn_3 <= fine_dyn_3 + 1; end else begin if (ODIV3_SEL_reg == 1) begin coarse_dyn_3 <= 0; end else begin if (fine_dyn_3 == 0) begin coarse_dyn_3 <= coarse_dyn_3 - 1; if (coarse_dyn_3 == 0) begin coarse_dyn_3 <= (ODIV3_SEL_reg - 1); end end end fine_dyn_3 <= fine_dyn_3 - 1; end end end end else if (PSSEL == 3'b100) begin if (pssel_4_flag == 1'b1) begin fine_dyn_4 <= 0; coarse_dyn_4 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV4_SEL_reg == 1) begin coarse_dyn_4 <= 0; end else begin if (fine_dyn_4 == 7) begin coarse_dyn_4 <= coarse_dyn_4 + 1; if (coarse_dyn_4 == (ODIV4_SEL_reg - 1)) begin coarse_dyn_4 <= 0; end end end fine_dyn_4 <= fine_dyn_4 + 1; end else begin if (ODIV4_SEL_reg == 1) begin coarse_dyn_4 <= 0; end else begin if (fine_dyn_4 == 0) begin coarse_dyn_4 <= coarse_dyn_4 - 1; if (coarse_dyn_4 == 0) begin coarse_dyn_4 <= (ODIV4_SEL_reg - 1); end end end fine_dyn_4 <= fine_dyn_4 - 1; end end end end else if (PSSEL == 3'b101) begin if (pssel_5_flag == 1'b1) begin fine_dyn_5 <= 0; coarse_dyn_5 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV5_SEL_reg == 1) begin coarse_dyn_5 <= 0; end else begin if (fine_dyn_5 == 7) begin coarse_dyn_5 <= coarse_dyn_5 + 1; if (coarse_dyn_5 == (ODIV5_SEL_reg - 1)) begin coarse_dyn_5 <= 0; end end end fine_dyn_5 <= fine_dyn_5 + 1; end else begin if (ODIV5_SEL_reg == 1) begin coarse_dyn_5 <= 0; end else begin if (fine_dyn_5 == 0) begin coarse_dyn_5 <= coarse_dyn_5 - 1; if (coarse_dyn_5 == 0) begin coarse_dyn_5 <= (ODIV5_SEL_reg - 1); end end end fine_dyn_5 <= fine_dyn_5 - 1; end end end end else if (PSSEL == 3'b110) begin if (pssel_6_flag == 1'b1) begin fine_dyn_6 <= 0; coarse_dyn_6 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV6_SEL_reg == 1) begin coarse_dyn_6 <= 0; end else begin if (fine_dyn_6 == 7) begin coarse_dyn_6 <= coarse_dyn_6 + 1; if (coarse_dyn_6 == (ODIV6_SEL_reg - 1)) begin coarse_dyn_6 <= 0; end end end fine_dyn_6 <= fine_dyn_6 + 1; end else begin if (ODIV6_SEL_reg == 1) begin coarse_dyn_6 <= 0; end else begin if (fine_dyn_6 == 0) begin coarse_dyn_6 <= coarse_dyn_6 - 1; if (coarse_dyn_6 == 0) begin coarse_dyn_6 <= (ODIV6_SEL_reg - 1); end end end fine_dyn_6 <= fine_dyn_6 - 1; end end end end end end //clkfbout // always @(posedge clkfb) begin clkout_fb <= 1'b1; #clkfbout_half clkout_fb <= 1'b0; end always @(CLKIN or oclk_effect or clkout_fb or resetn or reseto) begin if (resetn == 1'b0) begin clkfb_out <= 1'b0; end else if (reseto == 1'b1) begin clkfb_out <= 1'b0; end else begin clkfb_out <= clkout_fb; end end assign CLKFBOUT = clkfb_out; // clkout0 // always @(*) begin if (DYN_PE0_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_0 = fine_dyn_0; coarse_0 = coarse_dyn_0; end else if (DYN_PE0_SEL == "FALSE") begin fine_0 = CLKOUT0_PE_FINE; coarse_0 = CLKOUT0_PE_COARSE; end end always @(coarse_0 or fine_0 or ODIV0_SEL_reg or ODIV0_f_reg or clkout0_period) begin real_phase0 = (coarse_0 + (unit_phase * fine_0 / 8)); if (ODIV0_SEL_reg == 1) begin phase_value0 = clkout0_period * (real_phase0 / ODIV0_SEL_reg); end else begin phase_value0 = clkout0_period * (real_phase0 / (ODIV0_SEL_reg + ODIV0_f_reg / 8.0)); end end //duty_cycle integer h_level_0; realtime clkout0_duty_odd; always @(*) begin h_level_0 = ODIV0_SEL_reg / 2; clkout0_duty_odd = (clkout0_period * h_level_0 / ODIV0_SEL_reg); end always @(clkout0_half or real_duty0 or real_phase0 or ODIV0_SEL_reg or clkout0_period or clkout0_duty_odd) begin real_duty0 = (CLKOUT0_PE_COARSE + (unit_duty * CLKOUT0_PE_FINE / 8)); if (CLK0_IN_SEL == 1'b1) begin if (ODIV0_SEL_reg == 1) begin clkout0_duty = clkout0_half; end else begin clkout0_duty = clkout0_duty_odd; end end else if ((DYN_PE0_SEL == "FALSE") || (DE0_EN == "FALSE")) begin clkout0_duty = clkout0_half; end else if ((DYN_DPA_EN == "TRUE") && (DE0_EN == "TRUE")) begin if (ODIV0_SEL_reg == 1) begin clkout0_duty = clkout0_half; end else begin if (real_duty0 > real_phase0) begin clkout0_duty = (clkout0_period * (real_duty0 - real_phase0))/(ODIV0_SEL_reg + ODIV0_f_reg/8.0); end else if (real_duty0 < real_phase0) begin clkout0_duty = (clkout0_period *((ODIV0_SEL_reg + ODIV0_f_reg/8.0) + (real_duty0 - real_phase0)))/(ODIV0_SEL_reg + ODIV0_f_reg/8.0); end end end end always @(posedge clk0) begin clkout_0 <= 1'b1; #tclk0_duty clkout_0 <= 1'b0; end always @(clkout_0, clk0_dt_dir) begin if (clk0_dt_dir == 1'b1) begin clkout_dt_0 <= clkout_0; end else begin clkout_dt_0 <= #(clk0_dt_delay) clkout_0; end end always @(clkout_dt_0) begin clkout0_ps <= #(phase_value0) clkout_dt_0; end wire rst_p; assign rst_p = RESET | PLLPWD; always @(CLKIN or oclk_effect or clkout0_ps or rst_p or reseti or reseto) begin if (rst_p == 1'b1) begin clk0_out <= 1'b0; end else if (reseti == 1'b1 && CLK0_IN_SEL == 1'b0) begin clk0_out <= 1'b0; end else if (reseto == 1'b1) begin clk0_out <= 1'b0; end else if (CLK0_OUT_SEL == 1'b0) begin clk0_out <= clkout0_ps; end end assign CLKOUT0 = (CLK0_OUT_SEL == 1'b1) ? CLKIN : ((cken0 == 1'b1) ? clk0_out : 1'b0); assign clk0_dt_dir = (DYN_DT0_SEL == "FALSE") ? CLKOUT0_DT_DIR : DT0[3]; assign clk1_dt_dir = (DYN_DT1_SEL == "FALSE") ? CLKOUT1_DT_DIR : DT1[3]; assign clk2_dt_dir = (DYN_DT2_SEL == "FALSE") ? CLKOUT2_DT_DIR : DT2[3]; assign clk3_dt_dir = (DYN_DT3_SEL == "FALSE") ? CLKOUT3_DT_DIR : DT3[3]; assign clk0_dt_step = (DYN_DT0_SEL == "FALSE") ? CLKOUT0_DT_STEP : (7 - DT0[2:0]); assign clk1_dt_step = (DYN_DT1_SEL == "FALSE") ? CLKOUT1_DT_STEP : (7 - DT1[2:0]); assign clk2_dt_step = (DYN_DT2_SEL == "FALSE") ? CLKOUT2_DT_STEP : (7 - DT2[2:0]); assign clk3_dt_step = (DYN_DT3_SEL == "FALSE") ? CLKOUT3_DT_STEP : (7 - DT3[2:0]); always @(*) begin clk0_dt_delay <= (0.05 * clk0_dt_step); clk1_dt_delay <= (0.05 * clk1_dt_step); clk2_dt_delay <= (0.05 * clk2_dt_step); clk3_dt_delay <= (0.05 * clk3_dt_step); end always @(clkout0_duty or clkout1_duty or clkout2_duty or clkout3_duty or clk0_dt_dir or clk1_dt_dir or clk2_dt_dir or clk3_dt_dir or clk0_dt_delay or clk1_dt_delay or clk2_dt_delay or clk3_dt_delay) begin if (clk0_dt_dir == 1'b1) begin tclk0_duty <= clkout0_duty + clk0_dt_delay; end else begin tclk0_duty <= clkout0_duty - clk0_dt_delay; end if (clk1_dt_dir == 1'b1) begin tclk1_duty <= clkout1_duty + clk1_dt_delay; end else begin tclk1_duty <= clkout1_duty - clk1_dt_delay; end if (clk2_dt_dir == 1'b1) begin tclk2_duty <= clkout2_duty + clk2_dt_delay; end else begin tclk2_duty <= clkout2_duty - clk2_dt_delay; end if (clk3_dt_dir == 1'b1) begin tclk3_duty <= clkout3_duty + clk3_dt_delay; end else begin tclk3_duty <= clkout3_duty - clk3_dt_delay; end end //enclk wire enclk_0, enclk_1, enclk_2, enclk_3, enclk_4, enclk_5, enclk_6; assign enclk_0 = ((CLKOUT0_EN == "TRUE") && (ENCLK0 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_1 = ((CLKOUT1_EN == "TRUE") && (ENCLK1 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_2 = ((CLKOUT2_EN == "TRUE") && (ENCLK2 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_3 = ((CLKOUT3_EN == "TRUE") && (ENCLK3 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_4 = ((CLKOUT4_EN == "TRUE") && (ENCLK4 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_5 = ((CLKOUT5_EN == "TRUE") && (ENCLK5 == 1'b1)) ? 1'b1 : 1'b0; assign enclk_6 = ((CLKOUT6_EN == "TRUE") && (ENCLK6 == 1'b1)) ? 1'b1 : 1'b0; wire rsto; assign rsto = RESET | PLLPWD | reseto; always @(negedge clk0_out or posedge rsto) begin if (rsto == 1'b1) begin cken0 <= 1'b0; end else begin cken0 <= enclk_0; end end always @(negedge clk1_out or posedge rsto) begin if (rsto == 1'b1) begin cken1 <= 1'b0; end else begin cken1 <= enclk_1; end end always @(negedge clk2_out or posedge rsto) begin if (rsto == 1'b1) begin cken2 <= 1'b0; end else begin cken2 <= enclk_2; end end always @(negedge clk3_out or posedge rsto) begin if (rsto == 1'b1) begin cken3 <= 1'b0; end else begin cken3 <= enclk_3; end end always @(negedge clk4_out or posedge rsto) begin if (rsto == 1'b1) begin cken4 <= 1'b0; end else begin cken4 <= enclk_4; end end always @(negedge clk5_out or posedge rsto) begin if (rsto == 1'b1) begin cken5 <= 1'b0; end else begin cken5 <= enclk_5; end end always @(negedge clk6_out or posedge rsto) begin if (rsto == 1'b1) begin cken6 <= 1'b0; end else begin cken6 <= enclk_6; end end // clkout1 // always @(*) begin if (DYN_PE1_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_1 = fine_dyn_1; coarse_1 = coarse_dyn_1; end else if (DYN_PE1_SEL == "FALSE") begin fine_1 = CLKOUT1_PE_FINE; coarse_1 = CLKOUT1_PE_COARSE; end end always @(coarse_1 or fine_1 or ODIV1_SEL_reg or clkout1_period) begin real_phase1 = (coarse_1 + (unit_phase * fine_1 / 8)); phase_value1 = clkout1_period * (real_phase1 / ODIV1_SEL_reg); end //duty_cycle integer h_level_1; realtime clkout1_duty_odd; always @(*) begin h_level_1 = ODIV1_SEL_reg / 2; clkout1_duty_odd = (clkout1_period * h_level_1 / ODIV1_SEL_reg); end always @(clkout1_half or real_duty1 or real_phase1 or ODIV1_SEL_reg or clkout1_period or clkout1_duty_odd) begin real_duty1 = (CLKOUT1_PE_COARSE + (unit_duty * CLKOUT1_PE_FINE / 8)); if (CLK1_IN_SEL == 1'b1) begin if (ODIV1_SEL_reg == 1) begin clkout1_duty = clkout1_half; end else begin clkout1_duty = clkout1_duty_odd; end end else if ((DYN_PE1_SEL == "FALSE") || (DE1_EN == "FALSE")) begin clkout1_duty = clkout1_half; end else if ((DYN_DPA_EN == "TRUE") && (DE1_EN == "TRUE")) begin if (ODIV1_SEL_reg == 1) begin clkout1_duty = clkout1_half; end else begin if (real_duty1 > real_phase1) begin clkout1_duty = (clkout1_period * (real_duty1 - real_phase1)) / (ODIV1_SEL_reg); end else if (real_duty1 < real_phase1) begin clkout1_duty = (clkout1_period *((ODIV1_SEL_reg) + (real_duty1 - real_phase1)))/(ODIV1_SEL_reg); end end end end always @(posedge clk1) begin clkout_1 <= 1'b1; #tclk1_duty clkout_1 <= 1'b0; end always @(clkout_1, clk1_dt_dir) begin if (clk1_dt_dir == 1'b1) begin clkout_dt_1 <= clkout_1; end else begin clkout_dt_1 <= #(clk1_dt_delay) clkout_1; end end always @(clkout_dt_1) begin clkout1_ps <= #(phase_value1) clkout_dt_1; end always @(CLKIN or oclk_effect or clkout1_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk1_out <= 1'b0; end else if (reseti == 1'b1 && CLK1_IN_SEL == 1'b0) begin clk1_out <= 1'b0; end else if (reseto == 1'b1) begin clk1_out <= 1'b0; end else if (CLK1_OUT_SEL == 1'b0) begin clk1_out <= clkout1_ps; end end assign CLKOUT1 = (CLK1_OUT_SEL == 1'b1) ? CLKIN : ((cken1 == 1'b1) ? clk1_out : 1'b0); // clkout2 // always @(*) begin if (DYN_PE2_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_2 = fine_dyn_2; coarse_2 = coarse_dyn_2; end else if (DYN_PE2_SEL == "FALSE") begin fine_2 = CLKOUT2_PE_FINE; coarse_2 = CLKOUT2_PE_COARSE; end end always @(coarse_2 or fine_2 or ODIV2_SEL_reg or clkout2_period) begin real_phase2 = (coarse_2 + (unit_phase * fine_2 / 8)); phase_value2 = clkout2_period * (real_phase2 / ODIV2_SEL_reg); end //duty_cycle integer h_level_2; realtime clkout2_duty_odd; always @(*) begin h_level_2 = ODIV2_SEL_reg / 2; clkout2_duty_odd = (clkout2_period * h_level_2 / ODIV2_SEL_reg); end always @(clkout2_half or real_duty2 or real_phase2 or ODIV2_SEL_reg or clkout2_period or clkout2_duty_odd) begin real_duty2 = (CLKOUT2_PE_COARSE + (unit_duty * CLKOUT2_PE_FINE / 8)); if (CLK2_IN_SEL == 1'b1) begin if (ODIV2_SEL_reg == 1) begin clkout2_duty = clkout2_half; end else begin clkout2_duty = clkout2_duty_odd; end end else if ((DYN_PE2_SEL == "FALSE") || (DE2_EN == "FALSE")) begin clkout2_duty = clkout2_half; end else if ((DYN_DPA_EN == "TRUE") && (DE2_EN == "TRUE")) begin if (ODIV2_SEL_reg == 1) begin clkout2_duty = clkout2_half; end else begin if (real_duty2 > real_phase2) begin clkout2_duty = (clkout2_period * (real_duty2 - real_phase2)) / (ODIV2_SEL_reg); end else if (real_duty2 < real_phase2) begin clkout2_duty = (clkout2_period *((ODIV2_SEL_reg) + (real_duty2 - real_phase2)))/(ODIV2_SEL_reg); end end end end always @(posedge clk2) begin clkout_2 <= 1'b1; #tclk2_duty clkout_2 <= 1'b0; end always @(clkout_2, clk2_dt_dir) begin if (clk2_dt_dir == 1'b1) begin clkout_dt_2 <= clkout_2; end else begin clkout_dt_2 <= #(clk2_dt_delay) clkout_2; end end always @(clkout_dt_2) begin clkout2_ps <= #(phase_value2) clkout_dt_2; end always @(CLKIN or oclk_effect or clkout2_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk2_out <= 1'b0; end else if (reseti == 1'b1 && CLK2_IN_SEL == 1'b0) begin clk2_out <= 1'b0; end else if (reseto == 1'b1) begin clk2_out <= 1'b0; end else if (CLK2_OUT_SEL == 1'b0) begin clk2_out <= clkout2_ps; end end assign CLKOUT2 = (CLK2_OUT_SEL == 1'b1) ? CLKIN : ((cken2 == 1'b1) ? clk2_out : 1'b0); // clkout3 // always @(*) begin if (DYN_PE3_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_3 = fine_dyn_3; coarse_3 = coarse_dyn_3; end else if (DYN_PE3_SEL == "FALSE") begin fine_3 = CLKOUT3_PE_FINE; coarse_3 = CLKOUT3_PE_COARSE; end end always @(coarse_3 or fine_3 or ODIV3_SEL_reg or clkout3_period) begin real_phase3 = (coarse_3 + (unit_phase * fine_3 / 8)); phase_value3 = clkout3_period * (real_phase3 / ODIV3_SEL_reg); end //duty_cycle integer h_level_3; realtime clkout3_duty_odd; always @(*) begin h_level_3 = ODIV3_SEL_reg / 2; clkout3_duty_odd = (clkout3_period * h_level_3 / ODIV3_SEL_reg); end always @(clkout3_half or real_duty3 or real_phase3 or ODIV3_SEL_reg or clkout3_period or clkout3_duty_odd) begin real_duty3 = (CLKOUT3_PE_COARSE + (unit_duty * CLKOUT3_PE_FINE / 8)); if (CLK3_IN_SEL == 1'b1) begin if (ODIV3_SEL_reg == 1) begin clkout3_duty = clkout3_half; end else begin clkout3_duty = clkout3_duty_odd; end end else if ((DYN_PE3_SEL == "FALSE") || (DE3_EN == "FALSE")) begin clkout3_duty = clkout3_half; end else if ((DYN_DPA_EN == "TRUE") && (DE3_EN == "TRUE")) begin if (ODIV3_SEL_reg == 1) begin clkout3_duty = clkout3_half; end else begin if (real_duty3 > real_phase3) begin clkout3_duty = (clkout3_period * (real_duty3 - real_phase3)) / (ODIV3_SEL_reg); end else if (real_duty3 < real_phase3) begin clkout3_duty = (clkout3_period *((ODIV3_SEL_reg) + (real_duty3 - real_phase3)))/(ODIV3_SEL_reg); end end end end always @(posedge clk3) begin clkout_3 <= 1'b1; #tclk3_duty clkout_3 <= 1'b0; end always @(clkout_3, clk3_dt_dir) begin if (clk3_dt_dir == 1'b1) begin clkout_dt_3 <= clkout_3; end else begin clkout_dt_3 <= #(clk3_dt_delay) clkout_3; end end always @(clkout_dt_3) begin clkout3_ps <= #(phase_value3) clkout_dt_3; end always @(CLKIN or oclk_effect or clkout3_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk3_out <= 1'b0; end else if (reseti == 1'b1 && CLK3_IN_SEL == 1'b0) begin clk3_out <= 1'b0; end else if (reseto == 1'b1) begin clk3_out <= 1'b0; end else if (CLK3_OUT_SEL == 1'b0) begin clk3_out <= clkout3_ps; end end assign CLKOUT3 = (CLK3_OUT_SEL == 1'b1) ? CLKIN : ((cken3 == 1'b1) ? clk3_out : 1'b0); // clkout4 // always @(*) begin if (DYN_PE4_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_4 = fine_dyn_4; coarse_4 = coarse_dyn_4; end else if (DYN_PE4_SEL == "FALSE") begin fine_4 = CLKOUT4_PE_FINE; coarse_4 = CLKOUT4_PE_COARSE; end end always @(coarse_4 or fine_4 or ODIV4_SEL_reg or clkout4_period) begin real_phase4 = (coarse_4 + (unit_phase * fine_4 / 8)); phase_value4 = clkout4_period * (real_phase4 / ODIV4_SEL_reg); end //duty_cycle integer h_level_4; realtime clkout4_duty_odd; always @(*) begin h_level_4 = ODIV4_SEL_reg / 2; clkout4_duty_odd = (clkout4_period * h_level_4 / ODIV4_SEL_reg); end always @(clkout4_half or real_duty4 or real_phase4 or ODIV4_SEL_reg or clkout4_period or clkout4_duty_odd) begin real_duty4 = (CLKOUT4_PE_COARSE + (unit_duty * CLKOUT4_PE_FINE / 8)); if (CLK4_IN_SEL == 2'b10 || CLK4_IN_SEL == 2'b01) begin if (ODIV4_SEL_reg == 1) begin clkout4_duty = clkout4_half; end else begin clkout4_duty = clkout4_duty_odd; end end else if (DYN_PE4_SEL == "FALSE" || DE4_EN == "FALSE") begin clkout4_duty = clkout4_half; end else if (DYN_DPA_EN == "TRUE" && DE4_EN == "TRUE") begin if (ODIV4_SEL_reg == 1) begin clkout4_duty = clkout4_half; end else begin if (real_duty4 > real_phase4) begin clkout4_duty = (clkout4_period * (real_duty4 - real_phase4)) / ODIV4_SEL_reg; end else if (real_duty4 < real_phase4) begin clkout4_duty = (clkout4_period *(ODIV4_SEL_reg + (real_duty4 - real_phase4)))/ODIV4_SEL_reg; end end end end always @(posedge clk4) begin clkout_4 <= 1'b1; #clkout4_duty clkout_4 <= 1'b0; end always @(clkout_4) begin clkout4_ps <= #(phase_value4) clkout_4; end always @(CLKIN or oclk_effect or clkout4_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk4_out <= 1'b0; end else if (reseti == 1'b1 && CLK4_IN_SEL == 2'b00) begin clk4_out <= 1'b0; end else if (reseto == 1'b1) begin clk4_out <= 1'b0; end else if (CLK4_OUT_SEL == 1'b0) begin clk4_out <= clkout4_ps; end end assign CLKOUT4 = (CLK4_OUT_SEL == 1'b1) ? CLKIN : ((cken4 == 1'b1) ? clk4_out : 1'b0); // clkout5 // always @(*) begin if (DYN_PE5_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_5 = fine_dyn_5; coarse_5 = coarse_dyn_5; end else if (DYN_PE5_SEL == "FALSE") begin fine_5 = CLKOUT5_PE_FINE; coarse_5 = CLKOUT5_PE_COARSE; end end always @(coarse_5 or fine_5 or ODIV5_SEL_reg or clkout5_period) begin real_phase5 = (coarse_5 + (unit_phase * fine_5 / 8)); phase_value5 = clkout5_period * (real_phase5 / ODIV5_SEL_reg); end //duty_cycle integer h_level_5; realtime clkout5_duty_odd; always @(*) begin h_level_5 = ODIV5_SEL_reg / 2; clkout5_duty_odd = (clkout5_period * h_level_5 / ODIV5_SEL_reg); end always @(clkout5_half or real_duty5 or real_phase5 or ODIV5_SEL_reg or clkout5_period or clkout5_duty_odd) begin real_duty5 = (CLKOUT5_PE_COARSE + (unit_duty * CLKOUT5_PE_FINE / 8)); if (CLK5_IN_SEL == 1'b1) begin if (ODIV5_SEL_reg == 1) begin clkout5_duty = clkout5_half; end else begin clkout5_duty = clkout5_duty_odd; end end else if (DYN_PE5_SEL == "FALSE" || DE5_EN == "FALSE") begin clkout5_duty = clkout5_half; end else if (DYN_DPA_EN == "TRUE" && DE5_EN == "TRUE") begin if (ODIV5_SEL_reg == 1) begin clkout5_duty = clkout5_half; end else begin if (real_duty5 > real_phase5) begin clkout5_duty = (clkout5_period * (real_duty5 - real_phase5)) / ODIV5_SEL_reg; end else if (real_duty5 < real_phase5) begin clkout5_duty = (clkout5_period *(ODIV5_SEL_reg + (real_duty5 - real_phase5)))/ODIV5_SEL_reg; end end end end always @(posedge clk5) begin clkout_5 <= 1'b1; #clkout5_duty clkout_5 <= 1'b0; end always @(clkout_5) begin clkout5_ps <= #(phase_value5) clkout_5; end always @(CLKIN or oclk_effect or clkout5_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk5_out <= 1'b0; end else if (reseti == 1'b1 && CLK5_IN_SEL == 1'b0) begin clk5_out <= 1'b0; end else if (reseto == 1'b1) begin clk5_out <= 1'b0; end else if (CLK5_OUT_SEL == 1'b0) begin clk5_out <= clkout5_ps; end end assign CLKOUT5 = (CLK5_OUT_SEL == 1'b1) ? CLKIN : ((cken5 == 1'b1) ? clk5_out : 1'b0); // clkout6 // always @(*) begin if (DYN_PE6_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_6 = fine_dyn_6; coarse_6 = coarse_dyn_6; end else if (DYN_PE6_SEL == "FALSE") begin fine_6 = CLKOUT6_PE_FINE; coarse_6 = CLKOUT6_PE_COARSE; end end always @(coarse_6 or fine_6 or ODIV6_SEL_reg or clkout6_period) begin real_phase6 = (coarse_6 + (unit_phase * fine_6 / 8)); phase_value6 = clkout6_period * (real_phase6 / ODIV6_SEL_reg); end //duty_cycle integer h_level_6; realtime clkout6_duty_odd; always @(*) begin h_level_6 = ODIV6_SEL_reg / 2; clkout6_duty_odd = (clkout6_period * h_level_6 / ODIV6_SEL_reg); end always @(clkout6_half or real_duty6 or real_phase6 or ODIV6_SEL_reg or clkout6_period or clkout6_duty_odd) begin real_duty6 = (CLKOUT6_PE_COARSE + (unit_duty * CLKOUT6_PE_FINE / 8)); if (CLK6_IN_SEL == 1'b1) begin if (ODIV6_SEL_reg == 1) begin clkout6_duty = clkout6_half; end else begin clkout6_duty = clkout6_duty_odd; end end else if (DYN_PE6_SEL == "FALSE" || DE6_EN == "FALSE") begin clkout6_duty = clkout6_half; end else if (DYN_DPA_EN == "TRUE" && DE6_EN == "TRUE") begin if (ODIV6_SEL_reg == 1) begin clkout6_duty = clkout6_half; end else begin if (real_duty6 > real_phase6) begin clkout6_duty = (clkout6_period * (real_duty6 - real_phase6)) / ODIV6_SEL_reg; end else if (real_duty6 < real_phase6) begin clkout6_duty = (clkout6_period *(ODIV6_SEL_reg + (real_duty6 - real_phase6)))/ODIV6_SEL_reg; end end end end always @(posedge clk6) begin clkout_6 <= 1'b1; #clkout6_duty clkout_6 <= 1'b0; end always @(clkout_6) begin clkout6_ps <= #(phase_value6) clkout_6; end always @(CLKIN or oclk_effect or clkout6_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk6_out <= 1'b0; end else if (reseti == 1'b1 && CLK6_IN_SEL == 1'b0) begin clk6_out <= 1'b0; end else if (reseto == 1'b1) begin clk6_out <= 1'b0; end else if (CLK6_OUT_SEL == 1'b0) begin clk6_out <= clkout6_ps; end end assign CLKOUT6 = (CLK6_OUT_SEL == 1'b1) ? CLKIN : ((cken6 == 1'b1) ? clk6_out : 1'b0); endmodule // module PLLA ( CLKOUT0, CLKOUT1, CLKOUT2, CLKOUT3, CLKOUT4, CLKOUT5, CLKOUT6, CLKFBOUT, MDRDO, LOCK, CLKIN, CLKFB, PSSEL, PSDIR, PSPULSE, SSCPOL, SSCON, SSCMDSEL, SSCMDSEL_FRAC, MDWDI, MDCLK, MDOPC, MDAINC, RESET, PLLPWD, RESET_I, RESET_O ); input CLKIN; input CLKFB; input RESET; input PLLPWD; input RESET_I; input RESET_O; input [2:0] PSSEL; input PSDIR; input PSPULSE; input SSCPOL; input SSCON; input [6:0] SSCMDSEL; input [2:0] SSCMDSEL_FRAC; //mini DRP port input MDCLK; input [1:0] MDOPC; input MDAINC; input [7:0] MDWDI; output [7:0] MDRDO; output LOCK; output CLKOUT0; output CLKOUT1; output CLKOUT2; output CLKOUT3; output CLKOUT4; output CLKOUT5; output CLKOUT6; output CLKFBOUT; parameter FCLKIN = "100.0"; // frequency of the CLKIN(M) parameter IDIV_SEL = 1; // 1~64 parameter FBDIV_SEL = 1; // 1~64 parameter ODIV0_SEL = 8; // 1~128 parameter ODIV1_SEL = 8; // 1~128 parameter ODIV2_SEL = 8; // 1~128 parameter ODIV3_SEL = 8; // 1~128 parameter ODIV4_SEL = 8; // 1~128 parameter ODIV5_SEL = 8; // 1~128 parameter ODIV6_SEL = 8; // 1~128 parameter MDIV_SEL = 8; // 2~128 parameter MDIV_FRAC_SEL = 0; // 0~7 parameter ODIV0_FRAC_SEL = 0; // 0~7 parameter CLKOUT0_EN = "TRUE"; //"TRUE","FALSE" parameter CLKOUT1_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT2_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT3_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT4_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT5_EN = "FALSE"; //"TRUE","FALSE" parameter CLKOUT6_EN = "FALSE"; //"TRUE","FALSE" parameter CLKFB_SEL = "INTERNAL"; // "INTERNAL", "EXTERNAL"; parameter CLKOUT0_DT_DIR = 1'b1; // CLKOUT0 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT1_DT_DIR = 1'b1; // CLKOUT1 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT2_DT_DIR = 1'b1; // CLKOUT2 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT3_DT_DIR = 1'b1; // CLKOUT3 dutycycle adjust direction. 1'b1: + ; 1'b0: - parameter CLKOUT0_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT1_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT2_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLKOUT3_DT_STEP = 0; // 0,1,2,4; 50ps/step parameter CLK0_IN_SEL = 1'b0; //ODIV0 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK0_OUT_SEL = 1'b0; //CLKOUT0 output select. 1'b0:DIV0 output; 1'b1:CLKIN parameter CLK1_IN_SEL = 1'b0; //ODIV1 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK1_OUT_SEL = 1'b0; //CLKOUT1 output select. 1'b0:DIV1 output; 1'b1:CLKIN parameter CLK2_IN_SEL = 1'b0; //ODIV2 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK2_OUT_SEL = 1'b0; //CLKOUT2 output select. 1'b0:DIV2 output; 1'b1:CLKIN parameter CLK3_IN_SEL = 1'b0; //ODIV3 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK3_OUT_SEL = 1'b0; //CLKOUT3 output select. 1'b0:DIV3 output; 1'b1:CLKIN parameter CLK4_IN_SEL = 2'b00;//ODIV4 input source select.2'b00:from VCO;2'b10:from CLKIN;2'b01:from CASCADE parameter CLK4_OUT_SEL = 1'b0; //CLKOUT4 output select. 1'b0:DIV4 output; 1'b1:CLKIN parameter CLK5_IN_SEL = 1'b0; //ODIV5 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK5_OUT_SEL = 1'b0; //CLKOUT5 output select. 1'b0:DIV5 output; 1'b1:CLKIN parameter CLK6_IN_SEL = 1'b0; //ODIV6 input source select. 1'b0:from VCO;1'b1:from CLKIN parameter CLK6_OUT_SEL = 1'b0; //CLKOUT6 output select. 1'b0:DIV6 output; 1'b1:CLKIN parameter DYN_DPA_EN = "FALSE"; //dynamic phaseshift adjustment Enable."TRUE","FALSE" parameter CLKOUT0_PE_COARSE = 0; //0~127 parameter CLKOUT0_PE_FINE = 0; //0~7 parameter CLKOUT1_PE_COARSE = 0; //0~127 parameter CLKOUT1_PE_FINE = 0; //0~7 parameter CLKOUT2_PE_COARSE = 0; //0~127 parameter CLKOUT2_PE_FINE = 0; //0~7 parameter CLKOUT3_PE_COARSE = 0; //0~127 parameter CLKOUT3_PE_FINE = 0; //0~7 parameter CLKOUT4_PE_COARSE = 0; //0~127 parameter CLKOUT4_PE_FINE = 0; //0~7 parameter CLKOUT5_PE_COARSE = 0; //0~127 parameter CLKOUT5_PE_FINE = 0; //0~7 parameter CLKOUT6_PE_COARSE = 0; //0~127 parameter CLKOUT6_PE_FINE = 0; //0~7 parameter DYN_PE0_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV0 phase shift. "FALSE":select CLKOUT0_PE_COARSE & CLKOUT0_PE_FINE as the static control signal for ODIV0 phase shift parameter DYN_PE1_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV1 phase shift. "FALSE":select CLKOUT1_PE_COARSE & CLKOUT1_PE_FINE as the static control signal for ODIV1 phase shift parameter DYN_PE2_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV2 phase shift. "FALSE":select CLKOUT2_PE_COARSE & CLKOUT2_PE_FINE as the static control signal for ODIV2 phase shift parameter DYN_PE3_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV3 phase shift. "FALSE":select CLKOUT3_PE_COARSE & CLKOUT3_PE_FINE as the static control signal for ODIV3 phase shift parameter DYN_PE4_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV4 phase shift. "FALSE":select CLKOUT4_PE_COARSE & CLKOUT4_PE_FINE as the static control signal for ODIV4 phase shift parameter DYN_PE5_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV5 phase shift. "FALSE":select CLKOUT5_PE_COARSE & CLKOUT5_PE_FINE as the static control signal for ODIV5 phase shift parameter DYN_PE6_SEL = "FALSE";//"TRUE": select dpa port as the dynamic control signal for ODIV6 phase shift. "FALSE":select CLKOUT6_PE_COARSE & CLKOUT6_PE_FINE as the static control signal for ODIV6 phase shift parameter DE0_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv0=2~128; "TRUE":select CLKOUT0_PE_COARSE & CLKOUT0_PE_FINE as duty edge when DYN_PE0_SEL="TRUE" for case ODIV0=2~128 parameter DE1_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv1=2~128; "TRUE":select CLKOUT1_PE_COARSE & CLKOUT1_PE_FINE as duty edge when DYN_PE1_SEL="TRUE" for case ODIV1=2~128 parameter DE2_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv2=2~128; "TRUE":select CLKOUT2_PE_COARSE & CLKOUT2_PE_FINE as duty edge when DYN_PE2_SEL="TRUE" for case ODIV2=2~128 parameter DE3_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv3=2~128; "TRUE":select CLKOUT3_PE_COARSE & CLKOUT3_PE_FINE as duty edge when DYN_PE3_SEL="TRUE" for case ODIV3=2~128 parameter DE4_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv4=2~128; "TRUE":select CLKOUT4_PE_COARSE & CLKOUT4_PE_FINE as duty edge when DYN_PE4_SEL="TRUE" for case ODIV4=2~128 parameter DE5_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv5=2~128; "TRUE":select CLKOUT5_PE_COARSE & CLKOUT5_PE_FINE as duty edge when DYN_PE5_SEL="TRUE" for case ODIV5=2~128 parameter DE6_EN = "FALSE";//"FALSE":fixed 50% duty cycle for case odiv6=2~128; "TRUE":select CLKOUT6_PE_COARSE & CLKOUT6_PE_FINE as duty edge when DYN_PE6_SEL="TRUE" for case ODIV6=2~128 parameter RESET_I_EN = "FALSE";//"TRUE","FALSE". Enable RESET_I through the dedicated signal from ciu. parameter RESET_O_EN = "FALSE";//"TRUE","FALSE". Enable RESET_S through the dedicated signal from ciu. parameter ICP_SEL = 6'bXXXXXX;//X means that software will automatically calculate and set this parameter.If the user wants to set it, use 6'b000000~6'b111111 parameter LPF_RES = 3'bXXX;//X means that software will automatically calculate and set this parameter.If the user wants to set it, use 3'b000(R0)/3'b001(R1)/3'b010(R2)/3'b011(R3)/3'b100(R4)/3'b101(R5)/3'b110(R6)/3'b111(R7) parameter LPF_CAP = 2'b00; // 2'b00,C0 ;2'b01,C1; 2'b10,C2 parameter SSC_EN = "FALSE"; //"FALSE","TRUE".ssc mode enable wire resetn; wire [6:0] IDIV_SEL_reg, FBDIV_SEL_reg; wire [7:0] ODIV0_SEL_reg,ODIV1_SEL_reg,ODIV2_SEL_reg,ODIV3_SEL_reg,ODIV4_SEL_reg,ODIV5_SEL_reg,ODIV6_SEL_reg,MDIV_SEL_reg; wire [2:0] ODIV0_f_reg, MDIV_f_reg; reg clk_effect, oclk_effect; realtime curtime, pretime, fb_delay; realtime clkin_cycle[4:0]; realtime clkin_period, clkin_period1, vco_period, clkout0_period, clkout1_period, clkout2_period, clkout3_period, clkout4_period, clkout5_period, clkout6_period, clkfbout_period; realtime clkout0_half, clkout1_half, clkout2_half, clkout3_half, clkout4_half, clkout5_half, clkout6_half, clkfbout_half; real real_phase0, real_duty0, real_phase1, real_duty1, real_phase2, real_duty2, real_phase3, real_duty3, real_phase4, real_duty4, real_phase5, real_duty5, real_phase6, real_duty6; realtime phase_value0, clkout0_duty, clkout1_duty, tclk0_duty, tclk1_duty; realtime phase_value1, phase_value2, phase_value3, clkout2_duty, clkout3_duty; realtime phase_value4, phase_value5, phase_value6, clkout4_duty, clkout5_duty, clkout6_duty, tclk2_duty, tclk3_duty; realtime clkfb_curtime, clkin_curtime, FB_dly, FB_dly0; reg clkin_init, fb_clk_init; reg clk0_reg, clk1_reg, clk2_reg, clk3_reg, clk4_reg, clk5_reg, clk6_reg, clkfb_reg, clk0, clk1, clk2, clk3, clk4, clk5, clk6, clkfb; reg [2:0] fine_dyn_0, fine_dyn_1, fine_dyn_2, fine_dyn_3, fine_dyn_4, fine_dyn_5, fine_dyn_6; integer coarse_dyn_0, coarse_dyn_1, coarse_dyn_2, coarse_dyn_3, coarse_dyn_4, coarse_dyn_5, coarse_dyn_6; reg ps_pulse_pre; reg clkout_0, clkout0_ps, clk0_out, clkout_1, clkout1_ps, clk1_out, clkout_2, clkout2_ps, clk2_out, clkout_3, clkout3_ps, clk3_out, clkout_4, clkout4_ps, clk4_out, clkout_5, clkout5_ps, clk5_out, clkout_6, clkout6_ps, clk6_out, clkfb_out, clkout_fb; wire clk0_dt_dir, clk1_dt_dir, clk3_dt_dir, clk4_dt_dir; wire [2:0] clk0_dt_step, clk1_dt_step, clk2_dt_step, clk3_dt_step; realtime clk0_dt_delay, clk1_dt_delay, clk2_dt_delay, clk3_dt_delay; reg clkout_dt_0, clkout_dt_1, clkout_dt_2, clkout_dt_3; reg lock_reg; reg [2:0] fine_0, fine_1, fine_2, fine_3, fine_4, fine_5, fine_6; integer coarse_0, coarse_1, coarse_2, coarse_3, coarse_4, coarse_5, coarse_6; real unit_duty = 1.0, unit_phase = 1.0; real unit_div = 1.0, real_fbdiv = 1.0; integer multi_clkin; reg clkfb_init; reg pssel_0_flag, pssel_1_flag, pssel_2_flag, pssel_3_flag, pssel_4_flag, pssel_5_flag, pssel_6_flag; reg cken0, cken1, cken2, cken3, cken4, cken5, cken6; wire reseti, reseto; initial begin clkin_cycle[0] = 0.0; clkin_cycle[1] = 0.0; clkin_cycle[2] = 0.0; clkin_cycle[3] = 0.0; clkin_cycle[4] = 0.0; clkin_period = 0.0; clkin_period1 = 0.0; vco_period = 0.0; clkout0_period = 0.0; clkout1_period = 0.0; clkout2_period = 0.0; clkout3_period = 0.0; clkout4_period = 0.0; clkout5_period = 0.0; clkout6_period = 0.0; clkfbout_period = 0.0; clkout0_half = 0.0; clkout1_half = 0.0; clkout2_half = 0.0; clkout3_half = 0.0; clkout4_half = 0.0; clkout5_half = 0.0; clkout6_half = 0.0; clkfbout_half = 0.0; clk_effect = 1'b0; oclk_effect = 1'b0; clk0_reg = 1'b0; clk1_reg = 1'b0; clk2_reg = 1'b0; clk3_reg = 1'b0; clk4_reg = 1'b0; clk5_reg = 1'b0; clk6_reg = 1'b0; clkfb_reg = 1'b0; clk0 = 1'b0; clk1 = 1'b0; clk2 = 1'b0; clk3 = 1'b0; clk4 = 1'b0; clk5 = 1'b0; clk6 = 1'b0; clkfb = 1'b0; clk0_out = 1'b0; clk1_out = 1'b0; clk2_out = 1'b0; clk3_out = 1'b0; clk4_out = 1'b0; clk5_out = 1'b0; clk6_out = 1'b0; clkfb_out = 1'b0; clkout0_ps = 1'b0; clkout1_ps = 1'b0; clkout2_ps = 1'b0; clkout3_ps = 1'b0; clkout4_ps = 1'b0; clkout5_ps = 1'b0; clkout6_ps = 1'b0; clkout_fb = 1'b0; clkout_0 = 1'b0; clkout_1 = 1'b0; clkout_2 = 1'b0; clkout_3 = 1'b0; clkout_4 = 1'b0; clkout_5 = 1'b0; clkout_6 = 1'b0; clkin_init = 1'b1; fb_clk_init = 1'b1; clkfb_init = 1'b1; FB_dly = 0.0; FB_dly0 = 0.0; clkin_curtime = 0.0; clkfb_curtime = 0.0; lock_reg = 0; fine_dyn_0 = 0; fine_dyn_1 = 0; fine_dyn_2 = 0; fine_dyn_4 = 0; fine_dyn_5 = 0; fine_dyn_6 = 0; coarse_dyn_0 = 0; coarse_dyn_1 = 0; coarse_dyn_2 = 0; coarse_dyn_3 = 0; coarse_dyn_4 = 0; coarse_dyn_5 = 0; coarse_dyn_6 = 0; fine_0 = 0; fine_1 = 0; fine_2 = 0; fine_3 = 0; fine_4 = 0; fine_5 = 0; fine_6 = 0; coarse_0 = 0; coarse_1 = 0; coarse_2 = 0; coarse_3 = 0; coarse_4 = 0; coarse_5 = 0; coarse_6 = 0; //////////// end assign reseti = (RESET_I_EN == "TRUE") ? RESET_I : 1'b0; assign reseto = (RESET_O_EN == "TRUE") ? RESET_O : 1'b0; assign resetn = ~(RESET | PLLPWD | reseti); // determine period of CLKIN and clkout always @(posedge CLKIN or negedge resetn) begin if (!resetn) begin clk_effect <= 1'b0; clkin_cycle[0] <= 0; end else begin pretime <= curtime; curtime <= $realtime; if (pretime > 0) begin clkin_cycle[0] <= curtime - pretime; end if (clkin_cycle[0] > 0) begin clkin_cycle[1] <= clkin_cycle[0]; clkin_cycle[2] <= clkin_cycle[1]; clkin_cycle[3] <= clkin_cycle[2]; clkin_cycle[4] <= clkin_cycle[3]; end if (clkin_cycle[0] > 0) begin if((clkin_cycle[0] - clkin_period1 < 0.01) && (clkin_cycle[0] - clkin_period1 > -0.01) ) begin clk_effect <= 1'b1; clkin_period <= clkin_period1; end else begin clk_effect <= 1'b0; end end end end always @(clkin_cycle[0] or clkin_cycle[1] or clkin_cycle[2] or clkin_cycle[3] or clkin_cycle[4] or clkin_period1) begin if (clkin_cycle[0] != clkin_period1) begin clkin_period1 <= (clkin_cycle[0]+clkin_cycle[1]+clkin_cycle[2]+clkin_cycle[3]+clkin_cycle[4])/5; end end assign IDIV_SEL_reg = IDIV_SEL; assign FBDIV_SEL_reg = FBDIV_SEL; assign ODIV0_SEL_reg = ODIV0_SEL; assign ODIV1_SEL_reg = ODIV1_SEL; assign ODIV2_SEL_reg = ODIV2_SEL; assign ODIV3_SEL_reg = ODIV3_SEL; assign ODIV4_SEL_reg = ODIV4_SEL; assign ODIV5_SEL_reg = ODIV5_SEL; assign ODIV6_SEL_reg = ODIV6_SEL; assign MDIV_SEL_reg = MDIV_SEL; assign ODIV0_f_reg = ODIV0_FRAC_SEL; assign MDIV_f_reg = MDIV_FRAC_SEL; always @(clkin_period or IDIV_SEL_reg or FBDIV_SEL_reg or ODIV0_SEL_reg) begin real_fbdiv = (FBDIV_SEL_reg * unit_div); if (CLKFB_SEL == "INTERNAL") begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (MDIV_SEL_reg + MDIV_f_reg / 8.0); end else begin if (ODIV0_SEL_reg == 1) begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (ODIV0_SEL_reg); end else begin vco_period = ((clkin_period * IDIV_SEL_reg) / real_fbdiv) / (ODIV0_SEL_reg + ODIV0_f_reg/8.0); end end end always @(*) begin if (CLK0_IN_SEL == 1'b0) begin if (ODIV0_SEL_reg == 1) begin clkout0_period = (vco_period * (ODIV0_SEL_reg)); end else begin clkout0_period = (vco_period * (ODIV0_SEL_reg + ODIV0_f_reg / 8.0)); end end else if (CLK0_IN_SEL == 1'b1) begin clkout0_period = (clkin_period * ODIV0_SEL_reg); end end always @(*) begin if (CLK1_IN_SEL == 1'b0) begin clkout1_period = (vco_period * ODIV1_SEL_reg); end else if (CLK1_IN_SEL == 1'b1) begin clkout1_period = (clkin_period * ODIV1_SEL_reg); end end always @(*) begin if (CLK2_IN_SEL == 1'b0) begin clkout2_period = (vco_period * ODIV2_SEL_reg); end else if (CLK2_IN_SEL == 1'b1) begin clkout2_period = (clkin_period * ODIV2_SEL_reg); end end always @(*) begin if (CLK3_IN_SEL == 1'b0) begin clkout3_period = (vco_period * ODIV3_SEL_reg); end else if (CLK3_IN_SEL == 1'b1) begin clkout3_period = (clkin_period * ODIV3_SEL_reg); end end always @(*) begin if (CLK4_IN_SEL == 2'b00) begin clkout4_period = (vco_period * ODIV4_SEL_reg); end else if (CLK4_IN_SEL == 2'b01) begin clkout4_period = (clkout6_period * ODIV4_SEL_reg); end else if (CLK4_IN_SEL == 2'b10) begin clkout4_period = (clkin_period * ODIV4_SEL_reg); end end always @(*) begin if (CLK5_IN_SEL == 1'b0) begin clkout5_period = (vco_period * ODIV5_SEL_reg); end else if (CLK5_IN_SEL == 1'b1) begin clkout5_period = (clkin_period * ODIV5_SEL_reg); end end always @(*) begin if (CLK6_IN_SEL == 1'b0) begin clkout6_period = (vco_period * ODIV6_SEL_reg); end else if (CLK6_IN_SEL == 1'b1) begin clkout6_period = (clkin_period * ODIV6_SEL_reg); end end always @(*) begin clkfbout_period = (vco_period * (MDIV_SEL_reg + MDIV_f_reg / 8.0)); end always@(clkout0_period or clkout1_period or clkout2_period or clkout3_period or clkout4_period or clkout5_period or clkout6_period or clkfbout_period) begin clkout0_half = (clkout0_period / 2.0); clkout1_half = (clkout1_period / 2.0); clkout2_half = (clkout2_period / 2.0); clkout3_half = (clkout3_period / 2.0); clkout4_half = (clkout4_period / 2.0); clkout5_half = (clkout5_period / 2.0); clkout6_half = (clkout6_period / 2.0); clkfbout_half = (clkfbout_period / 2.0); end realtime clk_tlock_cur; realtime max_tlock; integer cnt_lock; initial begin clk_tlock_cur = 0.0; max_tlock = 0.0; cnt_lock = 0; end // lock time assign rst = RESET | PLLPWD | reseti | reseto; always @(posedge CLKIN or posedge rst) begin if (rst == 1'b1) begin max_tlock <= 0.0; end else begin if ((clkin_cycle[0] >= 2) && (clkin_cycle[0] <= 40)) begin max_tlock <= 50000; end else if ((clkin_cycle[0] > 40) && (clkin_cycle[0] <= 500)) begin max_tlock <= 200000; end end end always @(posedge CLKIN or posedge rst) begin if (rst == 1'b1) begin lock_reg <= 1'b0; oclk_effect <= 1'b0; end else begin if (clk_effect == 1'b1) begin cnt_lock <= cnt_lock + 1; if (cnt_lock > ((max_tlock / clkin_period) - 10)) begin oclk_effect <= 1'b1; end else begin oclk_effect <= 1'b0; end if (cnt_lock > (max_tlock / clkin_period)) begin lock_reg <= 1'b1; end else begin lock_reg <= 1'b0; end end else begin oclk_effect <= 1'b0; cnt_lock <= 0; lock_reg <= 1'b0; end end end assign LOCK = (CLKFB_SEL == "EXTERNAL" && CLK0_IN_SEL == 1'b1) ? 1'b0 : lock_reg; // calculate CLKFB feedback delay always @(posedge CLKIN) begin if (clkin_init == 1'b1) begin clkin_curtime = $realtime; clkin_init = 1'b0; end end always @(posedge CLKFB) begin if (fb_clk_init == 1'b1) begin clkfb_curtime = $realtime; fb_clk_init = 1'b0; end end always @(CLKFB or CLKIN) begin if ((clkfb_curtime > 0) && (clkin_curtime > 0)) begin FB_dly0 = clkfb_curtime - clkin_curtime; if ((FB_dly0 >= 0) && (clkin_cycle[0] > 0)) begin multi_clkin = FB_dly0 / (clkin_cycle[0]); FB_dly = clkin_cycle[0] - (FB_dly0 - (clkin_cycle[0]) * multi_clkin); end end end always @(clk0_reg or clk1_reg or clk2_reg or clk3_reg or clk4_reg or clk5_reg or clk6_reg or clkfb_reg or oclk_effect) begin if (oclk_effect == 1'b0) begin clk0_reg = 1'b0; clk1_reg = 1'b0; clk2_reg = 1'b0; clk3_reg = 1'b0; clk4_reg = 1'b0; clk5_reg = 1'b0; clk6_reg = 1'b0; clkfb_reg = 1'b0; end else begin if (clkfb_init == 1'b1) begin clk0_reg <= 1'b1; clk1_reg <= 1'b1; clk2_reg <= 1'b1; clk3_reg <= 1'b1; clk4_reg <= 1'b1; clk5_reg <= 1'b1; clk6_reg <= 1'b1; clkfb_reg <= 1'b1; clkfb_init = 1'b0; end else begin clk0_reg <= #clkout0_half ~clk0_reg; clk1_reg <= #clkout1_half ~clk1_reg; clk2_reg <= #clkout2_half ~clk2_reg; clk3_reg <= #clkout3_half ~clk3_reg; clk4_reg <= #clkout4_half ~clk4_reg; clk5_reg <= #clkout5_half ~clk5_reg; clk6_reg <= #clkout6_half ~clk6_reg; clkfb_reg <= #clkfbout_half ~clkfb_reg; end end end always @(clk0_reg or clk1_reg or clk2_reg or clk3_reg or clk4_reg or clk5_reg or clk6_reg or clkfb_reg or FB_dly) begin if (CLKFB_SEL == "INTERNAL") begin clk0 <= clk0_reg; clk1 <= clk1_reg; clk2 <= clk2_reg; clk3 <= clk3_reg; clk4 <= clk4_reg; clk5 <= clk5_reg; clk6 <= clk6_reg; clkfb <= clkfb_reg; end else begin clk0 <= #(FB_dly) clk0_reg; clk1 <= #(FB_dly) clk1_reg; clk2 <= #(FB_dly) clk2_reg; clk3 <= #(FB_dly) clk3_reg; clk4 <= #(FB_dly) clk4_reg; clk5 <= #(FB_dly) clk5_reg; clk6 <= #(FB_dly) clk6_reg; clkfb <= #(FB_dly) clkfb_reg; end end //dynamic phase shift always @(*) begin if (PSSEL == 3'b000) begin pssel_0_flag <= 1'b1; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_0_flag <= 1'b0; end else if (PSSEL == 3'b001) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b1; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_1_flag <= 1'b0; end else if (PSSEL == 3'b010) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b1; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_2_flag <= 1'b0; end else if (PSSEL == 3'b011) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b1; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_3_flag <= 1'b0; end else if (PSSEL == 3'b100) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b1; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b0; #1; pssel_4_flag <= 1'b0; end else if (PSSEL == 3'b101) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b1; pssel_6_flag <= 1'b0; #1; pssel_5_flag <= 1'b0; end else if (PSSEL == 3'b110) begin pssel_0_flag <= 1'b0; pssel_1_flag <= 1'b0; pssel_2_flag <= 1'b0; pssel_3_flag <= 1'b0; pssel_4_flag <= 1'b0; pssel_5_flag <= 1'b0; pssel_6_flag <= 1'b1; #1; pssel_6_flag <= 1'b0; end end always @(PSPULSE) begin ps_pulse_pre <= PSPULSE; end always @(*) begin if (resetn == 1'b0) begin fine_dyn_0 <= 0; fine_dyn_1 <= 0; fine_dyn_2 <= 0; fine_dyn_3 <= 0; fine_dyn_4 <= 0; fine_dyn_5 <= 0; fine_dyn_6 <= 0; coarse_dyn_0 <= 0; coarse_dyn_1 <= 0; coarse_dyn_2 <= 0; coarse_dyn_3 <= 0; coarse_dyn_4 <= 0; coarse_dyn_5 <= 0; coarse_dyn_6 <= 0; end else begin if (PSSEL == 3'b000) begin if (pssel_0_flag == 1'b1) begin fine_dyn_0 <= 0; coarse_dyn_0 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV0_SEL_reg == 1) begin coarse_dyn_0 <= 0; end else begin if (fine_dyn_0 == 7) begin coarse_dyn_0 <= coarse_dyn_0 + 1; if (coarse_dyn_0 == (ODIV0_SEL_reg - 1)) begin coarse_dyn_0 <= 0; end end end fine_dyn_0 <= fine_dyn_0 + 1; end else begin if (ODIV0_SEL_reg == 1) begin coarse_dyn_0 <= 0; end else begin if (fine_dyn_0 == 0) begin coarse_dyn_0 <= coarse_dyn_0 - 1; if (coarse_dyn_0 == 0) begin coarse_dyn_0 <= (ODIV0_SEL_reg - 1); end end end fine_dyn_0 <= fine_dyn_0 - 1; end end end end else if (PSSEL == 3'b001) begin if (pssel_1_flag == 1'b1) begin fine_dyn_1 <= 0; coarse_dyn_1 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV1_SEL_reg == 1) begin coarse_dyn_1 <= 0; end else begin if (fine_dyn_1 == 7) begin coarse_dyn_1 <= coarse_dyn_1 + 1; if (coarse_dyn_1 == (ODIV1_SEL_reg - 1)) begin coarse_dyn_1 <= 0; end end end fine_dyn_1 <= fine_dyn_1 + 1; end else begin if (ODIV1_SEL_reg == 1) begin coarse_dyn_1 <= 0; end else begin if (fine_dyn_1 == 0) begin coarse_dyn_1 <= coarse_dyn_1 - 1; if (coarse_dyn_1 == 0) begin coarse_dyn_1 <= (ODIV1_SEL_reg - 1); end end end fine_dyn_1 <= fine_dyn_1 - 1; end end end end else if (PSSEL == 3'b010) begin if (pssel_2_flag == 1'b1) begin fine_dyn_2 <= 0; coarse_dyn_2 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV2_SEL_reg == 1) begin coarse_dyn_2 <= 0; end else begin if (fine_dyn_2 == 7) begin coarse_dyn_2 <= coarse_dyn_2 + 1; if (coarse_dyn_2 == (ODIV2_SEL_reg - 1)) begin coarse_dyn_2 <= 0; end end end fine_dyn_2 <= fine_dyn_2 + 1; end else begin if (ODIV2_SEL_reg == 1) begin coarse_dyn_2 <= 0; end else begin if (fine_dyn_2 == 0) begin coarse_dyn_2 <= coarse_dyn_2 - 1; if (coarse_dyn_2 == 0) begin coarse_dyn_2 <= (ODIV2_SEL_reg - 1); end end end fine_dyn_2 <= fine_dyn_2 - 1; end end end end else if (PSSEL == 3'b011) begin if (pssel_3_flag == 1'b1) begin fine_dyn_3 <= 0; coarse_dyn_3 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV3_SEL_reg == 1) begin coarse_dyn_3 <= 0; end else begin if (fine_dyn_3 == 7) begin coarse_dyn_3 <= coarse_dyn_3 + 1; if (coarse_dyn_3 == (ODIV3_SEL_reg - 1)) begin coarse_dyn_3 <= 0; end end end fine_dyn_3 <= fine_dyn_3 + 1; end else begin if (ODIV3_SEL_reg == 1) begin coarse_dyn_3 <= 0; end else begin if (fine_dyn_3 == 0) begin coarse_dyn_3 <= coarse_dyn_3 - 1; if (coarse_dyn_3 == 0) begin coarse_dyn_3 <= (ODIV3_SEL_reg - 1); end end end fine_dyn_3 <= fine_dyn_3 - 1; end end end end else if (PSSEL == 3'b100) begin if (pssel_4_flag == 1'b1) begin fine_dyn_4 <= 0; coarse_dyn_4 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV4_SEL_reg == 1) begin coarse_dyn_4 <= 0; end else begin if (fine_dyn_4 == 7) begin coarse_dyn_4 <= coarse_dyn_4 + 1; if (coarse_dyn_4 == (ODIV4_SEL_reg - 1)) begin coarse_dyn_4 <= 0; end end end fine_dyn_4 <= fine_dyn_4 + 1; end else begin if (ODIV4_SEL_reg == 1) begin coarse_dyn_4 <= 0; end else begin if (fine_dyn_4 == 0) begin coarse_dyn_4 <= coarse_dyn_4 - 1; if (coarse_dyn_4 == 0) begin coarse_dyn_4 <= (ODIV4_SEL_reg - 1); end end end fine_dyn_4 <= fine_dyn_4 - 1; end end end end else if (PSSEL == 3'b101) begin if (pssel_5_flag == 1'b1) begin fine_dyn_5 <= 0; coarse_dyn_5 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV5_SEL_reg == 1) begin coarse_dyn_5 <= 0; end else begin if (fine_dyn_5 == 7) begin coarse_dyn_5 <= coarse_dyn_5 + 1; if (coarse_dyn_5 == (ODIV5_SEL_reg - 1)) begin coarse_dyn_5 <= 0; end end end fine_dyn_5 <= fine_dyn_5 + 1; end else begin if (ODIV5_SEL_reg == 1) begin coarse_dyn_5 <= 0; end else begin if (fine_dyn_5 == 0) begin coarse_dyn_5 <= coarse_dyn_5 - 1; if (coarse_dyn_5 == 0) begin coarse_dyn_5 <= (ODIV5_SEL_reg - 1); end end end fine_dyn_5 <= fine_dyn_5 - 1; end end end end else if (PSSEL == 3'b110) begin if (pssel_6_flag == 1'b1) begin fine_dyn_6 <= 0; coarse_dyn_6 <= 0; end else begin if (PSPULSE === 1'b0 && ps_pulse_pre === 1'b1) begin if (PSDIR == 1'b0) begin if (ODIV6_SEL_reg == 1) begin coarse_dyn_6 <= 0; end else begin if (fine_dyn_6 == 7) begin coarse_dyn_6 <= coarse_dyn_6 + 1; if (coarse_dyn_6 == (ODIV6_SEL_reg - 1)) begin coarse_dyn_6 <= 0; end end end fine_dyn_6 <= fine_dyn_6 + 1; end else begin if (ODIV6_SEL_reg == 1) begin coarse_dyn_6 <= 0; end else begin if (fine_dyn_6 == 0) begin coarse_dyn_6 <= coarse_dyn_6 - 1; if (coarse_dyn_6 == 0) begin coarse_dyn_6 <= (ODIV6_SEL_reg - 1); end end end fine_dyn_6 <= fine_dyn_6 - 1; end end end end end end //clkfbout // always @(posedge clkfb) begin clkout_fb <= 1'b1; #clkfbout_half clkout_fb <= 1'b0; end always @(CLKIN or oclk_effect or clkout_fb or resetn or reseto) begin if (resetn == 1'b0) begin clkfb_out <= 1'b0; end else if (reseto == 1'b1) begin clkfb_out <= 1'b0; end else begin clkfb_out <= clkout_fb; end end assign CLKFBOUT = clkfb_out; // clkout0 // always @(*) begin if (DYN_PE0_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_0 = fine_dyn_0; coarse_0 = coarse_dyn_0; end else if (DYN_PE0_SEL == "FALSE") begin fine_0 = CLKOUT0_PE_FINE; coarse_0 = CLKOUT0_PE_COARSE; end end always @(coarse_0 or fine_0 or ODIV0_SEL_reg or ODIV0_f_reg or clkout0_period) begin real_phase0 = (coarse_0 + (unit_phase * fine_0 / 8)); if (ODIV0_SEL_reg == 1) begin phase_value0 = clkout0_period * (real_phase0 / ODIV0_SEL_reg); end else begin phase_value0 = clkout0_period * (real_phase0 / (ODIV0_SEL_reg + ODIV0_f_reg / 8.0)); end end //duty_cycle integer h_level_0; realtime clkout0_duty_odd; always @(*) begin h_level_0 = ODIV0_SEL_reg / 2; clkout0_duty_odd = (clkout0_period * h_level_0 / ODIV0_SEL_reg); end always @(clkout0_half or real_duty0 or real_phase0 or ODIV0_SEL_reg or clkout0_period or clkout0_duty_odd) begin real_duty0 = (CLKOUT0_PE_COARSE + (unit_duty * CLKOUT0_PE_FINE / 8)); if (CLK0_IN_SEL == 1'b1) begin if (ODIV0_SEL_reg == 1) begin clkout0_duty = clkout0_half; end else begin clkout0_duty = clkout0_duty_odd; end end else if ((DYN_PE0_SEL == "FALSE") || (DE0_EN == "FALSE")) begin clkout0_duty = clkout0_half; end else if ((DYN_DPA_EN == "TRUE") && (DE0_EN == "TRUE")) begin if (ODIV0_SEL_reg == 1) begin clkout0_duty = clkout0_half; end else begin if (real_duty0 > real_phase0) begin clkout0_duty = (clkout0_period * (real_duty0 - real_phase0))/(ODIV0_SEL_reg + ODIV0_f_reg/8.0); end else if (real_duty0 < real_phase0) begin clkout0_duty = (clkout0_period *((ODIV0_SEL_reg + ODIV0_f_reg/8.0) + (real_duty0 - real_phase0)))/(ODIV0_SEL_reg + ODIV0_f_reg/8.0); end end end end always @(posedge clk0) begin clkout_0 <= 1'b1; #tclk0_duty clkout_0 <= 1'b0; end always @(clkout_0, clk0_dt_dir) begin if (clk0_dt_dir == 1'b1) begin clkout_dt_0 <= clkout_0; end else begin clkout_dt_0 <= #(clk0_dt_delay) clkout_0; end end always @(clkout_dt_0) begin clkout0_ps <= #(phase_value0) clkout_dt_0; end wire rst_p; assign rst_p = RESET | PLLPWD; always @(CLKIN or oclk_effect or clkout0_ps or rst_p or reseti or reseto) begin if (rst_p == 1'b1) begin clk0_out <= 1'b0; end else if (reseti == 1'b1 && CLK0_IN_SEL == 1'b0) begin clk0_out <= 1'b0; end else if (reseto == 1'b1) begin clk0_out <= 1'b0; end else if (CLK0_OUT_SEL == 1'b0) begin clk0_out <= clkout0_ps; end end assign CLKOUT0 = (CLK0_OUT_SEL == 1'b1) ? CLKIN : ((cken0 == 1'b1) ? clk0_out : 1'b0); assign clk0_dt_dir = CLKOUT0_DT_DIR; assign clk1_dt_dir = CLKOUT1_DT_DIR; assign clk2_dt_dir = CLKOUT2_DT_DIR; assign clk3_dt_dir = CLKOUT3_DT_DIR; assign clk0_dt_step = CLKOUT0_DT_STEP; assign clk1_dt_step = CLKOUT1_DT_STEP; assign clk2_dt_step = CLKOUT2_DT_STEP; assign clk3_dt_step = CLKOUT3_DT_STEP; always @(*) begin clk0_dt_delay <= (0.05 * clk0_dt_step); clk1_dt_delay <= (0.05 * clk1_dt_step); clk2_dt_delay <= (0.05 * clk2_dt_step); clk3_dt_delay <= (0.05 * clk3_dt_step); end always @(clkout0_duty or clkout1_duty or clkout2_duty or clkout3_duty or clk0_dt_dir or clk1_dt_dir or clk2_dt_dir or clk3_dt_dir or clk0_dt_delay or clk1_dt_delay or clk2_dt_delay or clk3_dt_delay) begin if (clk0_dt_dir == 1'b1) begin tclk0_duty <= clkout0_duty + clk0_dt_delay; end else begin tclk0_duty <= clkout0_duty - clk0_dt_delay; end if (clk1_dt_dir == 1'b1) begin tclk1_duty <= clkout1_duty + clk1_dt_delay; end else begin tclk1_duty <= clkout1_duty - clk1_dt_delay; end if (clk2_dt_dir == 1'b1) begin tclk2_duty <= clkout2_duty + clk2_dt_delay; end else begin tclk2_duty <= clkout2_duty - clk2_dt_delay; end if (clk3_dt_dir == 1'b1) begin tclk3_duty <= clkout3_duty + clk3_dt_delay; end else begin tclk3_duty <= clkout3_duty - clk3_dt_delay; end end //enclk wire enclk_0, enclk_1, enclk_2, enclk_3, enclk_4, enclk_5, enclk_6; assign enclk_0 = (CLKOUT0_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_1 = (CLKOUT1_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_2 = (CLKOUT2_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_3 = (CLKOUT3_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_4 = (CLKOUT4_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_5 = (CLKOUT5_EN == "TRUE") ? 1'b1 : 1'b0; assign enclk_6 = (CLKOUT6_EN == "TRUE") ? 1'b1 : 1'b0; wire rsto; assign rsto = RESET | PLLPWD | reseto; always @(negedge clk0_out or posedge rsto) begin if (rsto == 1'b1) begin cken0 <= 1'b0; end else begin cken0 <= enclk_0; end end always @(negedge clk1_out or posedge rsto) begin if (rsto == 1'b1) begin cken1 <= 1'b0; end else begin cken1 <= enclk_1; end end always @(negedge clk2_out or posedge rsto) begin if (rsto == 1'b1) begin cken2 <= 1'b0; end else begin cken2 <= enclk_2; end end always @(negedge clk3_out or posedge rsto) begin if (rsto == 1'b1) begin cken3 <= 1'b0; end else begin cken3 <= enclk_3; end end always @(negedge clk4_out or posedge rsto) begin if (rsto == 1'b1) begin cken4 <= 1'b0; end else begin cken4 <= enclk_4; end end always @(negedge clk5_out or posedge rsto) begin if (rsto == 1'b1) begin cken5 <= 1'b0; end else begin cken5 <= enclk_5; end end always @(negedge clk6_out or posedge rsto) begin if (rsto == 1'b1) begin cken6 <= 1'b0; end else begin cken6 <= enclk_6; end end // clkout1 // always @(*) begin if (DYN_PE1_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_1 = fine_dyn_1; coarse_1 = coarse_dyn_1; end else if (DYN_PE1_SEL == "FALSE") begin fine_1 = CLKOUT1_PE_FINE; coarse_1 = CLKOUT1_PE_COARSE; end end always @(coarse_1 or fine_1 or ODIV1_SEL_reg or clkout1_period) begin real_phase1 = (coarse_1 + (unit_phase * fine_1 / 8)); phase_value1 = clkout1_period * (real_phase1 / ODIV1_SEL_reg); end //duty_cycle integer h_level_1; realtime clkout1_duty_odd; always @(*) begin h_level_1 = ODIV1_SEL_reg / 2; clkout1_duty_odd = (clkout1_period * h_level_1 / ODIV1_SEL_reg); end always @(clkout1_half or real_duty1 or real_phase1 or ODIV1_SEL_reg or clkout1_period or clkout1_duty_odd) begin real_duty1 = (CLKOUT1_PE_COARSE + (unit_duty * CLKOUT1_PE_FINE / 8)); if (CLK1_IN_SEL == 1'b1) begin if (ODIV1_SEL_reg == 1) begin clkout1_duty = clkout1_half; end else begin clkout1_duty = clkout1_duty_odd; end end else if ((DYN_PE1_SEL == "FALSE") || (DE1_EN == "FALSE")) begin clkout1_duty = clkout1_half; end else if ((DYN_DPA_EN == "TRUE") && (DE1_EN == "TRUE")) begin if (ODIV1_SEL_reg == 1) begin clkout1_duty = clkout1_half; end else begin if (real_duty1 > real_phase1) begin clkout1_duty = (clkout1_period * (real_duty1 - real_phase1)) / (ODIV1_SEL_reg); end else if (real_duty1 < real_phase1) begin clkout1_duty = (clkout1_period *((ODIV1_SEL_reg) + (real_duty1 - real_phase1)))/(ODIV1_SEL_reg); end end end end always @(posedge clk1) begin clkout_1 <= 1'b1; #tclk1_duty clkout_1 <= 1'b0; end always @(clkout_1, clk1_dt_dir) begin if (clk1_dt_dir == 1'b1) begin clkout_dt_1 <= clkout_1; end else begin clkout_dt_1 <= #(clk1_dt_delay) clkout_1; end end always @(clkout_dt_1) begin clkout1_ps <= #(phase_value1) clkout_dt_1; end always @(CLKIN or oclk_effect or clkout1_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk1_out <= 1'b0; end else if (reseti == 1'b1 && CLK1_IN_SEL == 1'b0) begin clk1_out <= 1'b0; end else if (reseto == 1'b1) begin clk1_out <= 1'b0; end else if (CLK1_OUT_SEL == 1'b0) begin clk1_out <= clkout1_ps; end end assign CLKOUT1 = (CLK1_OUT_SEL == 1'b1) ? CLKIN : ((cken1 == 1'b1) ? clk1_out : 1'b0); // clkout2 // always @(*) begin if (DYN_PE2_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_2 = fine_dyn_2; coarse_2 = coarse_dyn_2; end else if (DYN_PE2_SEL == "FALSE") begin fine_2 = CLKOUT2_PE_FINE; coarse_2 = CLKOUT2_PE_COARSE; end end always @(coarse_2 or fine_2 or ODIV2_SEL_reg or clkout2_period) begin real_phase2 = (coarse_2 + (unit_phase * fine_2 / 8)); phase_value2 = clkout2_period * (real_phase2 / ODIV2_SEL_reg); end //duty_cycle integer h_level_2; realtime clkout2_duty_odd; always @(*) begin h_level_2 = ODIV2_SEL_reg / 2; clkout2_duty_odd = (clkout2_period * h_level_2 / ODIV2_SEL_reg); end always @(clkout2_half or real_duty2 or real_phase2 or ODIV2_SEL_reg or clkout2_period or clkout2_duty_odd) begin real_duty2 = (CLKOUT2_PE_COARSE + (unit_duty * CLKOUT2_PE_FINE / 8)); if (CLK2_IN_SEL == 1'b1) begin if (ODIV2_SEL_reg == 1) begin clkout2_duty = clkout2_half; end else begin clkout2_duty = clkout2_duty_odd; end end else if ((DYN_PE2_SEL == "FALSE") || (DE2_EN == "FALSE")) begin clkout2_duty = clkout2_half; end else if ((DYN_DPA_EN == "TRUE") && (DE2_EN == "TRUE")) begin if (ODIV2_SEL_reg == 1) begin clkout2_duty = clkout2_half; end else begin if (real_duty2 > real_phase2) begin clkout2_duty = (clkout2_period * (real_duty2 - real_phase2)) / (ODIV2_SEL_reg); end else if (real_duty2 < real_phase2) begin clkout2_duty = (clkout2_period *((ODIV2_SEL_reg) + (real_duty2 - real_phase2)))/(ODIV2_SEL_reg); end end end end always @(posedge clk2) begin clkout_2 <= 1'b1; #tclk2_duty clkout_2 <= 1'b0; end always @(clkout_2, clk2_dt_dir) begin if (clk2_dt_dir == 1'b1) begin clkout_dt_2 <= clkout_2; end else begin clkout_dt_2 <= #(clk2_dt_delay) clkout_2; end end always @(clkout_dt_2) begin clkout2_ps <= #(phase_value2) clkout_dt_2; end always @(CLKIN or oclk_effect or clkout2_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk2_out <= 1'b0; end else if (reseti == 1'b1 && CLK2_IN_SEL == 1'b0) begin clk2_out <= 1'b0; end else if (reseto == 1'b1) begin clk2_out <= 1'b0; end else if (CLK2_OUT_SEL == 1'b0) begin clk2_out <= clkout2_ps; end end assign CLKOUT2 = (CLK2_OUT_SEL == 1'b1) ? CLKIN : ((cken2 == 1'b1) ? clk2_out : 1'b0); // clkout3 // always @(*) begin if (DYN_PE3_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_3 = fine_dyn_3; coarse_3 = coarse_dyn_3; end else if (DYN_PE3_SEL == "FALSE") begin fine_3 = CLKOUT3_PE_FINE; coarse_3 = CLKOUT3_PE_COARSE; end end always @(coarse_3 or fine_3 or ODIV3_SEL_reg or clkout3_period) begin real_phase3 = (coarse_3 + (unit_phase * fine_3 / 8)); phase_value3 = clkout3_period * (real_phase3 / ODIV3_SEL_reg); end //duty_cycle integer h_level_3; realtime clkout3_duty_odd; always @(*) begin h_level_3 = ODIV3_SEL_reg / 2; clkout3_duty_odd = (clkout3_period * h_level_3 / ODIV3_SEL_reg); end always @(clkout3_half or real_duty3 or real_phase3 or ODIV3_SEL_reg or clkout3_period or clkout3_duty_odd) begin real_duty3 = (CLKOUT3_PE_COARSE + (unit_duty * CLKOUT3_PE_FINE / 8)); if (CLK3_IN_SEL == 1'b1) begin if (ODIV3_SEL_reg == 1) begin clkout3_duty = clkout3_half; end else begin clkout3_duty = clkout3_duty_odd; end end else if ((DYN_PE3_SEL == "FALSE") || (DE3_EN == "FALSE")) begin clkout3_duty = clkout3_half; end else if ((DYN_DPA_EN == "TRUE") && (DE3_EN == "TRUE")) begin if (ODIV3_SEL_reg == 1) begin clkout3_duty = clkout3_half; end else begin if (real_duty3 > real_phase3) begin clkout3_duty = (clkout3_period * (real_duty3 - real_phase3)) / (ODIV3_SEL_reg); end else if (real_duty3 < real_phase3) begin clkout3_duty = (clkout3_period *((ODIV3_SEL_reg) + (real_duty3 - real_phase3)))/(ODIV3_SEL_reg); end end end end always @(posedge clk3) begin clkout_3 <= 1'b1; #tclk3_duty clkout_3 <= 1'b0; end always @(clkout_3, clk3_dt_dir) begin if (clk3_dt_dir == 1'b1) begin clkout_dt_3 <= clkout_3; end else begin clkout_dt_3 <= #(clk3_dt_delay) clkout_3; end end always @(clkout_dt_3) begin clkout3_ps <= #(phase_value3) clkout_dt_3; end always @(CLKIN or oclk_effect or clkout3_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk3_out <= 1'b0; end else if (reseti == 1'b1 && CLK3_IN_SEL == 1'b0) begin clk3_out <= 1'b0; end else if (reseto == 1'b1) begin clk3_out <= 1'b0; end else if (CLK3_OUT_SEL == 1'b0) begin clk3_out <= clkout3_ps; end end assign CLKOUT3 = (CLK3_OUT_SEL == 1'b1) ? CLKIN : ((cken3 == 1'b1) ? clk3_out : 1'b0); // clkout4 // always @(*) begin if (DYN_PE4_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_4 = fine_dyn_4; coarse_4 = coarse_dyn_4; end else if (DYN_PE4_SEL == "FALSE") begin fine_4 = CLKOUT4_PE_FINE; coarse_4 = CLKOUT4_PE_COARSE; end end always @(coarse_4 or fine_4 or ODIV4_SEL_reg or clkout4_period) begin real_phase4 = (coarse_4 + (unit_phase * fine_4 / 8)); phase_value4 = clkout4_period * (real_phase4 / ODIV4_SEL_reg); end //duty_cycle integer h_level_4; realtime clkout4_duty_odd; always @(*) begin h_level_4 = ODIV4_SEL_reg / 2; clkout4_duty_odd = (clkout4_period * h_level_4 / ODIV4_SEL_reg); end always @(clkout4_half or real_duty4 or real_phase4 or ODIV4_SEL_reg or clkout4_period or clkout4_duty_odd) begin real_duty4 = (CLKOUT4_PE_COARSE + (unit_duty * CLKOUT4_PE_FINE / 8)); if (CLK4_IN_SEL == 2'b10 || CLK4_IN_SEL == 2'b01) begin if (ODIV4_SEL_reg == 1) begin clkout4_duty = clkout4_half; end else begin clkout4_duty = clkout4_duty_odd; end end else if (DYN_PE4_SEL == "FALSE" || DE4_EN == "FALSE") begin clkout4_duty = clkout4_half; end else if (DYN_DPA_EN == "TRUE" && DE4_EN == "TRUE") begin if (ODIV4_SEL_reg == 1) begin clkout4_duty = clkout4_half; end else begin if (real_duty4 > real_phase4) begin clkout4_duty = (clkout4_period * (real_duty4 - real_phase4)) / ODIV4_SEL_reg; end else if (real_duty4 < real_phase4) begin clkout4_duty = (clkout4_period *(ODIV4_SEL_reg + (real_duty4 - real_phase4)))/ODIV4_SEL_reg; end end end end always @(posedge clk4) begin clkout_4 <= 1'b1; #clkout4_duty clkout_4 <= 1'b0; end always @(clkout_4) begin clkout4_ps <= #(phase_value4) clkout_4; end always @(CLKIN or oclk_effect or clkout4_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk4_out <= 1'b0; end else if (reseti == 1'b1 && CLK4_IN_SEL == 2'b00) begin clk4_out <= 1'b0; end else if (reseto == 1'b1) begin clk4_out <= 1'b0; end else if (CLK4_OUT_SEL == 1'b0) begin clk4_out <= clkout4_ps; end end assign CLKOUT4 = (CLK4_OUT_SEL == 1'b1) ? CLKIN : ((cken4 == 1'b1) ? clk4_out : 1'b0); // clkout5 // always @(*) begin if (DYN_PE5_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_5 = fine_dyn_5; coarse_5 = coarse_dyn_5; end else if (DYN_PE5_SEL == "FALSE") begin fine_5 = CLKOUT5_PE_FINE; coarse_5 = CLKOUT5_PE_COARSE; end end always @(coarse_5 or fine_5 or ODIV5_SEL_reg or clkout5_period) begin real_phase5 = (coarse_5 + (unit_phase * fine_5 / 8)); phase_value5 = clkout5_period * (real_phase5 / ODIV5_SEL_reg); end //duty_cycle integer h_level_5; realtime clkout5_duty_odd; always @(*) begin h_level_5 = ODIV5_SEL_reg / 2; clkout5_duty_odd = (clkout5_period * h_level_5 / ODIV5_SEL_reg); end always @(clkout5_half or real_duty5 or real_phase5 or ODIV5_SEL_reg or clkout5_period or clkout5_duty_odd) begin real_duty5 = (CLKOUT5_PE_COARSE + (unit_duty * CLKOUT5_PE_FINE / 8)); if (CLK5_IN_SEL == 1'b1) begin if (ODIV5_SEL_reg == 1) begin clkout5_duty = clkout5_half; end else begin clkout5_duty = clkout5_duty_odd; end end else if (DYN_PE5_SEL == "FALSE" || DE5_EN == "FALSE") begin clkout5_duty = clkout5_half; end else if (DYN_DPA_EN == "TRUE" && DE5_EN == "TRUE") begin if (ODIV5_SEL_reg == 1) begin clkout5_duty = clkout5_half; end else begin if (real_duty5 > real_phase5) begin clkout5_duty = (clkout5_period * (real_duty5 - real_phase5)) / ODIV5_SEL_reg; end else if (real_duty5 < real_phase5) begin clkout5_duty = (clkout5_period *(ODIV5_SEL_reg + (real_duty5 - real_phase5)))/ODIV5_SEL_reg; end end end end always @(posedge clk5) begin clkout_5 <= 1'b1; #clkout5_duty clkout_5 <= 1'b0; end always @(clkout_5) begin clkout5_ps <= #(phase_value5) clkout_5; end always @(CLKIN or oclk_effect or clkout5_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk5_out <= 1'b0; end else if (reseti == 1'b1 && CLK5_IN_SEL == 1'b0) begin clk5_out <= 1'b0; end else if (reseto == 1'b1) begin clk5_out <= 1'b0; end else if (CLK5_OUT_SEL == 1'b0) begin clk5_out <= clkout5_ps; end end assign CLKOUT5 = (CLK5_OUT_SEL == 1'b1) ? CLKIN : ((cken5 == 1'b1) ? clk5_out : 1'b0); // clkout6 // always @(*) begin if (DYN_PE6_SEL == "TRUE" && DYN_DPA_EN == "TRUE") begin fine_6 = fine_dyn_6; coarse_6 = coarse_dyn_6; end else if (DYN_PE6_SEL == "FALSE") begin fine_6 = CLKOUT6_PE_FINE; coarse_6 = CLKOUT6_PE_COARSE; end end always @(coarse_6 or fine_6 or ODIV6_SEL_reg or clkout6_period) begin real_phase6 = (coarse_6 + (unit_phase * fine_6 / 8)); phase_value6 = clkout6_period * (real_phase6 / ODIV6_SEL_reg); end //duty_cycle integer h_level_6; realtime clkout6_duty_odd; always @(*) begin h_level_6 = ODIV6_SEL_reg / 2; clkout6_duty_odd = (clkout6_period * h_level_6 / ODIV6_SEL_reg); end always @(clkout6_half or real_duty6 or real_phase6 or ODIV6_SEL_reg or clkout6_period or clkout6_duty_odd) begin real_duty6 = (CLKOUT6_PE_COARSE + (unit_duty * CLKOUT6_PE_FINE / 8)); if (CLK6_IN_SEL == 1'b1) begin if (ODIV6_SEL_reg == 1) begin clkout6_duty = clkout6_half; end else begin clkout6_duty = clkout6_duty_odd; end end else if (DYN_PE6_SEL == "FALSE" || DE6_EN == "FALSE") begin clkout6_duty = clkout6_half; end else if (DYN_DPA_EN == "TRUE" && DE6_EN == "TRUE") begin if (ODIV6_SEL_reg == 1) begin clkout6_duty = clkout6_half; end else begin if (real_duty6 > real_phase6) begin clkout6_duty = (clkout6_period * (real_duty6 - real_phase6)) / ODIV6_SEL_reg; end else if (real_duty6 < real_phase6) begin clkout6_duty = (clkout6_period *(ODIV6_SEL_reg + (real_duty6 - real_phase6)))/ODIV6_SEL_reg; end end end end always @(posedge clk6) begin clkout_6 <= 1'b1; #clkout6_duty clkout_6 <= 1'b0; end always @(clkout_6) begin clkout6_ps <= #(phase_value6) clkout_6; end always @(CLKIN or oclk_effect or clkout6_ps or reseti or reseto or rst_p) begin if (rst_p == 1'b1) begin clk6_out <= 1'b0; end else if (reseti == 1'b1 && CLK6_IN_SEL == 1'b0) begin clk6_out <= 1'b0; end else if (reseto == 1'b1) begin clk6_out <= 1'b0; end else if (CLK6_OUT_SEL == 1'b0) begin clk6_out <= clkout6_ps; end end assign CLKOUT6 = (CLK6_OUT_SEL == 1'b1) ? CLKIN : ((cken6 == 1'b1) ? clk6_out : 1'b0); endmodule //AE350_SOC module AE350_SOC ( POR_N, //Power on reset, 0 is reset state HW_RSTN, //Hardware reset input, 0 is reset state CORE_CLK, //CPU core clock, up to 800MHz, dedicated clock path. //ADD DDR_CLK AND DDR_CE DDR_CLK, //DDR bus clock in, up to 250MHz AHB_CLK, //AHB bus clock in, up to 250MHz APB_CLK, //APB bus clock in, up to 250MHz DBG_TCK, //JTAG tck clock input RTC_CLK, //RTC clock input, this clock should be alive while CPU waiting for wake up CORE_CE, //CPU core_clk enable. CPU clock is gated when 0. AXI_CE, //Internal AXI bus clock enable, gated when 0. DDR_CE, //DDR bus clock enable, gated when 0. AHB_CE, //AHB bus clock enable, gated when 0. APB_CE, //APB bus and peripherals clock enable, gated when 0. APB2AHB_CE, //APB to AHB clock valid enable. 1 when apb_clk_in = ahb_clk_in. PRESETN, //apb_clk_in synced reset_n output HRESETN, //ahb_clk_in synced reset_n output //ADD DDR_RSTN DDR_RSTN, //ddr_clk_in synced reset_n output GP_INT, //16 user interrupt input. DMA_REQ, //8 dma requests input. DMA_ACK, //8 dma ack output. CORE0_WFI_MODE, //CPU going into WFI mode, posedge is WFI valid WAKEUP_IN, //input to wake up CPU, 0 is wake up RTC_WAKEUP, //Output to wake up RTC clock, 1 is wake up SCAN_TEST, //scan test, to SPI and clock gen SCAN_EN, //scan enable, to SPI and clock gen TEST_CLK, //Test mode clock TEST_MODE, //Test mode, 1 is enable TEST_RSTN, //Test mode resetn, 0 is reset state //AHB PORT FOR ROM ROM_HADDR, //rom AHB address ROM_HRDATA, //rom AHB read data ROM_HREADY, //rom AHB hready ROM_HRESP, //rom AHB hresp ROM_HTRANS, //rom AHB htrans control ROM_HWRITE, //rom AHB hwrite control //APB PORT FOR FABRIC APB_PADDR, //APB signals APB_PENABLE, APB_PRDATA, APB_PREADY, APB_PSEL, APB_PWDATA, APB_PWRITE, APB_PSLVERR, APB_PPROT, APB_PSTRB, //EXT AHB SLV PORT(MCU BUS IS MASTER) EXTS_HRDATA, //EXT AHB slave read data EXTS_HREADYIN, //EXT AHB slave ready input EXTS_HRESP, //EXT AHB slave read response EXTS_HADDR, //EXT AHB slave address EXTS_HBURST, //EXT AHB slave burst EXTS_HPROT, //EXT AHB slave prot EXTS_HSEL, //EXT AHB slave select EXTS_HSIZE, //EXT AHB slave size EXTS_HTRANS, //EXT AHB slave trans EXTS_HWDATA, //EXT AHB slave write data EXTS_HWRITE, //EXT AHB slave write control //EXT AHB MST PORT(MCU BUS IS SLAVE) EXTM_HADDR, //EXT AHB master address input EXTM_HBURST, //EXT AHB master burst input EXTM_HPROT, //EXT AHB master prot input EXTM_HRDATA, //EXT AHB master read data output EXTM_HREADY, //EXT AHB master ready input EXTM_HREADYOUT, //EXT AHB master ready output EXTM_HRESP, //EXT AHB master read response output EXTM_HSEL, //EXT AHB master select input EXTM_HSIZE, //EXT AHB master size input EXTM_HTRANS, //EXT AHB master trans input EXTM_HWDATA, //EXT AHB master write data input EXTM_HWRITE, //EXT AHB master write control input //SRAM PORT FOR FABRIC DDR_HADDR, //ddr/sram AHB access address DDR_HBURST, //ddr/sram AHB burst DDR_HPROT, //ddr/sram AHB prot DDR_HRDATA, //ddr/sram AHB read data DDR_HREADY, //ddr/sram AHB ready DDR_HRESP, //ddr/sram AHB response DDR_HSIZE, //ddr/sram AHB size DDR_HTRANS, //ddr/sram AHB trans DDR_HWDATA, //ddr/sram AHB write data DDR_HWRITE, //ddr/sram AHB write control //JTAG TMS_IN, //JTAG tms input TRST_IN, //JTAG trst input TDI_IN, //JTAG tdi input TDO_OUT, //JTAG tdo output TDO_OE, //JTAG tdo_en output //SPI SPI2_HOLDN_IN, //SPI hold SPI2_WPN_IN, //SPI wpn SPI2_CLK_IN, //SPI clk_in SPI2_CSN_IN, //SPI csn_in SPI2_MISO_IN, //SPI miso_in SPI2_MOSI_IN, //SPI mosi_in SPI2_HOLDN_OUT, //SPI holdn_out SPI2_HOLDN_OE, //SPI holdn out enable SPI2_WPN_OUT, //SPI wpn_out SPI2_WPN_OE, //SPI wpn out enable SPI2_CLK_OUT, //SPI clk_out SPI2_CLK_OE, //SPI clk out enable SPI2_CSN_OUT, //SPI csn_out SPI2_CSN_OE, //SPI csn out enable SPI2_MISO_OUT, //SPI miso_out SPI2_MISO_OE, //SPI miso out enable SPI2_MOSI_OUT, //SPI mosi_out SPI2_MOSI_OE, //SPI mosi out enable //I2C I2C_SCL_IN, //I2C SCL input I2C_SDA_IN, //I2C SDA input I2C_SCL, //I2C SCL output I2C_SDA, //I2C SDA output //UART1 UART1_TXD, //UART1 txd UART1_RTSN, //UART1 rtsn UART1_RXD, //UART1 rxd UART1_CTSN, //UART1 ctsn UART1_DSRN, //UART1 dsrn UART1_DCDN, //UART1 dcdn UART1_RIN, //UART1 rin UART1_DTRN, //UART1 dtrn UART1_OUT1N, //UART1 out1n UART1_OUT2N, //UART1 out2n //UART2 UART2_TXD, //UART2 txd UART2_RTSN, //UART2 rtsn UART2_RXD, //UART2 rxd UART2_CTSN, //UART2 ctsn UART2_DCDN, //UART2 dcdn UART2_DSRN, //UART2 dsrn UART2_RIN, //UART2 rin UART2_DTRN, //UART2 dtrn UART2_OUT1N, //UART2 out1n UART2_OUT2N, //UART2 out2n //PIT CH0_PWM, //Channel 0 output CH0_PWMOE, //Channel 0 output enable CH1_PWM, //Channel 1 output CH1_PWMOE, //Channel 1 output enable CH2_PWM, //Channel 2 output CH2_PWMOE, //Channel 2 output enable CH3_PWM, //Channel 3 output CH3_PWMOE, //Channel 3 output enable //SRAM PGEN_CHAIN_I, PRDYN_CHAIN_O, //VDD 0.8 0.9 1.0 EMA, //EMA[2:0] 100 011 011 EMAW, //EMAW[1:0] 01 01 01 EMAS, //EMAS 0 0 0 RET1N, RET2N, //MBIST SCAN_IN, INTEG_TCK, INTEG_TDI, INTEG_TMS, INTEG_TRST, INTEG_TDO, SCAN_OUT, //GPIO GPIO_IN, //GPIO input GPIO_OE, //GPIO output enable GPIO_OUT //GPIO output ); input POR_N; input HW_RSTN; input CORE_CLK; input DDR_CLK; input AHB_CLK; input APB_CLK; input DBG_TCK; input RTC_CLK; input CORE_CE; input AXI_CE; input DDR_CE; input AHB_CE; input [7:0] APB_CE; input APB2AHB_CE; input SCAN_TEST; input SCAN_EN; output PRESETN; output HRESETN; //ADD DDR_RSTN output DDR_RSTN; input [15:0] GP_INT; input [7:0] DMA_REQ; output [7:0] DMA_ACK; output CORE0_WFI_MODE; input WAKEUP_IN; output RTC_WAKEUP; input TEST_CLK; input TEST_MODE; input TEST_RSTN; //AHB PORT FOR ROM, ONLY READ, NO SIZE NO BURST NO SEL output [31:0] ROM_HADDR; input [31:0] ROM_HRDATA; input ROM_HREADY; input ROM_HRESP; output [1:0] ROM_HTRANS; output ROM_HWRITE; //APB PORT FOR FABRIC output [31:0] APB_PADDR; output APB_PENABLE; input [31:0] APB_PRDATA; input APB_PREADY; output APB_PSEL; output [31:0] APB_PWDATA; output APB_PWRITE; input APB_PSLVERR; output [2:0] APB_PPROT; output [3:0] APB_PSTRB; //EXT AHB SLV PORT(MCU BUS IS MASTER) input [31:0] EXTS_HRDATA; input EXTS_HREADYIN; input EXTS_HRESP; output [31:0] EXTS_HADDR; output [2:0] EXTS_HBURST; output [3:0] EXTS_HPROT; output EXTS_HSEL; output [2:0] EXTS_HSIZE; output [1:0] EXTS_HTRANS; output [31:0] EXTS_HWDATA; output EXTS_HWRITE; //EXT AHB MST PORT(MCU BUS IS SLAVE) input [31:0] EXTM_HADDR; input [2:0] EXTM_HBURST; input [3:0] EXTM_HPROT; output [63:0] EXTM_HRDATA; input EXTM_HREADY; output EXTM_HREADYOUT; output EXTM_HRESP; input EXTM_HSEL; input [2:0] EXTM_HSIZE; input [1:0] EXTM_HTRANS; input [63:0] EXTM_HWDATA; input EXTM_HWRITE; //DDR PORT FOR FABRIC output [31:0] DDR_HADDR; output [2:0] DDR_HBURST; output [3:0] DDR_HPROT; input [63:0] DDR_HRDATA; input DDR_HREADY; input DDR_HRESP; output [2:0] DDR_HSIZE; output [1:0] DDR_HTRANS; output [63:0] DDR_HWDATA; output DDR_HWRITE; //GENERAL PINS input TMS_IN; input TRST_IN; input TDI_IN; output TDO_OUT; output TDO_OE; input SPI2_HOLDN_IN; input SPI2_WPN_IN; input SPI2_CLK_IN; input SPI2_CSN_IN; input SPI2_MISO_IN; input SPI2_MOSI_IN; output SPI2_HOLDN_OUT; output SPI2_HOLDN_OE; output SPI2_WPN_OUT; output SPI2_WPN_OE; output SPI2_CLK_OUT; output SPI2_CLK_OE; output SPI2_CSN_OUT; output SPI2_CSN_OE; output SPI2_MISO_OUT; output SPI2_MISO_OE; output SPI2_MOSI_OUT; output SPI2_MOSI_OE; input I2C_SCL_IN; input I2C_SDA_IN; output I2C_SCL; output I2C_SDA; output UART1_TXD; output UART1_RTSN; input UART1_RXD; input UART1_CTSN; input UART1_DSRN; input UART1_DCDN; input UART1_RIN; output UART1_DTRN; output UART1_OUT1N; output UART1_OUT2N; output UART2_TXD; output UART2_RTSN; input UART2_RXD; input UART2_CTSN; input UART2_DCDN; input UART2_DSRN; input UART2_RIN; output UART2_DTRN; output UART2_OUT1N; output UART2_OUT2N; output CH0_PWM; output CH0_PWMOE; output CH1_PWM; output CH1_PWMOE; output CH2_PWM; output CH2_PWMOE; output CH3_PWM; output CH3_PWMOE; input [31:0] GPIO_IN; output [31:0] GPIO_OE; output [31:0] GPIO_OUT; //MBIST input [19:0] SCAN_IN; input INTEG_TCK; input INTEG_TDI; input INTEG_TMS; input INTEG_TRST; output INTEG_TDO; output [19:0] SCAN_OUT; //SRAM input PGEN_CHAIN_I; output PRDYN_CHAIN_O; input [2:0] EMA; input [1:0] EMAW; input EMAS; input RET1N; input RET2N; /******************************************************************/ endmodule //AE350_RAM module AE350_RAM ( POR_N, //Power on reset, 0 is reset state HW_RSTN, //Hardware reset input, 0 is reset state CORE_CLK, //CPU core clock, up to 800MHz, dedicated clock path. AHB_CLK, //AHB bus clock in, up to 250MHz APB_CLK, //APB bus clock in, up to 250MHz RTC_CLK, //RTC clock input, this clock should be alive while CPU waiting for wake up CORE_CE, //CPU core_clk enable. CPU clock is gated when 0. AXI_CE, //Internal AXI bus clock enable, gated when 0. AHB_CE, //AHB bus clock enable, gated when 0. //EXT AHB MST PORT(MCU BUS IS SLAVE) EXTM_HADDR, //EXT AHB master address input EXTM_HBURST, //EXT AHB master burst input EXTM_HPROT, //EXT AHB master prot input EXTM_HRDATA, //EXT AHB master read data output EXTM_HREADY, //EXT AHB master ready input EXTM_HREADYOUT, //EXT AHB master ready output EXTM_HRESP, //EXT AHB master read response output EXTM_HSEL, //EXT AHB master select input EXTM_HSIZE, //EXT AHB master size input EXTM_HTRANS, //EXT AHB master trans input EXTM_HWDATA, //EXT AHB master write data input EXTM_HWRITE, //EXT AHB master write control input //VDD 0.8 0.9 1.0 EMA, //EMA[2:0] 100 011 011 EMAW, //EMAW[1:0] 01 01 01 EMAS, //EMAS 0 0 0 RET1N, RET2N ); input POR_N; input HW_RSTN; input CORE_CLK; input AHB_CLK; input APB_CLK; input RTC_CLK; input CORE_CE; input AXI_CE; input AHB_CE; //EXT AHB MST PORT(MCU BUS IS SLAVE) input [31:0] EXTM_HADDR; input [2:0] EXTM_HBURST; input [3:0] EXTM_HPROT; output [63:0] EXTM_HRDATA; input EXTM_HREADY; output EXTM_HREADYOUT; output EXTM_HRESP; input EXTM_HSEL; input [2:0] EXTM_HSIZE; input [1:0] EXTM_HTRANS; input [63:0] EXTM_HWDATA; input EXTM_HWRITE; //SRAM input [2:0] EMA; input [1:0] EMAW; input EMAS; input RET1N; input RET2N; /******************************************************************/ endmodule //SAMB,spi address for multi boot module SAMB ( SPIAD, LOAD, ADWSEL ); parameter MODE = 2'b00; //00,normal mode; 01, fast mode; 10,dual mode; 11,quad mode input [23:0] SPIAD; //spi flash address input LOAD; //Select dynamic address signal SPIAD at high level input ADWSEL; //0, the address is 24-bit; 1, the address is 32-bit(add 0 to the low 8-bit address) endmodule //OTP,One-Time-Programming module OTP ( DOUT, CLK, READ, SHIFT ); parameter MODE = 2'b01; //2'b01,read DNA info; 2'b00, read usr info; 2'b10, read usr control input CLK, READ, SHIFT; output DOUT; endmodule //CMSER(Configuration Memory Soft Error Recovery),GW5AT-138 module CMSER ( RUNNING, CRCERR, CRCDONE, ECCCORR, ECCUNCORR, ERRLOC, ECCDEC, DSRRD, DSRWR, ASRRESET, ASRINC, REFCLK, CLK, SEREN, ERRINJECT, ERRINJLOC ); output RUNNING; //The high level of this signal indicates CMSER is running output CRCERR; //one cycle high pulse to indicate the CRC error event output CRCDONE;//one cycle high pulse to indicate the completion of CRC calculation and comparison output ECCCORR; //one cycle high pulse to indicate the correctable ECC error event output ECCUNCORR; //one cycle high pulse to indicate the uncorrectable ECC error event output [27:0] ERRLOC; //the location of ECC error. output ECCDEC;//The indication of ECC block decoding is running.1: one ECC block is decoding at that clock cycle;0: no ECC decoding at that clock cycle output DSRRD; //one cycle high pulse to indicate the reading operation of DSR output DSRWR; //one cycle high pulse to indicate the writing operation of DSR output ASRRESET; //one cycle high pulse to indicate the reset of ASR output ASRINC; //one cycle high pulse to indicate the increase of ASR address output REFCLK; //the output reference clock for the generation of user CMSER interface design. input CLK; //SER clock input [2:0] SEREN;//(the critical signal using TMR scheme for error reduction).rising edge (at least two of three bits are detected to transit from "0" to "1") to start CMSER; falling edge (at least two bites are detected to transit from "1" to "0") to stop CMSER input ERRINJECT;//one cycle high pulse to indicate that an error is required to be injected into a ECC block; the pulse must arise at the same clock cycle as the target ECC block is under decoding input [6:0] ERRINJLOC; //the location of error within a 72-bit ECC block //0_nnnnnn: the location of 64-bit data, for example: //0_000000: the ECC data bit[0] //0_111111: the ECC data bit[63] //1_xxxnnn: the location of 8-bit parity //(x means “don’t care), for example: //1_xxx000: the ECC parity bit[0] //1_xxx111: the ECC parity bit[7] endmodule //CMSERA,GW5A-25 module CMSERA ( RUNNING, CRCERR, CRCDONE, ECCCORR, ECCUNCORR, ERR0LOC, ERR1LOC, ECCDEC, DSRRD, DSRWR, ASRRESET, ASRINC, REFCLK, CLK, SEREN, ERR0INJECT, ERR1INJECT, ERRINJ0LOC, ERRINJ1LOC ); output RUNNING; //The high level of this signal indicates CMSER is running output CRCERR; //one cycle high pulse to indicate the CRC error event output CRCDONE;//one cycle high pulse to indicate the completion of CRC calculation and comparison output ECCCORR; //one cycle high pulse to indicate the correctable ECC error event output ECCUNCORR; //one cycle high pulse to indicate the uncorrectable ECC error event output [26:0] ERR0LOC; //the location of ECC error 0. output [26:0] ERR1LOC; //the location of ECC error 1. output ECCDEC;//The indication of ECC block decoding is running.1: one ECC block is decoding at that clock cycle;0: no ECC decoding at that clock cycle output DSRRD; //one cycle high pulse to indicate the reading operation of DSR output DSRWR; //one cycle high pulse to indicate the writing operation of DSR output ASRRESET; //one cycle high pulse to indicate the reset of ASR output ASRINC; //one cycle high pulse to indicate the increase of ASR address output REFCLK; //the output reference clock for the generation of user CMSER interface design. input CLK; //SER clock input [2:0] SEREN;//(the critical signal using TMR scheme for error reduction).rising edge (at least two of three bits are detected to transit from "0" to "1") to start CMSER; falling edge (at least two bites are detected to transit from "1" to "0") to stop CMSER input ERR0INJECT, ERR1INJECT; input [6:0] ERRINJ0LOC, ERRINJ1LOC; endmodule //CMSERB,GW5A-60 module CMSERB ( RUNNING, CRCERR, CRCDONE, ECCCORR, ECCUNCORR, ERRLOC, ECCDEC, DSRRD, DSRWR, ASRRESET, ASRINC, REFCLK, CLK, SEREN, ERR0INJECT, ERR1INJECT, ERRINJ0LOC, ERRINJ1LOC ); output RUNNING; //The high level of this signal indicates CMSER is running output CRCERR; //one cycle high pulse to indicate the CRC error event output CRCDONE;//one cycle high pulse to indicate the completion of CRC calculation and comparison output ECCCORR; //one cycle high pulse to indicate the correctable ECC error event output ECCUNCORR; //one cycle high pulse to indicate the uncorrectable ECC error event output [12:0] ERRLOC; //the location of ECC error. output ECCDEC;//The indication of ECC block decoding is running.1: one ECC block is decoding at that clock cycle;0: no ECC decoding at that clock cycle output DSRRD; //one cycle high pulse to indicate the reading operation of DSR output DSRWR; //one cycle high pulse to indicate the writing operation of DSR output ASRRESET; //one cycle high pulse to indicate the reset of ASR output ASRINC; //one cycle high pulse to indicate the increase of ASR address output REFCLK; //the output reference clock for the generation of user CMSER interface design. input CLK; //SER clock input [2:0] SEREN;//(the critical signal using TMR scheme for error reduction).rising edge (at least two of three bits are detected to transit from "0" to "1") to start CMSER; falling edge (at least two bites are detected to transit from "1" to "0") to stop CMSER input ERR0INJECT, ERR1INJECT; input [6:0] ERRINJ0LOC, ERRINJ1LOC; endmodule //SAMBA,spi address for multi boot,GW5A-60 module SAMBA ( SPIAD, LOAD ); parameter MODE = 2'b00; //00,normal mode; 01, fast mode; 10,dual mode; 11,quad mode input SPIAD; //spi flash address input LOAD; //Select dynamic address signal SPIAD at high level endmodule /********ADC***********/ //ADC for LRC,GW5AT-138K module ADCLRC ( //Voltage signal source, /mV input ADCINBK2A, //input from bank2 IO, adc_in_b is the reference input ADCINBK2B, //input from bank2 IO, adc_in_b is the reference input ADCINBK3A, //input from bank3 IO, adc_in_b is the reference input ADCINBK3B, //input from bank3 IO, adc_in_b is the reference input ADCINBK4A, //input from bank4 IO, adc_in_b is the reference input ADCINBK4B, //input from bank4 IO, adc_in_b is the reference input ADCINBK5A, //input from bank5 IO, adc_in_b is the reference input ADCINBK5B, //input from bank5 IO, adc_in_b is the reference //control signal input [2:0] VSENCTL, //Input source selection (ciu), from 0 to 7: adcv, adct, vdd09_0, vdd09_1, vdd18_0, vdd18_1, vdd33_0, vdd33_1 input [9:0] FSCAL_VALUE, // temperature mode 510~948, typical value 730; Voltage mode 452~840, typical value 653 input [11:0] OFFSET_VALUE, //signed number, temperature mode - 1560~- 760, typical value - 1180; Voltage mode - 410~410, typical value 0 input ADCEN, //Enable signal, active high input CLK, //clk input，1/2 shared input DRSTN, //0/1 shared, Digital part reset signal, active low input ADCREQI, //Measurement request signal, valid rising edge, asynchronous signal //output output ADCRDY, //The measurement completion signal, active high output [13:0] ADCVALUE //The measurement result output, signed number. In voltage mode,/2048 is the actual measured value; In temperature mode,/4 is the actual measured value ); parameter DYN_BKEN = "FALSE"; //"FALSE","TRUE"."TRUE",BUF_BK2_EN[0]&BUF_BK3_EN[0]=1 //Input source selection，1/2 shared parameter BUF_SERDES_Q1_EN = 3'b000; //[1:0] does not support "11" parameter BUF_BK2_EN = 6'b000000; //[3:0] Only one bit can be 1 at the same time parameter BUF_BK3_EN = 6'b000000; //[3:0] Only one bit can be 1 at the same time parameter BUF_BK4_EN = 6'b000000; //[3:0] Only one bit can be 1 at the same time parameter BUF_BK5_EN = 6'b000000; //[3:0] Only one bit can be 1 at the same time parameter BUF_BK10_EN = 5'b00000; //[3:1] Only one bit can be 1 at the same time parameter BUF_BK11_EN = 5'b00000; //[3:1] Only one bit can be 1 at the same time //Analog terminal option parameter CLK_SEL = 1'b0; //Clock source selection. 0,PIOCLK_SEL，1,ciu_clk parameter PIOCLK_SEL = 1'b0; //Clock source selection. 1/2 shared，0,mck_adc_clk_osc，1,io_clk parameter VSEN_CTL = 3'b000; //Input source selection parameter VSEN_CTL_SEL = 1'b0; //vsen_ctl source selection，0,VSEN_CTL，1,ciu_vsen_ctl parameter ADC_MODE = 1'b0; //Mode selection parameter DIV_CTL = 2'd0; //clock division，0:/1，1:/2，2:/4，3:/8，Clock after frequency division, 500kHz~8MHz //Digital terminal options parameter SAMPLE_CNT_SEL = 3'd4; //total samples configuration, 0~4:64, 128, 256, 512, 1024 sampling points, and the other values are 2048 sampling points.The total number of samples shall be greater than 7 * sampling period, i.e. SAMPLR_CNT_SEL >= RATE_CHANGE_CTRL-1 parameter RATE_CHANGE_CTRL = 3'd4; //Sampling period configuration, 0~4:4、8、16、32、64，other values are 128 endmodule //ADCULC,GW5AT-138K module ADCULC ( //Voltage signal source, /mV input ADCINBK6A, //input from bank6 IO, adc_in_b is the reference input ADCINBK6B, //input from bank6 IO, adc_in_b is the reference input ADCINBK7A, //input from bank7 IO, adc_in_b is the reference input ADCINBK7B, //input from bank7 IO, adc_in_b is the reference //control signal input [2:0] VSENCTL, //Input source selection(cib)，0~7: vtest, vdd09_0, vdd09_1, vdd09_2, vdd18_0, vdd18_1, reserved, vdd33 input [9:0] FSCAL_VALUE, // temperature mode 510~948, typical value 730; Voltage mode 452~840, typical value 653 input [11:0] OFFSET_VALUE, //signed number, temperature mode - 1560~- 760, typical value - 1180; Voltage mode - 410~410, typical value 0 input ADCEN, //Enable signal, active high input CLK, //clk input input DRSTN, //0/1 shared, Digital part reset signal, active low input ADCREQI, //Measurement request signal, valid rising edge, asynchronous signal output ADCRDY, //The measurement completion signal, active high output [13:0] ADCVALUE //The measurement result output, signed number. In voltage mode,/2048 is the actual measured value; In temperature mode,/4 is the actual measured value ); parameter DYN_BKEN = "FALSE"; //"FALSE","TRUE"."TRUE",BUF_BK6_EN[0]&BUF_BK7_EN[0]=1 //Input source selection parameter BUF_VCC_EN = 1'b0; //ulc parameter BUF_VCCM_EN = 1'b0; //ulc parameter BUF_MIPI_M0_EN = 3'b000; //ulc,[1:0] Only one bit can be 1 at the same time parameter BUF_MIPI_M1_EN = 3'b000; //ulc,[1:0] Only one bit can be 1 at the same time parameter BUF_SERDES_Q0_EN = 3'b000; //ulc,[1:0] Only one bit can be 1 at the same time parameter BUF_BK6_EN = 6'b000000; //bk6,[3:0] Only one bit can be 1 at the same time parameter BUF_BK7_EN = 6'b000000; //bk7,[3:0] Only one bit can be 1 at the same time //Analog terminal option parameter CLK_SEL = 1'b0; //Clock source selection. 0,PIOCLK_SEL，1,ciu_clk parameter PIOCLK_SEL = 1'b0; //Clock source selection. 1/2 shared，0,mck_adc_clk_osc，1,io_clk parameter VSEN_CTL = 3'b000; //Input source selection parameter VSEN_CTL_SEL = 1'b0; //vsen_ctl source selection，0,VSEN_CTL，1,ciu_vsen_ctl parameter ADC_MODE = 1'b0; //Mode selection parameter DIV_CTL = 2'd0; //clock division，0:/1，1:/2，2:/4，3:/8，Clock after frequency division, 500kHz~8MHz //Digital terminal options parameter SAMPLE_CNT_SEL = 3'd4; //total samples configuration, 0~4:64, 128, 256, 512, 1024 sampling points, and the other values are 2048 sampling points.The total number of samples shall be greater than 7 * sampling period, i.e. SAMPLR_CNT_SEL >= RATE_CHANGE_CTRL-1 parameter RATE_CHANGE_CTRL = 3'd4; //Sampling period configuration, 0~4:4、8、16、32、64，other values are 128 endmodule //ADC,GW5A-25 module ADC ( //control signal input CLK, //clk input input [2:0] VSENCTL, //Input source selection (ciu), from 0 to 7: glo_left,glo_right,loc_left,vtest,vcc_rt,vccc_rt,vccm_rt,vccx_buf input ADCMODE, //Mode selection,0:temperature mode，1:voltage mode input DRSTN, //Digital part reset signal, active low input ADCREQI, //Measurement request signal, valid rising edge, asynchronous signal output ADCRDY, //The measurement completion signal, active high output [13:0] ADCVALUE, //The measurement result output, signed number. In voltage mode,/2048 is the actual measured value; In temperature mode,/4 is the actual measured value //mdrp input MDRP_CLK, //mdrp clock input [7:0] MDRP_WDATA, //mdrp write data input MDRP_A_INC, //mdrp self-increased address input [1:0] MDRP_OPCODE, //mdrp opcode output [7:0] MDRP_RDATA, //mdrp read data input ADCEN //Enable signal, active high ); //Analog terminal option parameter CLK_SEL = 1'b0; //时钟源选择，0:osc(2.5MHz)，1:CLK parameter DIV_CTL = 2'd0; //clock division，0:/1，1:/2，2:/4，3:/8，Clock after frequency division, 500kHz~8MHz //Input source selection parameter BUF_EN = 12'b000000000000; // parameter BUF_BK0_VREF_EN = 1'b0; // parameter BUF_BK1_VREF_EN = 1'b0; // parameter BUF_BK2_VREF_EN = 1'b0; // parameter BUF_BK3_VREF_EN = 1'b0; // parameter BUF_BK4_VREF_EN = 1'b0; // parameter BUF_BK5_VREF_EN = 1'b0; // parameter BUF_BK6_VREF_EN = 1'b0; // parameter BUF_BK7_VREF_EN = 1'b0; // //Digital terminal options parameter CSR_ADC_MODE = 1'b1; // Mode selection parameter CSR_VSEN_CTRL = 3'd0; // signal source:vccx/vccio_*/vcc_reg -> 7, signal source:vcc_ext -> 4, others -> 0 parameter CSR_SAMPLE_CNT_SEL = 3'd4; // total samples configuration, 0~4:64, 128, 256, 512, 1024 sampling points, and the other values are 2048 sampling points.The total number of samples shall be greater than 7 * sampling period, i.e. SAMPLR_CNT_SEL >= RATE_CHANGE_CTRL-1 parameter CSR_RATE_CHANGE_CTRL = 3'd4; // Sampling period configuration, 0~4:4、8、16、32、64，other values are 128 parameter CSR_FSCAL = 10'd730; // Parameter 1: temperature mode 510~948, typical value 730; Voltage mode 452~840, typical value 653 parameter CSR_OFFSET = -12'd1180; // Parameter 2, signed number, temperature mode - 1560~- 760, typical value - 1180; Voltage mode - 410~410, typical value 0 endmodule //LICD(lossless image compress/decompress),15k module LICD ( ENC_CODE, ENC_CODEVLD, ENC_VIDDEO, DEC_DFETCH, DEC_VIDSAMP2, DEC_VIDSAMP1, DEC_VIDSAMP0, DEC_VIDDEO, ENC_CLK, ENC_CE, ENC_RST, ENC_VIDDE, ENC_VIDSAMP2, ENC_VIDSAMP1, ENC_VIDSAMP0, DEC_CLK, DEC_CE, DEC_RST, DEC_VIDDE, DEC_DATAI ); //encoder input ENC_CLK; input ENC_CE; input ENC_RST; input ENC_VIDDE; input [23:0] ENC_VIDSAMP2; // enc[2] input sample input [23:0] ENC_VIDSAMP1; // enc[1] input sample input [23:0] ENC_VIDSAMP0; // enc[0] input sample output [95:0] ENC_CODE; //use [31:0] in 32-bit mode; use [63:0] in 64-bit mode; use [95:0] in 96-bit mode output ENC_CODEVLD; output ENC_VIDDEO; //decoder input DEC_CLK; input DEC_CE; input DEC_RST; input DEC_VIDDE; input [95:0] DEC_DATAI; //use [31:0] in 32-bit mode; use [63:0] in 64-bit mode; use [95:0] in 96-bit mode output DEC_DFETCH; output [23:0] DEC_VIDSAMP2; // dec[2] output sample output [23:0] DEC_VIDSAMP1; // dec[1] output sample output [23:0] DEC_VIDSAMP0; // dec[0] output sample output DEC_VIDDEO; //configuration parameter STAGE_NUM = 2'b00; //# of samples to be proceessed by each encdec per clock cycle. 'b01=1; 'b00=3; others=2 parameter ENCDEC_NUM = 2'b00; //# of encdec. 'b01=3; 'b00=2; others=1 parameter CODE_WIDTH = 2'b00; //the bus width of encoded data. 'b00=64; 'b01=32; others=96 parameter INTERLEAVE_EN = 3'b000; //bit[0]=encdec[0]; bit[1]=encdec[1]; bit[2]=encdec[2]. 'b1=interleave; 'b0=non-interleave parameter INTERLEAVE_MODE = 3'b000; //bit[0]=encdec[0]; bit[1]=encdec[1]; bit[2]=encdec[2]. 'b0=AB mode; 'b1=ABC mode endmodule //MIPI_DPHY_RX for 5AT138K module MIPI_DPHY_RX ( D0LN_HSRXD, D1LN_HSRXD, D2LN_HSRXD, D3LN_HSRXD, D0LN_HSRXD_VLD, D1LN_HSRXD_VLD, D2LN_HSRXD_VLD, D3LN_HSRXD_VLD, D0LN_DESKEW_DONE, D1LN_DESKEW_DONE, D2LN_DESKEW_DONE, D3LN_DESKEW_DONE, DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P, DI_LPRXCK_N, DI_LPRXCK_P, RX_CLK_O, DESKEW_ERROR, CK_N, CK_P, RX0_N, RX0_P, RX1_N, RX1_P, RX2_N, RX2_P, RX3_N, RX3_P, LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3, HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3, D0LN_HSRX_DREN, D1LN_HSRX_DREN, D2LN_HSRX_DREN, D3LN_HSRX_DREN, HSRX_EN_CK, DESKEW_REQ, HS_8BIT_MODE, RX_CLK_1X, RX_INVERT, LALIGN_EN, WALIGN_BY, DO_LPTX0_N, DO_LPTX0_P, DO_LPTX1_N, DO_LPTX1_P, DO_LPTX2_N, DO_LPTX2_P, DO_LPTX3_N, DO_LPTX3_P, DO_LPTXCK_N, DO_LPTXCK_P, LPTX_EN_CK, LPTX_EN_D0, LPTX_EN_D1, LPTX_EN_D2, LPTX_EN_D3, BYTE_LENDIAN, HSRX_STOP, PWRON, RESET, DESKEW_BY, DESKEW_EN_OEDGE, DESKEW_HALF_OPENING, DESKEW_LSB_MODE, DESKEW_LNSEL, DESKEW_MTH, DESKEW_M, DESKEW_MSET, DESKEW_OCLKEDG_EN, DESKEW_OWVAL, DRST_N, ONE_BYTE0_MATCH, WORD_LENDIAN, FIFO_RD_STD, EQCS_LANE0, EQCS_LANE1, EQCS_LANE2, EQCS_LANE3, EQCS_CK, EQRS_LANE0, EQRS_LANE1, EQRS_LANE2, EQRS_LANE3, EQRS_CK, HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_CK, HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_CK, HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_CK, WALIGN_DVLD ); output D0LN_DESKEW_DONE, D1LN_DESKEW_DONE, D2LN_DESKEW_DONE, D3LN_DESKEW_DONE; output [15:0] D0LN_HSRXD, D1LN_HSRXD, D2LN_HSRXD, D3LN_HSRXD;//data lane HS data output to fabric output D0LN_HSRXD_VLD,D1LN_HSRXD_VLD,D2LN_HSRXD_VLD,D3LN_HSRXD_VLD;//data lane HS data output valid to fabric output DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P;//Data Lane Complement/True Pad LPRX input output DI_LPRXCK_N, DI_LPRXCK_P; output RX_CLK_O; //HSRX Clock output output DESKEW_ERROR; //4 data lane deskew result error report inout CK_N, CK_P, RX0_N, RX0_P, RX1_N, RX1_P, RX2_N, RX2_P, RX3_N, RX3_P; input BYTE_LENDIAN; //bit data Littlendian/Bigendian of 8bit input [2:0] FIFO_RD_STD; //FIFO read threadhold; Can only be 1 in 8bit mode. input HSRX_STOP; //HSRX Clock Stop Signal for synchronization input PWRON; //PowerOn Control: 1'b1: HSRX on; 1'b0: HSRX off to standby in low power state input RESET; //Reset signal: 1'b1: reset all; input D0LN_HSRX_DREN, D1LN_HSRX_DREN, D2LN_HSRX_DREN, D3LN_HSRX_DREN;//Data Lane HSRX driver enabled input DESKEW_BY, DESKEW_EN_OEDGE; input [5:0] DESKEW_HALF_OPENING; input [2:0] DESKEW_LNSEL; //selection of lane to config delay overwrite value and make lane in deskew delay overwrite mode input [1:0] DESKEW_LSB_MODE; input [2:0] DESKEW_M; //counter threathold for confirming edge input [12:0] DESKEW_MTH; //counter threathold for searching one edge input [6:0] DESKEW_MSET; input DESKEW_OCLKEDG_EN; input [6:0] DESKEW_OWVAL; input DESKEW_REQ; //deskew function request to all data lanes input DO_LPTX0_N, DO_LPTX0_P, DO_LPTX1_N, DO_LPTX1_P, DO_LPTX2_N, DO_LPTX2_P, DO_LPTX3_N, DO_LPTX3_P;// Complement/True Pad LPTX output input DO_LPTXCK_N, DO_LPTXCK_P; input DRST_N; //digital reset, active low input [2:0] EQCS_LANE0, EQCS_LANE1, EQCS_LANE2, EQCS_LANE3, EQCS_CK; input [2:0] EQRS_LANE0, EQRS_LANE1, EQRS_LANE2, EQRS_LANE3, EQRS_CK; input HS_8BIT_MODE; //Selection of data width to Fabric input HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_CK; input HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_CK; input HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_CK; input HSRX_EN_CK; //CK Lane: 1'b1 HSRX enabled input HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3;//CK/Data Lane HSRX ODT enabled input LALIGN_EN; //lane aligner enable input LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3; input LPTX_EN_CK, LPTX_EN_D0, LPTX_EN_D1, LPTX_EN_D2, LPTX_EN_D3; //1'b1 LPTX enabled input ONE_BYTE0_MATCH; //byte count match in word aligner input RX_CLK_1X; //1X clock from fabric, max 93.75MHz@1.5Gbps input RX_INVERT; //data polarity selection input WALIGN_BY; //word aligner bypass input WALIGN_DVLD; input WORD_LENDIAN; //data little/big endian of dual word(16bit, 8bit/word). Not used in 8bit data output mode parameter ALIGN_BYTE = 8'b10111000; //KEY for word aligner and lane aligner parameter EN_CLKB1X = 1'b1; //1'b1: enable CLK2X to Fabric parameter EQ_ADPSEL_LANE0 = 1'b0; parameter EQ_ADPSEL_LANE1 = 1'b0; parameter EQ_ADPSEL_LANE2 = 1'b0; parameter EQ_ADPSEL_LANE3 = 1'b0; parameter EQ_ADPSEL_CK = 1'b0; parameter EQ_CS_LANE0 = 3'b100; parameter EQ_CS_LANE1 = 3'b100; parameter EQ_CS_LANE2 = 3'b100; parameter EQ_CS_LANE3 = 3'b100; parameter EQ_CS_CK = 3'b100; parameter EQ_PBIAS_LANE0 = 4'b0100;//Equalizer source current setting: 4'b0000(80uA)~4'b0111(360uA), 40uA/step parameter EQ_PBIAS_LANE1 = 4'b0100;//Equalizer source current setting: 4'b0000(80uA)~4'b0111(360uA), 40uA/step parameter EQ_PBIAS_LANE2 = 4'b0100;//Equalizer source current setting: 4'b0000(80uA)~4'b0111(360uA), 40uA/step parameter EQ_PBIAS_LANE3 = 4'b0100;//Equalizer source current setting: 4'b0000(80uA)~4'b0111(360uA), 40uA/step parameter EQ_PBIAS_CK = 4'b0100;//Equalizer source current setting: 4'b0000(80uA)~4'b0111(360uA), 40uA/step parameter EQ_RS_LANE0 = 3'b100; parameter EQ_RS_LANE1 = 3'b100; parameter EQ_RS_LANE2 = 3'b100; parameter EQ_RS_LANE3 = 3'b100; parameter EQ_RS_CK = 3'b100; parameter EQ_ZLD_LANE0 = 4'b1000;//Preamplifier Resistive Load Setting: 4'b0000 3K; 4'b0001 2.5K; 4'b0011 2K; 4'b0111 1.5K; 4'b1111 1K parameter EQ_ZLD_LANE1 = 4'b1000;//Preamplifier Resistive Load Setting: 4'b0000 3K; 4'b0001 2.5K; 4'b0011 2K; 4'b0111 1.5K; 4'b1111 1K parameter EQ_ZLD_LANE2 = 4'b1000;//Preamplifier Resistive Load Setting: 4'b0000 3K; 4'b0001 2.5K; 4'b0011 2K; 4'b0111 1.5K; 4'b1111 1K parameter EQ_ZLD_LANE3 = 4'b1000;//Preamplifier Resistive Load Setting: 4'b0000 3K; 4'b0001 2.5K; 4'b0011 2K; 4'b0111 1.5K; 4'b1111 1K parameter EQ_ZLD_CK = 4'b1000;//Preamplifier Resistive Load Setting: 4'b0000 3K; 4'b0001 2.5K; 4'b0011 2K; 4'b0111 1.5K; 4'b1111 1K parameter HIGH_BW_LANE0 = 1'b1; parameter HIGH_BW_LANE1 = 1'b1; parameter HIGH_BW_LANE2 = 1'b1; parameter HIGH_BW_LANE3 = 1'b1; parameter HIGH_BW_CK = 1'b1; parameter HSRX_DLYCTL_CK = 7'b0000000; parameter HSRX_DLYCTL_LANE0 = 7'b0000000; parameter HSRX_DLYCTL_LANE1 = 7'b0000000; parameter HSRX_DLYCTL_LANE2 = 7'b0000000; parameter HSRX_DLYCTL_LANE3 = 7'b0000000; parameter HSRX_DLY_SEL = 1'b0; parameter HSRX_DUTY_LANE0 = 4'b1000; parameter HSRX_DUTY_LANE1 = 4'b1000; parameter HSRX_DUTY_LANE2 = 4'b1000; parameter HSRX_DUTY_LANE3 = 4'b1000; parameter HSRX_DUTY_CK = 4'b1000; parameter HSRX_EN = 1'b1; parameter HSRX_EQ_EN_LANE0 = 1'b1; //Equalizer Enable of HSRX: 1'b0 disable; 1'b1 enable parameter HSRX_EQ_EN_LANE1 = 1'b1; //Equalizer Enable of HSRX: 1'b0 disable; 1'b1 enable parameter HSRX_EQ_EN_LANE2 = 1'b1; //Equalizer Enable of HSRX: 1'b0 disable; 1'b1 enable parameter HSRX_EQ_EN_LANE3 = 1'b1; //Equalizer Enable of HSRX: 1'b0 disable; 1'b1 enable parameter HSRX_EQ_EN_CK = 1'b1; //Equalizer Enable of HSRX: 1'b0 disable; 1'b1 enable parameter HSRX_IBIAS = 4'b0011;//HSRX current bias setting: default 4'b0011, available(4'b0000~4'b0111) 2uA/step parameter HSRX_IMARG_EN = 1'b1; parameter MIPI_LANE0_EN = 1'b0; // 1'b1, Lane0 on; parameter MIPI_LANE1_EN = 1'b0; // 1'b1, Lane1 on; parameter MIPI_LANE2_EN = 1'b0; // 1'b1, Lane2 on; parameter MIPI_LANE3_EN = 1'b0; // 1'b1, Lane3 on; parameter MIPI_CK_EN = 1'b1; //CK Lane Select: 1'b1 CK Lane on parameter HSRX_ODT_EN = 1'b1; //HSRX ODT enable for CIB control: 1'b1 enable parameter HSRX_ODT_TST = 4'b0000; parameter HSRX_ODT_TST_CK = 1'b0; parameter HSRX_STOP_EN = 1'b0; //Enable HSRX clock stop sync: 1'b1: enable parameter HSRX_TST = 4'b0000; parameter HSRX_TST_CK = 1'b0; parameter HSRX_WAIT4EDGE = 1'b0; parameter HYST_NCTL = 2'b01; //LPRX hysterisis control of VTH_N: 2'b00~2'b11 minimum~maximum parameter HYST_PCTL = 2'b01; //LPRX hysterisis control for VTH_P: 2'b00~2'b11 minimum~maximum parameter LOW_LPRX_VTH = 1'b0; parameter LPRX_EN = 1'b1; //1'b1: LPRX enabled for CIB control parameter LPRX_TST = 4'b0000; parameter LPRX_TST_CK = 1'b0; parameter LPTX_EN = 1'b1; //1'b1: LPTX enabled for CIB control parameter LPTX_SW_LANE0 = 3'b100; parameter LPTX_SW_LANE1 = 3'b100; parameter LPTX_SW_LANE2 = 3'b100; parameter LPTX_SW_LANE3 = 3'b100; parameter LPTX_SW_CK = 3'b100; parameter LPTX_TST = 4'b0000; parameter LPTX_TST_CK = 1'b0; parameter MIPI_DIS_N = 1'b1; parameter PGA_BIAS_LANE0 = 4'b1000; parameter PGA_BIAS_LANE1 = 4'b1000; parameter PGA_BIAS_LANE2 = 4'b1000; parameter PGA_BIAS_LANE3 = 4'b1000; parameter PGA_BIAS_CK = 4'b1000; parameter PGA_GAIN_LANE0 = 4'b1000; parameter PGA_GAIN_LANE1 = 4'b1000; parameter PGA_GAIN_LANE2 = 4'b1000; parameter PGA_GAIN_LANE3 = 4'b1000; parameter PGA_GAIN_CK = 4'b1000; parameter RX_CLK1X_SYNC_SEL = 1'b0; parameter RX_ODT_TRIM_LANE0 = 4'b0111; //100ohm ODT trimming, ~4ohm/step parameter RX_ODT_TRIM_LANE1 = 4'b0111; //100ohm ODT trimming, ~4ohm/step parameter RX_ODT_TRIM_LANE2 = 4'b0111; //100ohm ODT trimming, ~4ohm/step parameter RX_ODT_TRIM_LANE3 = 4'b0111; //100ohm ODT trimming, ~4ohm/step parameter RX_ODT_TRIM_CK = 4'b0111; //100ohm ODT trimming, ~4ohm/step parameter STP_UNIT = 2'b00; parameter SYNC_CLK_SEL = 1'b1;//select clock source for HS lane output data:0,select fabric input clock rx_clk_1x; 1,select output clock RX_CLK_O parameter WALIGN_DVLD_SRC_SEL = 1'b0; endmodule //MIPI_DPHY for GW5A-25 module MIPI_DPHY ( ALPEDO_LANE0, ALPEDO_LANE1, ALPEDO_LANE2, ALPEDO_LANE3, ALPEDO_LANECK, RX_CLK_O, TX_CLK_O, D0LN_DESKEW_DONE, D0LN_DESKEW_ERROR, D0LN_HSRXD, D0LN_HSRXD_VLD, D1LN_DESKEW_DONE, D1LN_DESKEW_ERROR, D1LN_HSRXD, D1LN_HSRXD_VLD, D2LN_DESKEW_DONE, D2LN_DESKEW_ERROR, D2LN_HSRXD, D2LN_HSRXD_VLD, D3LN_DESKEW_DONE, D3LN_DESKEW_ERROR, D3LN_HSRXD, D3LN_HSRXD_VLD, DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P, DI_LPRXCK_N, DI_LPRXCK_P, MRDATA, CK_N, CK_P, D0_N, D0_P, D1_N, D1_P, D2_N, D2_P, D3_N, D3_P, ALP_EDEN_LANE0, ALP_EDEN_LANE1, ALP_EDEN_LANE2, ALP_EDEN_LANE3, ALP_EDEN_LANECK, ALPEN_LN0, ALPEN_LN1, ALPEN_LN2, ALPEN_LN3, ALPEN_LNCK, HSRX_STOP, HSTXEN_LN0, HSTXEN_LN1, HSTXEN_LN2, HSTXEN_LN3, HSTXEN_LNCK, LPTXEN_LN0, LPTXEN_LN1, LPTXEN_LN2, LPTXEN_LN3, LPTXEN_LNCK, PWRON_RX, PWRON_TX, RESET, RX_CLK_1X, TX_CLK_1X, TXDPEN_LN0, TXDPEN_LN1, TXDPEN_LN2, TXDPEN_LN3, TXDPEN_LNCK, TXHCLK_EN, CKLN_HSTXD, D0LN_DESKEW_REQ, D0LN_HSRX_DREN, D0LN_HSTXD, D1LN_DESKEW_REQ, D1LN_HSRX_DREN, D1LN_HSTXD, D2LN_DESKEW_REQ, D2LN_HSRX_DREN, D2LN_HSTXD, D3LN_DESKEW_REQ, D3LN_HSRX_DREN, D3LN_HSTXD, HSTXD_VLD, DO_LPTX0_N, DO_LPTX1_N, DO_LPTX2_N, DO_LPTX3_N, DO_LPTXCK_N, DO_LPTX0_P, DO_LPTX1_P, DO_LPTX2_P, DO_LPTX3_P, DO_LPTXCK_P, HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_LANECK, HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_LANECK, HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_LANECK, HSRX_EN_CK, HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2, HSRX_EN_D3, HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3, LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3, MA_INC, MCLK, MOPCODE, MWDATA, RX_DRST_N, TX_DRST_N, WALIGN_DVLD, CK0, CK90, CK180, CK270 ); output RX_CLK_O, TX_CLK_O; output [15:0] D0LN_HSRXD, D1LN_HSRXD, D2LN_HSRXD, D3LN_HSRXD;//data lane HS data output to fabric output D0LN_HSRXD_VLD,D1LN_HSRXD_VLD,D2LN_HSRXD_VLD,D3LN_HSRXD_VLD;//data lane HS data output valid to fabric input D0LN_HSRX_DREN, D1LN_HSRX_DREN, D2LN_HSRX_DREN, D3LN_HSRX_DREN; output DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P, DI_LPRXCK_N, DI_LPRXCK_P; inout CK_N, CK_P, D0_N, D0_P, D1_N, D1_P, D2_N, D2_P, D3_N, D3_P; input HSRX_STOP, HSTXEN_LN0, HSTXEN_LN1, HSTXEN_LN2, HSTXEN_LN3, HSTXEN_LNCK, LPTXEN_LN0, LPTXEN_LN1, LPTXEN_LN2, LPTXEN_LN3, LPTXEN_LNCK; input PWRON_RX, PWRON_TX, RESET, RX_CLK_1X, TX_CLK_1X; input TXDPEN_LN0, TXDPEN_LN1, TXDPEN_LN2, TXDPEN_LN3, TXDPEN_LNCK, TXHCLK_EN; input [15:0] CKLN_HSTXD, D0LN_HSTXD, D1LN_HSTXD, D2LN_HSTXD, D3LN_HSTXD; input HSTXD_VLD; input CK0, CK90, CK180, CK270; input DO_LPTX0_N, DO_LPTX1_N, DO_LPTX2_N, DO_LPTX3_N, DO_LPTXCK_N, DO_LPTX0_P, DO_LPTX1_P, DO_LPTX2_P, DO_LPTX3_P, DO_LPTXCK_P; input HSRX_EN_CK, HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2, HSRX_EN_D3, HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3, LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3; input RX_DRST_N, TX_DRST_N, WALIGN_DVLD; output [7:0] MRDATA; input MA_INC, MCLK; input [1:0] MOPCODE; input [7:0] MWDATA; /********Reserved port********/ output ALPEDO_LANE0, ALPEDO_LANE1, ALPEDO_LANE2, ALPEDO_LANE3, ALPEDO_LANECK; output D1LN_DESKEW_DONE, D2LN_DESKEW_DONE, D3LN_DESKEW_DONE, D0LN_DESKEW_DONE; output D1LN_DESKEW_ERROR, D2LN_DESKEW_ERROR, D3LN_DESKEW_ERROR, D0LN_DESKEW_ERROR; input D0LN_DESKEW_REQ, D1LN_DESKEW_REQ, D2LN_DESKEW_REQ, D3LN_DESKEW_REQ; input HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_LANECK; input HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_LANECK; input HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_LANECK; input ALP_EDEN_LANE0, ALP_EDEN_LANE1, ALP_EDEN_LANE2, ALP_EDEN_LANE3, ALP_EDEN_LANECK, ALPEN_LN0, ALPEN_LN1, ALPEN_LN2, ALPEN_LN3, ALPEN_LNCK; parameter TX_PLLCLK = "NONE"; //"NONE", "SLOW", "FAST" parameter RX_ALIGN_BYTE = 8'b10111000; parameter RX_HS_8BIT_MODE = 1'b0; parameter RX_LANE_ALIGN_EN = 1'b0; parameter TX_HS_8BIT_MODE = 1'b0; parameter HSREG_EN_LN0 = 1'b0; parameter HSREG_EN_LN1 = 1'b0; parameter HSREG_EN_LN2 = 1'b0; parameter HSREG_EN_LN3 = 1'b0; parameter HSREG_EN_LNCK = 1'b0; parameter LANE_DIV_SEL = 2'b00; parameter HSRX_EN = 1'b1; parameter HSRX_LANESEL = 4'b1111; parameter HSRX_LANESEL_CK = 1'b1; parameter HSTX_EN_LN0 = 1'b0; parameter HSTX_EN_LN1 = 1'b0; parameter HSTX_EN_LN2 = 1'b0; parameter HSTX_EN_LN3 = 1'b0; parameter HSTX_EN_LNCK = 1'b0; parameter LPTX_EN_LN0 = 1'b1; parameter LPTX_EN_LN1 = 1'b1; parameter LPTX_EN_LN2 = 1'b1; parameter LPTX_EN_LN3 = 1'b1; parameter LPTX_EN_LNCK = 1'b1; parameter TXDP_EN_LN0 = 1'b0; parameter TXDP_EN_LN1 = 1'b0; parameter TXDP_EN_LN2 = 1'b0; parameter TXDP_EN_LN3 = 1'b0; parameter TXDP_EN_LNCK = 1'b0; /********Reserved parameters********/ parameter CKLN_DELAY_EN = 1'b0; parameter CKLN_DELAY_OVR_VAL = 7'b0000000; parameter D0LN_DELAY_EN = 1'b0; parameter D0LN_DELAY_OVR_VAL = 7'b0000000; parameter D0LN_DESKEW_BYPASS = 1'b0; parameter D1LN_DELAY_EN = 1'b0; parameter D1LN_DELAY_OVR_VAL = 7'b0000000; parameter D1LN_DESKEW_BYPASS = 1'b0; parameter D2LN_DELAY_EN = 1'b0; parameter D2LN_DELAY_OVR_VAL = 7'b0000000; parameter D2LN_DESKEW_BYPASS = 1'b0; parameter D3LN_DELAY_EN = 1'b0; parameter D3LN_DELAY_OVR_VAL = 7'b0000000; parameter D3LN_DESKEW_BYPASS = 1'b0; parameter DESKEW_EN_LOW_DELAY = 1'b0; parameter DESKEW_EN_ONE_EDGE = 1'b0; parameter DESKEW_FAST_LOOP_TIME = 4'b0000; parameter DESKEW_FAST_MODE = 1'b0; parameter DESKEW_HALF_OPENING = 6'b010110; parameter DESKEW_LSB_MODE = 2'b00; parameter DESKEW_M = 3'b011; parameter DESKEW_M_TH = 13'b0000110100110; parameter DESKEW_MAX_SETTING = 7'b0100001; parameter DESKEW_ONE_CLK_EDGE_EN = 1'b0; parameter DESKEW_RST_BYPASS = 1'b0; parameter RX_BYTE_LITTLE_ENDIAN = 1'b1; parameter RX_CLK_1X_SYNC_SEL = 1'b0; parameter RX_INVERT = 1'b0; parameter RX_ONE_BYTE0_MATCH = 1'b0; parameter RX_RD_START_DEPTH = 5'b00001; parameter RX_SYNC_MODE = 1'b0; parameter RX_WORD_ALIGN_BYPASS = 1'b0; parameter RX_WORD_ALIGN_DATA_VLD_SRC_SEL = 1'b0; parameter RX_WORD_LITTLE_ENDIAN = 1'b1; parameter TX_BYPASS_MODE = 1'b0; parameter TX_BYTECLK_SYNC_MODE = 1'b0; parameter TX_OCLK_USE_CIBCLK = 1'b0; parameter TX_RD_START_DEPTH = 5'b00001; parameter TX_SYNC_MODE = 1'b0; parameter TX_WORD_LITTLE_ENDIAN = 1'b1; parameter EQ_CS_LANE0 = 3'b100; parameter EQ_CS_LANE1 = 3'b100; parameter EQ_CS_LANE2 = 3'b100; parameter EQ_CS_LANE3 = 3'b100; parameter EQ_CS_LANECK = 3'b100; parameter EQ_RS_LANE0 = 3'b100; parameter EQ_RS_LANE1 = 3'b100; parameter EQ_RS_LANE2 = 3'b100; parameter EQ_RS_LANE3 = 3'b100; parameter EQ_RS_LANECK = 3'b100; parameter HSCLK_LANE_LN0 = 1'b0; parameter HSCLK_LANE_LN1 = 1'b0; parameter HSCLK_LANE_LN2 = 1'b0; parameter HSCLK_LANE_LN3 = 1'b0; parameter HSCLK_LANE_LNCK = 1'b1; parameter ALP_ED_EN_LANE0 = 1'b1; parameter ALP_ED_EN_LANE1 = 1'b1; parameter ALP_ED_EN_LANE2 = 1'b1; parameter ALP_ED_EN_LANE3 = 1'b1; parameter ALP_ED_EN_LANECK = 1'b1; parameter ALP_ED_TST_LANE0 = 1'b0; parameter ALP_ED_TST_LANE1 = 1'b0; parameter ALP_ED_TST_LANE2 = 1'b0; parameter ALP_ED_TST_LANE3 = 1'b0; parameter ALP_ED_TST_LANECK = 1'b0; parameter ALP_EN_LN0 = 1'b0; parameter ALP_EN_LN1 = 1'b0; parameter ALP_EN_LN2 = 1'b0; parameter ALP_EN_LN3 = 1'b0; parameter ALP_EN_LNCK = 1'b0; parameter ALP_HYS_EN_LANE0 = 1'b1; parameter ALP_HYS_EN_LANE1 = 1'b1; parameter ALP_HYS_EN_LANE2 = 1'b1; parameter ALP_HYS_EN_LANE3 = 1'b1; parameter ALP_HYS_EN_LANECK = 1'b1; parameter ALP_TH_LANE0 = 4'b1000; parameter ALP_TH_LANE1 = 4'b1000; parameter ALP_TH_LANE2 = 4'b1000; parameter ALP_TH_LANE3 = 4'b1000; parameter ALP_TH_LANECK = 4'b1000; parameter ANA_BYTECLK_PH = 2'b00; parameter BIT_REVERSE_LN0 = 1'b0; parameter BIT_REVERSE_LN1 = 1'b0; parameter BIT_REVERSE_LN2 = 1'b0; parameter BIT_REVERSE_LN3 = 1'b0; parameter BIT_REVERSE_LNCK = 1'b0; parameter BYPASS_TXHCLKEN = 1'b1; parameter BYPASS_TXHCLKEN_SYNC = 1'b0; parameter BYTE_CLK_POLAR = 1'b0; parameter BYTE_REVERSE_LN0 = 1'b0; parameter BYTE_REVERSE_LN1 = 1'b0; parameter BYTE_REVERSE_LN2 = 1'b0; parameter BYTE_REVERSE_LN3 = 1'b0; parameter BYTE_REVERSE_LNCK = 1'b0; parameter EN_CLKB1X = 1'b1; parameter EQ_PBIAS_LANE0 = 4'b1000; parameter EQ_PBIAS_LANE1 = 4'b1000; parameter EQ_PBIAS_LANE2 = 4'b1000; parameter EQ_PBIAS_LANE3 = 4'b1000; parameter EQ_PBIAS_LANECK = 4'b1000; parameter EQ_ZLD_LANE0 = 4'b1000; parameter EQ_ZLD_LANE1 = 4'b1000; parameter EQ_ZLD_LANE2 = 4'b1000; parameter EQ_ZLD_LANE3 = 4'b1000; parameter EQ_ZLD_LANECK = 4'b1000; parameter HIGH_BW_LANE0 = 1'b1; parameter HIGH_BW_LANE1 = 1'b1; parameter HIGH_BW_LANE2 = 1'b1; parameter HIGH_BW_LANE3 = 1'b1; parameter HIGH_BW_LANECK = 1'b1; parameter HSREG_VREF_CTL = 3'b100; parameter HSREG_VREF_EN = 1'b1; parameter HSRX_DLY_CTL_CK = 7'b0000000; parameter HSRX_DLY_CTL_LANE0 = 7'b0000000; parameter HSRX_DLY_CTL_LANE1 = 7'b0000000; parameter HSRX_DLY_CTL_LANE2 = 7'b0000000; parameter HSRX_DLY_CTL_LANE3 = 7'b0000000; parameter HSRX_DLY_SEL_LANE0 = 1'b0; parameter HSRX_DLY_SEL_LANE1 = 1'b0; parameter HSRX_DLY_SEL_LANE2 = 1'b0; parameter HSRX_DLY_SEL_LANE3 = 1'b0; parameter HSRX_DLY_SEL_LANECK = 1'b0; parameter HSRX_DUTY_LANE0 = 4'b1000; parameter HSRX_DUTY_LANE1 = 4'b1000; parameter HSRX_DUTY_LANE2 = 4'b1000; parameter HSRX_DUTY_LANE3 = 4'b1000; parameter HSRX_DUTY_LANECK = 4'b1000; parameter HSRX_EQ_EN_LANE0 = 1'b1; parameter HSRX_EQ_EN_LANE1 = 1'b1; parameter HSRX_EQ_EN_LANE2 = 1'b1; parameter HSRX_EQ_EN_LANE3 = 1'b1; parameter HSRX_EQ_EN_LANECK = 1'b1; parameter HSRX_IBIAS = 4'b0011; parameter HSRX_IBIAS_TEST_EN = 1'b0; parameter HSRX_IMARG_EN = 1'b0; parameter HSRX_ODT_EN = 1'b1; parameter HSRX_ODT_TST = 4'b0000; parameter HSRX_ODT_TST_CK = 1'b0; parameter HSRX_SEL = 4'b0000; parameter HSRX_STOP_EN = 1'b0; parameter HSRX_TST = 4'b0000; parameter HSRX_TST_CK = 1'b0; parameter HSRX_WAIT4EDGE = 1'b1; parameter HYST_NCTL = 2'b01; parameter HYST_PCTL = 2'b01; parameter IBIAS_TEST_EN = 1'b0; parameter LB_CH_SEL = 1'b0; parameter LB_EN_LN0 = 1'b0; parameter LB_EN_LN1 = 1'b0; parameter LB_EN_LN2 = 1'b0; parameter LB_EN_LN3 = 1'b0; parameter LB_EN_LNCK = 1'b0; parameter LB_POLAR_LN0 = 1'b0; parameter LB_POLAR_LN1 = 1'b0; parameter LB_POLAR_LN2 = 1'b0; parameter LB_POLAR_LN3 = 1'b0; parameter LB_POLAR_LNCK = 1'b0; parameter LOW_LPRX_VTH = 1'b0; parameter LPBK_DATA2TO1 = 4'b0000; parameter LPBK_DATA2TO1_CK = 1'b0; parameter LPBK_EN = 1'b0; parameter LPBK_SEL = 4'b0000; parameter LPBKTST_EN = 4'b0000; parameter LPBKTST_EN_CK = 1'b0; parameter LPRX_EN = 1'b1; parameter LPRX_TST = 4'b0000; parameter LPRX_TST_CK = 1'b0; parameter LPTX_DAT_POLAR_LN0 = 1'b0; parameter LPTX_DAT_POLAR_LN1 = 1'b0; parameter LPTX_DAT_POLAR_LN2 = 1'b0; parameter LPTX_DAT_POLAR_LN3 = 1'b0; parameter LPTX_DAT_POLAR_LNCK = 1'b0; parameter LPTX_NIMP_LN0 = 3'b100; parameter LPTX_NIMP_LN1 = 3'b100; parameter LPTX_NIMP_LN2 = 3'b100; parameter LPTX_NIMP_LN3 = 3'b100; parameter LPTX_NIMP_LNCK = 3'b100; parameter LPTX_PIMP_LN0 = 3'b100; parameter LPTX_PIMP_LN1 = 3'b100; parameter LPTX_PIMP_LN2 = 3'b100; parameter LPTX_PIMP_LN3 = 3'b100; parameter LPTX_PIMP_LNCK = 3'b100; parameter MIPI_PMA_DIS_N = 1'b1; parameter PGA_BIAS_LANE0 = 4'b1000; parameter PGA_BIAS_LANE1 = 4'b1000; parameter PGA_BIAS_LANE2 = 4'b1000; parameter PGA_BIAS_LANE3 = 4'b1000; parameter PGA_BIAS_LANECK = 4'b1000; parameter PGA_GAIN_LANE0 = 4'b1000; parameter PGA_GAIN_LANE1 = 4'b1000; parameter PGA_GAIN_LANE2 = 4'b1000; parameter PGA_GAIN_LANE3 = 4'b1000; parameter PGA_GAIN_LANECK = 4'b1000; parameter RX_ODT_TRIM_LANE0 = 4'b1000; parameter RX_ODT_TRIM_LANE1 = 4'b1000; parameter RX_ODT_TRIM_LANE2 = 4'b1000; parameter RX_ODT_TRIM_LANE3 = 4'b1000; parameter RX_ODT_TRIM_LANECK = 4'b1000; parameter SLEWN_CTL_LN0 = 4'b1111; parameter SLEWN_CTL_LN1 = 4'b1111; parameter SLEWN_CTL_LN2 = 4'b1111; parameter SLEWN_CTL_LN3 = 4'b1111; parameter SLEWN_CTL_LNCK = 4'b1111; parameter SLEWP_CTL_LN0 = 4'b1111; parameter SLEWP_CTL_LN1 = 4'b1111; parameter SLEWP_CTL_LN2 = 4'b1111; parameter SLEWP_CTL_LN3 = 4'b1111; parameter SLEWP_CTL_LNCK = 4'b1111; parameter STP_UNIT = 2'b01; parameter TERMN_CTL_LN0 = 4'b1000; parameter TERMN_CTL_LN1 = 4'b1000; parameter TERMN_CTL_LN2 = 4'b1000; parameter TERMN_CTL_LN3 = 4'b1000; parameter TERMN_CTL_LNCK = 4'b1000; parameter TERMP_CTL_LN0 = 4'b1000; parameter TERMP_CTL_LN1 = 4'b1000; parameter TERMP_CTL_LN2 = 4'b1000; parameter TERMP_CTL_LN3 = 4'b1000; parameter TERMP_CTL_LNCK = 4'b1000; parameter TEST_EN_LN0 = 1'b0; parameter TEST_EN_LN1 = 1'b0; parameter TEST_EN_LN2 = 1'b0; parameter TEST_EN_LN3 = 1'b0; parameter TEST_EN_LNCK = 1'b0; parameter TEST_N_IMP_LN0 = 1'b0; parameter TEST_N_IMP_LN1 = 1'b0; parameter TEST_N_IMP_LN2 = 1'b0; parameter TEST_N_IMP_LN3 = 1'b0; parameter TEST_N_IMP_LNCK = 1'b0; parameter TEST_P_IMP_LN0 = 1'b0; parameter TEST_P_IMP_LN1 = 1'b0; parameter TEST_P_IMP_LN2 = 1'b0; parameter TEST_P_IMP_LN3 = 1'b0; parameter TEST_P_IMP_LNCK = 1'b0; endmodule //MIPI_DPHY for 60K module MIPI_DPHYA ( ALPEDO_LANE0, ALPEDO_LANE1, ALPEDO_LANE2, ALPEDO_LANE3, ALPEDO_LANECK, RX_CLK_O, TX_CLK_O, D0LN_DESKEW_DONE, D0LN_DESKEW_ERROR, D0LN_HSRXD, D0LN_HSRXD_VLD, D1LN_DESKEW_DONE, D1LN_DESKEW_ERROR, D1LN_HSRXD, D1LN_HSRXD_VLD, D2LN_DESKEW_DONE, D2LN_DESKEW_ERROR, D2LN_HSRXD, D2LN_HSRXD_VLD, D3LN_DESKEW_DONE, D3LN_DESKEW_ERROR, D3LN_HSRXD, D3LN_HSRXD_VLD, DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P, DI_LPRXCK_N, DI_LPRXCK_P, MRDATA, CK_N, CK_P, D0_N, D0_P, D1_N, D1_P, D2_N, D2_P, D3_N, D3_P, ALP_EDEN_LANE0, ALP_EDEN_LANE1, ALP_EDEN_LANE2, ALP_EDEN_LANE3, ALP_EDEN_LANECK, ALPEN_LN0, ALPEN_LN1, ALPEN_LN2, ALPEN_LN3, ALPEN_LNCK, HSRX_STOP, HSTXEN_LN0, HSTXEN_LN1, HSTXEN_LN2, HSTXEN_LN3, HSTXEN_LNCK, LPTXEN_LN0, LPTXEN_LN1, LPTXEN_LN2, LPTXEN_LN3, LPTXEN_LNCK, PWRON_RX, PWRON_TX, RESET, RX_CLK_1X, TX_CLK_1X, TXDPEN_LN0, TXDPEN_LN1, TXDPEN_LN2, TXDPEN_LN3, TXDPEN_LNCK, TXHCLK_EN, CKLN_HSTXD, D0LN_DESKEW_REQ, D0LN_HSRX_DREN, D0LN_HSTXD, D1LN_DESKEW_REQ, D1LN_HSRX_DREN, D1LN_HSTXD, D2LN_DESKEW_REQ, D2LN_HSRX_DREN, D2LN_HSTXD, D3LN_DESKEW_REQ, D3LN_HSRX_DREN, D3LN_HSTXD, HSTXD_VLD, DO_LPTX0_N, DO_LPTX1_N, DO_LPTX2_N, DO_LPTX3_N, DO_LPTXCK_N, DO_LPTX0_P, DO_LPTX1_P, DO_LPTX2_P, DO_LPTX3_P, DO_LPTXCK_P, HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_LANECK, HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_LANECK, HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_LANECK, HSRX_EN_CK, HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2, HSRX_EN_D3, HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3, LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3, MA_INC, MCLK, MOPCODE, MWDATA, RX_DRST_N, TX_DRST_N, WALIGN_DVLD, CK0, CK90, CK180, CK270, SPLL_CKN, SPLL_CKP ); output RX_CLK_O, TX_CLK_O; output [15:0] D0LN_HSRXD, D1LN_HSRXD, D2LN_HSRXD, D3LN_HSRXD;//data lane HS data output to fabric output D0LN_HSRXD_VLD,D1LN_HSRXD_VLD,D2LN_HSRXD_VLD,D3LN_HSRXD_VLD;//data lane HS data output valid to fabric input D0LN_HSRX_DREN, D1LN_HSRX_DREN, D2LN_HSRX_DREN, D3LN_HSRX_DREN; output DI_LPRX0_N, DI_LPRX0_P, DI_LPRX1_N, DI_LPRX1_P, DI_LPRX2_N, DI_LPRX2_P, DI_LPRX3_N, DI_LPRX3_P, DI_LPRXCK_N, DI_LPRXCK_P; inout CK_N, CK_P, D0_N, D0_P, D1_N, D1_P, D2_N, D2_P, D3_N, D3_P; input HSRX_STOP, HSTXEN_LN0, HSTXEN_LN1, HSTXEN_LN2, HSTXEN_LN3, HSTXEN_LNCK, LPTXEN_LN0, LPTXEN_LN1, LPTXEN_LN2, LPTXEN_LN3, LPTXEN_LNCK; input PWRON_RX, PWRON_TX, RESET, RX_CLK_1X, TX_CLK_1X; input TXDPEN_LN0, TXDPEN_LN1, TXDPEN_LN2, TXDPEN_LN3, TXDPEN_LNCK, TXHCLK_EN; input [15:0] CKLN_HSTXD, D0LN_HSTXD, D1LN_HSTXD, D2LN_HSTXD, D3LN_HSTXD; input HSTXD_VLD; input CK0, CK90, CK180, CK270; input DO_LPTX0_N, DO_LPTX1_N, DO_LPTX2_N, DO_LPTX3_N, DO_LPTXCK_N, DO_LPTX0_P, DO_LPTX1_P, DO_LPTX2_P, DO_LPTX3_P, DO_LPTXCK_P; input HSRX_EN_CK, HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2, HSRX_EN_D3, HSRX_ODTEN_CK, HSRX_ODTEN_D0, HSRX_ODTEN_D1, HSRX_ODTEN_D2, HSRX_ODTEN_D3, LPRX_EN_CK, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, LPRX_EN_D3; input RX_DRST_N, TX_DRST_N, WALIGN_DVLD; output [7:0] MRDATA; input MA_INC, MCLK; input [1:0] MOPCODE; input [7:0] MWDATA; input SPLL_CKN, SPLL_CKP; /********Reserved port********/ output ALPEDO_LANE0, ALPEDO_LANE1, ALPEDO_LANE2, ALPEDO_LANE3, ALPEDO_LANECK; output D1LN_DESKEW_DONE, D2LN_DESKEW_DONE, D3LN_DESKEW_DONE, D0LN_DESKEW_DONE; output D1LN_DESKEW_ERROR, D2LN_DESKEW_ERROR, D3LN_DESKEW_ERROR, D0LN_DESKEW_ERROR; input D0LN_DESKEW_REQ, D1LN_DESKEW_REQ, D2LN_DESKEW_REQ, D3LN_DESKEW_REQ; input HSRX_DLYDIR_LANE0, HSRX_DLYDIR_LANE1, HSRX_DLYDIR_LANE2, HSRX_DLYDIR_LANE3, HSRX_DLYDIR_LANECK; input HSRX_DLYLDN_LANE0, HSRX_DLYLDN_LANE1, HSRX_DLYLDN_LANE2, HSRX_DLYLDN_LANE3, HSRX_DLYLDN_LANECK; input HSRX_DLYMV_LANE0, HSRX_DLYMV_LANE1, HSRX_DLYMV_LANE2, HSRX_DLYMV_LANE3, HSRX_DLYMV_LANECK; input ALP_EDEN_LANE0, ALP_EDEN_LANE1, ALP_EDEN_LANE2, ALP_EDEN_LANE3, ALP_EDEN_LANECK, ALPEN_LN0, ALPEN_LN1, ALPEN_LN2, ALPEN_LN3, ALPEN_LNCK; parameter TX_PLLCLK = "NONE"; //"NONE", "SLOW", "FAST" parameter RX_ALIGN_BYTE = 8'b10111000; parameter RX_HS_8BIT_MODE = 1'b0; parameter RX_LANE_ALIGN_EN = 1'b0; parameter TX_HS_8BIT_MODE = 1'b0; parameter HSREG_EN_LN0 = 1'b0; parameter HSREG_EN_LN1 = 1'b0; parameter HSREG_EN_LN2 = 1'b0; parameter HSREG_EN_LN3 = 1'b0; parameter HSREG_EN_LNCK = 1'b0; parameter LANE_DIV_SEL = 2'b00; parameter HSRX_EN = 1'b1; parameter HSRX_LANESEL = 4'b1111; parameter HSRX_LANESEL_CK = 1'b1; parameter HSTX_EN_LN0 = 1'b0; parameter HSTX_EN_LN1 = 1'b0; parameter HSTX_EN_LN2 = 1'b0; parameter HSTX_EN_LN3 = 1'b0; parameter HSTX_EN_LNCK = 1'b0; parameter LPTX_EN_LN0 = 1'b1; parameter LPTX_EN_LN1 = 1'b1; parameter LPTX_EN_LN2 = 1'b1; parameter LPTX_EN_LN3 = 1'b1; parameter LPTX_EN_LNCK = 1'b1; parameter TXDP_EN_LN0 = 1'b0; parameter TXDP_EN_LN1 = 1'b0; parameter TXDP_EN_LN2 = 1'b0; parameter TXDP_EN_LN3 = 1'b0; parameter TXDP_EN_LNCK = 1'b0; parameter SPLL_DIV_SEL = 2'b00; //00:2; 01:4; 10:8; 11:16 parameter DPHY_CK_SEL = 2'b01; //00/10:0; 01:gpll; 11: spll /********Reserved parameters********/ parameter CKLN_DELAY_EN = 1'b0; parameter CKLN_DELAY_OVR_VAL = 7'b0000000; parameter D0LN_DELAY_EN = 1'b0; parameter D0LN_DELAY_OVR_VAL = 7'b0000000; parameter D0LN_DESKEW_BYPASS = 1'b0; parameter D1LN_DELAY_EN = 1'b0; parameter D1LN_DELAY_OVR_VAL = 7'b0000000; parameter D1LN_DESKEW_BYPASS = 1'b0; parameter D2LN_DELAY_EN = 1'b0; parameter D2LN_DELAY_OVR_VAL = 7'b0000000; parameter D2LN_DESKEW_BYPASS = 1'b0; parameter D3LN_DELAY_EN = 1'b0; parameter D3LN_DELAY_OVR_VAL = 7'b0000000; parameter D3LN_DESKEW_BYPASS = 1'b0; parameter DESKEW_EN_LOW_DELAY = 1'b0; parameter DESKEW_EN_ONE_EDGE = 1'b0; parameter DESKEW_FAST_LOOP_TIME = 4'b0000; parameter DESKEW_FAST_MODE = 1'b0; parameter DESKEW_HALF_OPENING = 6'b010110; parameter DESKEW_LSB_MODE = 2'b00; parameter DESKEW_M = 3'b011; parameter DESKEW_M_TH = 13'b0000110100110; parameter DESKEW_MAX_SETTING = 7'b0100001; parameter DESKEW_ONE_CLK_EDGE_EN = 1'b0; parameter DESKEW_RST_BYPASS = 1'b0; parameter RX_BYTE_LITTLE_ENDIAN = 1'b1; parameter RX_CLK_1X_SYNC_SEL = 1'b0; parameter RX_INVERT = 1'b0; parameter RX_ONE_BYTE0_MATCH = 1'b0; parameter RX_RD_START_DEPTH = 5'b00001; parameter RX_SYNC_MODE = 1'b0; parameter RX_WORD_ALIGN_BYPASS = 1'b0; parameter RX_WORD_ALIGN_DATA_VLD_SRC_SEL = 1'b0; parameter RX_WORD_LITTLE_ENDIAN = 1'b1; parameter TX_BYPASS_MODE = 1'b0; parameter TX_BYTECLK_SYNC_MODE = 1'b0; parameter TX_OCLK_USE_CIBCLK = 1'b0; parameter TX_RD_START_DEPTH = 5'b00001; parameter TX_SYNC_MODE = 1'b0; parameter TX_WORD_LITTLE_ENDIAN = 1'b1; parameter EQ_CS_LANE0 = 3'b100; parameter EQ_CS_LANE1 = 3'b100; parameter EQ_CS_LANE2 = 3'b100; parameter EQ_CS_LANE3 = 3'b100; parameter EQ_CS_LANECK = 3'b100; parameter EQ_RS_LANE0 = 3'b100; parameter EQ_RS_LANE1 = 3'b100; parameter EQ_RS_LANE2 = 3'b100; parameter EQ_RS_LANE3 = 3'b100; parameter EQ_RS_LANECK = 3'b100; parameter HSCLK_LANE_LN0 = 1'b0; parameter HSCLK_LANE_LN1 = 1'b0; parameter HSCLK_LANE_LN2 = 1'b0; parameter HSCLK_LANE_LN3 = 1'b0; parameter HSCLK_LANE_LNCK = 1'b1; parameter ALP_ED_EN_LANE0 = 1'b1; parameter ALP_ED_EN_LANE1 = 1'b1; parameter ALP_ED_EN_LANE2 = 1'b1; parameter ALP_ED_EN_LANE3 = 1'b1; parameter ALP_ED_EN_LANECK = 1'b1; parameter ALP_ED_TST_LANE0 = 1'b0; parameter ALP_ED_TST_LANE1 = 1'b0; parameter ALP_ED_TST_LANE2 = 1'b0; parameter ALP_ED_TST_LANE3 = 1'b0; parameter ALP_ED_TST_LANECK = 1'b0; parameter ALP_EN_LN0 = 1'b0; parameter ALP_EN_LN1 = 1'b0; parameter ALP_EN_LN2 = 1'b0; parameter ALP_EN_LN3 = 1'b0; parameter ALP_EN_LNCK = 1'b0; parameter ALP_HYS_EN_LANE0 = 1'b1; parameter ALP_HYS_EN_LANE1 = 1'b1; parameter ALP_HYS_EN_LANE2 = 1'b1; parameter ALP_HYS_EN_LANE3 = 1'b1; parameter ALP_HYS_EN_LANECK = 1'b1; parameter ALP_TH_LANE0 = 4'b1000; parameter ALP_TH_LANE1 = 4'b1000; parameter ALP_TH_LANE2 = 4'b1000; parameter ALP_TH_LANE3 = 4'b1000; parameter ALP_TH_LANECK = 4'b1000; parameter ANA_BYTECLK_PH = 2'b00; parameter BIT_REVERSE_LN0 = 1'b0; parameter BIT_REVERSE_LN1 = 1'b0; parameter BIT_REVERSE_LN2 = 1'b0; parameter BIT_REVERSE_LN3 = 1'b0; parameter BIT_REVERSE_LNCK = 1'b0; parameter BYPASS_TXHCLKEN = 1'b1; parameter BYPASS_TXHCLKEN_SYNC = 1'b0; parameter BYTE_CLK_POLAR = 1'b0; parameter BYTE_REVERSE_LN0 = 1'b0; parameter BYTE_REVERSE_LN1 = 1'b0; parameter BYTE_REVERSE_LN2 = 1'b0; parameter BYTE_REVERSE_LN3 = 1'b0; parameter BYTE_REVERSE_LNCK = 1'b0; parameter EN_CLKB1X = 1'b1; parameter EQ_PBIAS_LANE0 = 4'b1000; parameter EQ_PBIAS_LANE1 = 4'b1000; parameter EQ_PBIAS_LANE2 = 4'b1000; parameter EQ_PBIAS_LANE3 = 4'b1000; parameter EQ_PBIAS_LANECK = 4'b1000; parameter EQ_ZLD_LANE0 = 4'b1000; parameter EQ_ZLD_LANE1 = 4'b1000; parameter EQ_ZLD_LANE2 = 4'b1000; parameter EQ_ZLD_LANE3 = 4'b1000; parameter EQ_ZLD_LANECK = 4'b1000; parameter HIGH_BW_LANE0 = 1'b1; parameter HIGH_BW_LANE1 = 1'b1; parameter HIGH_BW_LANE2 = 1'b1; parameter HIGH_BW_LANE3 = 1'b1; parameter HIGH_BW_LANECK = 1'b1; parameter HSREG_VREF_CTL = 3'b100; parameter HSREG_VREF_EN = 1'b1; parameter HSRX_DLY_CTL_CK = 7'b0000000; parameter HSRX_DLY_CTL_LANE0 = 7'b0000000; parameter HSRX_DLY_CTL_LANE1 = 7'b0000000; parameter HSRX_DLY_CTL_LANE2 = 7'b0000000; parameter HSRX_DLY_CTL_LANE3 = 7'b0000000; parameter HSRX_DLY_SEL_LANE0 = 1'b0; parameter HSRX_DLY_SEL_LANE1 = 1'b0; parameter HSRX_DLY_SEL_LANE2 = 1'b0; parameter HSRX_DLY_SEL_LANE3 = 1'b0; parameter HSRX_DLY_SEL_LANECK = 1'b0; parameter HSRX_DUTY_LANE0 = 4'b1000; parameter HSRX_DUTY_LANE1 = 4'b1000; parameter HSRX_DUTY_LANE2 = 4'b1000; parameter HSRX_DUTY_LANE3 = 4'b1000; parameter HSRX_DUTY_LANECK = 4'b1000; parameter HSRX_EQ_EN_LANE0 = 1'b1; parameter HSRX_EQ_EN_LANE1 = 1'b1; parameter HSRX_EQ_EN_LANE2 = 1'b1; parameter HSRX_EQ_EN_LANE3 = 1'b1; parameter HSRX_EQ_EN_LANECK = 1'b1; parameter HSRX_IBIAS = 4'b0011; parameter HSRX_IBIAS_TEST_EN = 1'b0; parameter HSRX_IMARG_EN = 1'b0; parameter HSRX_ODT_EN = 1'b1; parameter HSRX_ODT_TST = 4'b0000; parameter HSRX_ODT_TST_CK = 1'b0; parameter HSRX_SEL = 4'b0000; parameter HSRX_STOP_EN = 1'b0; parameter HSRX_TST = 4'b0000; parameter HSRX_TST_CK = 1'b0; parameter HSRX_WAIT4EDGE = 1'b1; parameter HYST_NCTL = 2'b01; parameter HYST_PCTL = 2'b01; parameter IBIAS_TEST_EN = 1'b0; parameter LB_CH_SEL = 1'b0; parameter LB_EN_LN0 = 1'b0; parameter LB_EN_LN1 = 1'b0; parameter LB_EN_LN2 = 1'b0; parameter LB_EN_LN3 = 1'b0; parameter LB_EN_LNCK = 1'b0; parameter LB_POLAR_LN0 = 1'b0; parameter LB_POLAR_LN1 = 1'b0; parameter LB_POLAR_LN2 = 1'b0; parameter LB_POLAR_LN3 = 1'b0; parameter LB_POLAR_LNCK = 1'b0; parameter LOW_LPRX_VTH = 1'b0; parameter LPBK_DATA2TO1 = 4'b0000; parameter LPBK_DATA2TO1_CK = 1'b0; parameter LPBK_EN = 1'b0; parameter LPBK_SEL = 4'b0000; parameter LPBKTST_EN = 4'b0000; parameter LPBKTST_EN_CK = 1'b0; parameter LPRX_EN = 1'b1; parameter LPRX_TST = 4'b0000; parameter LPRX_TST_CK = 1'b0; parameter LPTX_DAT_POLAR_LN0 = 1'b0; parameter LPTX_DAT_POLAR_LN1 = 1'b0; parameter LPTX_DAT_POLAR_LN2 = 1'b0; parameter LPTX_DAT_POLAR_LN3 = 1'b0; parameter LPTX_DAT_POLAR_LNCK = 1'b0; parameter LPTX_NIMP_LN0 = 3'b100; parameter LPTX_NIMP_LN1 = 3'b100; parameter LPTX_NIMP_LN2 = 3'b100; parameter LPTX_NIMP_LN3 = 3'b100; parameter LPTX_NIMP_LNCK = 3'b100; parameter LPTX_PIMP_LN0 = 3'b100; parameter LPTX_PIMP_LN1 = 3'b100; parameter LPTX_PIMP_LN2 = 3'b100; parameter LPTX_PIMP_LN3 = 3'b100; parameter LPTX_PIMP_LNCK = 3'b100; parameter MIPI_PMA_DIS_N = 1'b1; parameter PGA_BIAS_LANE0 = 4'b1000; parameter PGA_BIAS_LANE1 = 4'b1000; parameter PGA_BIAS_LANE2 = 4'b1000; parameter PGA_BIAS_LANE3 = 4'b1000; parameter PGA_BIAS_LANECK = 4'b1000; parameter PGA_GAIN_LANE0 = 4'b1000; parameter PGA_GAIN_LANE1 = 4'b1000; parameter PGA_GAIN_LANE2 = 4'b1000; parameter PGA_GAIN_LANE3 = 4'b1000; parameter PGA_GAIN_LANECK = 4'b1000; parameter RX_ODT_TRIM_LANE0 = 4'b1000; parameter RX_ODT_TRIM_LANE1 = 4'b1000; parameter RX_ODT_TRIM_LANE2 = 4'b1000; parameter RX_ODT_TRIM_LANE3 = 4'b1000; parameter RX_ODT_TRIM_LANECK = 4'b1000; parameter SLEWN_CTL_LN0 = 4'b1111; parameter SLEWN_CTL_LN1 = 4'b1111; parameter SLEWN_CTL_LN2 = 4'b1111; parameter SLEWN_CTL_LN3 = 4'b1111; parameter SLEWN_CTL_LNCK = 4'b1111; parameter SLEWP_CTL_LN0 = 4'b1111; parameter SLEWP_CTL_LN1 = 4'b1111; parameter SLEWP_CTL_LN2 = 4'b1111; parameter SLEWP_CTL_LN3 = 4'b1111; parameter SLEWP_CTL_LNCK = 4'b1111; parameter STP_UNIT = 2'b01; parameter TERMN_CTL_LN0 = 4'b1000; parameter TERMN_CTL_LN1 = 4'b1000; parameter TERMN_CTL_LN2 = 4'b1000; parameter TERMN_CTL_LN3 = 4'b1000; parameter TERMN_CTL_LNCK = 4'b1000; parameter TERMP_CTL_LN0 = 4'b1000; parameter TERMP_CTL_LN1 = 4'b1000; parameter TERMP_CTL_LN2 = 4'b1000; parameter TERMP_CTL_LN3 = 4'b1000; parameter TERMP_CTL_LNCK = 4'b1000; parameter TEST_EN_LN0 = 1'b0; parameter TEST_EN_LN1 = 1'b0; parameter TEST_EN_LN2 = 1'b0; parameter TEST_EN_LN3 = 1'b0; parameter TEST_EN_LNCK = 1'b0; parameter TEST_N_IMP_LN0 = 1'b0; parameter TEST_N_IMP_LN1 = 1'b0; parameter TEST_N_IMP_LN2 = 1'b0; parameter TEST_N_IMP_LN3 = 1'b0; parameter TEST_N_IMP_LNCK = 1'b0; parameter TEST_P_IMP_LN0 = 1'b0; parameter TEST_P_IMP_LN1 = 1'b0; parameter TEST_P_IMP_LN2 = 1'b0; parameter TEST_P_IMP_LN3 = 1'b0; parameter TEST_P_IMP_LNCK = 1'b0; endmodule //MIPI CPHY module MIPI_CPHY ( D0LN_HSRXD, D0LN_HSRXD_VLD, D0LN_HSRX_DEMAP_INVLD, D0LN_HSRX_FIFO_RDE_ERR, D0LN_HSRX_FIFO_WRF_ERR, D0LN_HSRX_WA, D0LN_RX_CLK_1X_O, D1LN_HSRXD, D1LN_HSRXD_VLD, D1LN_HSRX_DEMAP_INVLD, D1LN_HSRX_FIFO_RDE_ERR, D1LN_HSRX_FIFO_WRF_ERR, D1LN_HSRX_WA, D1LN_RX_CLK_1X_O, D2LN_HSRXD, D2LN_HSRXD_VLD, D2LN_HSRX_DEMAP_INVLD, D2LN_HSRX_FIFO_RDE_ERR, D2LN_HSRX_FIFO_WRF_ERR, D2LN_HSRX_WA, D2LN_RX_CLK_1X_O, HSTX_FIFO_AE, HSTX_FIFO_AF, HSTX_FIFO_RDE_ERR, HSTX_FIFO_WRF_ERR, RX_CLK_MUXED, TX_CLK_1X_O, DI_LPRX0_A, DI_LPRX0_B, DI_LPRX0_C, DI_LPRX1_A, DI_LPRX1_B, DI_LPRX1_C, DI_LPRX2_A, DI_LPRX2_B, DI_LPRX2_C, MDRP_RDATA, D0A, D0B, D0C, D1A, D1B, D1C, D2A, D2B, D2C, D0LN_HSRX_EN, D0LN_HSTX_DATA, D0LN_HSTX_DATA_VLD, D0LN_HSTX_EN, D0LN_HSTX_MAP_DIS, D0LN_RX_CLK_1X_I, D0LN_RX_DRST_N, D0LN_TX_DRST_N, D1LN_HSRX_EN, D1LN_HSTX_DATA, D1LN_HSTX_DATA_VLD, D1LN_HSTX_EN, D1LN_HSTX_MAP_DIS, D1LN_RX_CLK_1X_I, D1LN_RX_DRST_N, D1LN_TX_DRST_N, D2LN_HSRX_EN, D2LN_HSTX_DATA, D2LN_HSTX_DATA_VLD, D2LN_HSTX_EN, D2LN_HSTX_MAP_DIS, D2LN_RX_CLK_1X_I, D2LN_RX_DRST_N, D2LN_TX_DRST_N, HSTX_ENLN0, HSTX_ENLN1, HSTX_ENLN2, LPTX_ENLN0, LPTX_ENLN1, LPTX_ENLN2, MDRP_A_D_I, MDRP_A_INC_I, MDRP_CLK_I, MDRP_OPCODE_I, PWRON_RX_LN0, PWRON_RX_LN1, PWRON_RX_LN2, PWRON_TX, ARST_RXLN0, ARST_RXLN1, ARST_RXLN2, ARSTN_TX, RX_CLK_EN_LN0, RX_CLK_EN_LN1, RX_CLK_EN_LN2, TX_CLK_1X_I, TXDP_ENLN0, TXDP_ENLN1, TXDP_ENLN2, TXHCLK_EN, DO_LPTX_A_LN0, DO_LPTX_A_LN1, DO_LPTX_A_LN2, DO_LPTX_B_LN0, DO_LPTX_B_LN1, DO_LPTX_B_LN2, DO_LPTX_C_LN0, DO_LPTX_C_LN1, DO_LPTX_C_LN2, GPLL_CK0, GPLL_CK90, GPLL_CK180, GPLL_CK270, HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2, HSRX_ODT_EN_D0, HSRX_ODT_EN_D1, HSRX_ODT_EN_D2, LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2, SPLL0_CKN, SPLL0_CKP, SPLL1_CKN, SPLL1_CKP ); output [41:0] D0LN_HSRXD, D1LN_HSRXD, D2LN_HSRXD; output D0LN_HSRXD_VLD, D1LN_HSRXD_VLD, D2LN_HSRXD_VLD; output [1:0] D0LN_HSRX_DEMAP_INVLD, D1LN_HSRX_DEMAP_INVLD, D2LN_HSRX_DEMAP_INVLD; output D0LN_HSRX_FIFO_RDE_ERR, D0LN_HSRX_FIFO_WRF_ERR, D1LN_HSRX_FIFO_RDE_ERR, D1LN_HSRX_FIFO_WRF_ERR, D2LN_HSRX_FIFO_RDE_ERR, D2LN_HSRX_FIFO_WRF_ERR; output [1:0] D0LN_HSRX_WA, D1LN_HSRX_WA, D2LN_HSRX_WA; output D0LN_RX_CLK_1X_O, D1LN_RX_CLK_1X_O, D2LN_RX_CLK_1X_O; output HSTX_FIFO_AE, HSTX_FIFO_AF; output HSTX_FIFO_RDE_ERR, HSTX_FIFO_WRF_ERR; output RX_CLK_MUXED; output TX_CLK_1X_O; output DI_LPRX0_A, DI_LPRX0_B, DI_LPRX0_C, DI_LPRX1_A, DI_LPRX1_B, DI_LPRX1_C, DI_LPRX2_A, DI_LPRX2_B, DI_LPRX2_C; output [7:0] MDRP_RDATA; inout D0A, D0B, D0C, D1A, D1B, D1C, D2A, D2B, D2C; input D0LN_HSRX_EN, D0LN_HSTX_EN, D1LN_HSRX_EN, D1LN_HSTX_EN, D2LN_HSRX_EN, D2LN_HSTX_EN; input [41:0] D0LN_HSTX_DATA, D1LN_HSTX_DATA, D2LN_HSTX_DATA; input D0LN_HSTX_DATA_VLD, D1LN_HSTX_DATA_VLD, D2LN_HSTX_DATA_VLD; input [1:0] D0LN_HSTX_MAP_DIS, D1LN_HSTX_MAP_DIS, D2LN_HSTX_MAP_DIS; input D0LN_RX_CLK_1X_I, D1LN_RX_CLK_1X_I, D2LN_RX_CLK_1X_I; input D0LN_RX_DRST_N, D0LN_TX_DRST_N, D1LN_RX_DRST_N, D1LN_TX_DRST_N, D2LN_RX_DRST_N, D2LN_TX_DRST_N; input HSTX_ENLN0, HSTX_ENLN1, HSTX_ENLN2, LPTX_ENLN0, LPTX_ENLN1, LPTX_ENLN2; input [7:0] MDRP_A_D_I; input MDRP_A_INC_I; input MDRP_CLK_I; input [1:0] MDRP_OPCODE_I; input PWRON_RX_LN0, PWRON_RX_LN1, PWRON_RX_LN2, PWRON_TX; input ARST_RXLN0, ARST_RXLN1, ARST_RXLN2; input ARSTN_TX; input RX_CLK_EN_LN0, RX_CLK_EN_LN1, RX_CLK_EN_LN2; input TX_CLK_1X_I; input TXDP_ENLN0, TXDP_ENLN1, TXDP_ENLN2; input TXHCLK_EN; input DO_LPTX_A_LN0, DO_LPTX_A_LN1, DO_LPTX_A_LN2, DO_LPTX_B_LN0, DO_LPTX_B_LN1, DO_LPTX_B_LN2, DO_LPTX_C_LN0, DO_LPTX_C_LN1, DO_LPTX_C_LN2; input GPLL_CK0, GPLL_CK90, GPLL_CK180, GPLL_CK270; input HSRX_EN_D0, HSRX_EN_D1, HSRX_EN_D2; input HSRX_ODT_EN_D0, HSRX_ODT_EN_D1, HSRX_ODT_EN_D2; input LPRX_EN_D0, LPRX_EN_D1, LPRX_EN_D2; input SPLL0_CKN, SPLL0_CKP, SPLL1_CKN, SPLL1_CKP; parameter TX_PLLCLK = "NONE"; //"NONE", "SLOW", "FAST" parameter D0LN_HS_TX_EN = 1'b1; //data lane HS TX enable; 1=enable,0=disable parameter D1LN_HS_TX_EN = 1'b1; parameter D2LN_HS_TX_EN = 1'b1; parameter D0LN_HS_RX_EN = 1'b1; //data lane HS RX enable; 1=enable,0=disable parameter D1LN_HS_RX_EN = 1'b1; parameter D2LN_HS_RX_EN = 1'b1; parameter TX_HS_21BIT_MODE = 1'b0; //Selection of tx data width from Fabric;1=21bit input mode,0=42bit input mode parameter RX_OUTCLK_SEL = 2'b00; //the RX out clock to global buffer selection; 00: lane0 RX clk,01: lane1 RX clk, 10: lane2 RX clk, 11: 1'b0 parameter TX_W_LENDIAN = 1'b1; //in 42-bit mode use this bit to set which byte will be sent out firstly; 0=send out higher 21-bit data firstly, 1=send out lower 21-bit data firstly parameter CLK_SEL = 2'b00; //MIPI TX lane clk select: 00:gpll;01:spll0; 1x:spll1 parameter LNDIV_RATIO = 4'b0000; //MIPI TX lane divider ratio config. 0000~1111: /2 ~ /30. parameter LNDIV_EN = 1'b0; //MIPI TX lane divide enable parameter D0LN_TX_REASGN_A = 2'b00; //the data of the lane0 pina can be reassigned to pina,pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter D0LN_TX_REASGN_B = 2'b01; //the data of the lane0 pinb can be reassigned to pina,pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter D0LN_TX_REASGN_C = 2'b10; //the data of the lane0 pinc can be reassigned to pina,pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter D0LN_RX_HS_21BIT_MODE = 1'b0; //Selection of lane0 rx data width to Fabric; 1=21bit input mode,0=42bit input mode parameter D0LN_RX_WA_SYNC_PAT0_EN = 1'b1; //lane0 word aligner sync pattern0(default:44444) enable; 1=enable to detect sync pattern0, 0=disable parameter D0LN_RX_WA_SYNC_PAT0_H = 7'b1001001; //the higher 7-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit), 'h49 parameter D0LN_RX_WA_SYNC_PAT0_L = 8'b00100100; //the lower 8-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit), 'h24 parameter D0LN_RX_WA_SYNC_PAT1_EN = 1'b1; //lane0 word aligner sync pattern1(default:44444) enable; 1=enable to detect sync pattern1, 0=disable parameter D0LN_RX_WA_SYNC_PAT1_H = 7'b0101001; //the higher 7-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit), 'h29 parameter D0LN_RX_WA_SYNC_PAT1_L = 8'b00100100; //the lower 8-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit), 'h24 parameter D0LN_RX_WA_SYNC_PAT2_EN = 1'b1; //lane0 word aligner sync pattern2(default:44444) enable; 1=enable to detect sync pattern2, 0=disable parameter D0LN_RX_WA_SYNC_PAT2_H = 7'b0011001; //the higher 7-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit), 'h19 parameter D0LN_RX_WA_SYNC_PAT2_L = 8'b00100100; //the lower 8-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit), 'h24 parameter D0LN_RX_WA_SYNC_PAT3_EN = 1'b0; //lane0 word aligner sync pattern3(default:44444) enable; 1=enable to detect sync pattern3, 0=disable parameter D0LN_RX_WA_SYNC_PAT3_H = 7'b0001001; //the higher 7-bit sync pat3 value(sync pat3 includes the 5-symbol(15-bit), 'h09 parameter D0LN_RX_WA_SYNC_PAT3_L = 8'b00100100; //the lower 8-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit), 'h24 parameter D0LN_RX_W_LENDIAN = 1'b1; //in 42-bit mode use this bit to set which byte will be sent in firstly for the lane0; 0= put the received data to the higher 21-bit data firstly, 1= put the received data to the lower 21-bit data firstly parameter D0LN_RX_REASGN_A = 2'b00; //the data of the lane0 pina can be reassigned to pina ; pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter D0LN_RX_REASGN_B = 2'b01; //the data of the lane0 pinb can be reassigned to pina ; pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter D0LN_RX_REASGN_C = 2'b10; //the data of the lane0 pinc can be reassigned to pina ; pinb or pinc; 00=connected to pina, 01=connected to pinb, 1x=connected to pinc parameter HSRX_LNSEL = 3'b111; //Data Lane Select: each bit controls a lane, [0]=1'b1 Lane0 on,[1]=1'b1 Lane2 on,[2]=1'b1 Lane2 on parameter EQ_RS_LN0 = 3'b001; //Data lane0: EQ degeneration resistor control. (mc1_eq_rs_lane0[2:0]=eq_rs_lane0[2:0]) parameter EQ_CS_LN0 = 3'b101; //Data lane0: EQ degeneration cap control.(mc1_eq_cs_lane0[2:0]=eq_cs_lane0[2:0]) parameter PGA_GAIN_LN0 = 4'b0110; //Data lane1: PGA amplifier gain config. parameter PGA_BIAS_LN0 = 4'b1000; //Data lane1: PGA amplifier tail current config. parameter EQ_PBIAS_LN0 = 4'b0100; //Data Lane0: Equalizer source current setting default 4'b1000 parameter EQ_ZLD_LN0 = 4'b1000; //Data Lane0: Preamplifier Resistive Load Setting: 4'b0000 smallest res loading parameter D1LN_TX_REASGN_A = 2'b00; //the data of the lane1 pina can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D1LN_TX_REASGN_B = 2'b01; //the data of the lane1 pinb can be reassigned to pina ; pinb or pinc;00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D1LN_TX_REASGN_C = 2'b10; //the data of the lane1 pinc can be reassigned to pina ; pinb or pinc;00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D1LN_RX_HS_21BIT_MODE = 1'b0; //Selection of lane1 rx data width to Fabric;1=21bit input mode,0=42bit input mode parameter D1LN_RX_WA_SYNC_PAT0_EN = 1'b1; //lane1 word aligner sync pattern0(default:44444) enable;1=enable to detect sync pattern0, 0=disable parameter D1LN_RX_WA_SYNC_PAT0_H = 7'b1001001; //the higher 7-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT0_L = 8'b00100100; //the lower 8-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT1_EN = 1'b1; //lane1 word aligner sync pattern1(default:24444) enable;1=enable to detect sync pattern1,0=disable parameter D1LN_RX_WA_SYNC_PAT1_H = 7'b0101001; //the higher 7-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT1_L = 8'b00100100; //the lower 8-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT2_EN = 1'b1; //lane1 word aligner sync pattern2(default:14444) enable;1=enable to detect sync pattern2,0=disable parameter D1LN_RX_WA_SYNC_PAT2_H = 7'b0011001; //the higher 7-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT2_L = 8'b00100100; //the lower 8-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT3_EN = 1'b0; //lane1 word aligner sync pattern3(default:04444) enable;1=enable to detect sync pattern3,0=disable parameter D1LN_RX_WA_SYNC_PAT3_H = 7'b0001001; //the higher 7-bit sync pat3 value(sync pat3 includes the 5-symbol(15-bit) parameter D1LN_RX_WA_SYNC_PAT3_L = 8'b00100100; //the lower 8-bit sync pat3 value(sync pat3 includes the 5-symbol(15-bit) parameter D1LN_RX_W_LENDIAN = 1'b1; //in 42-bit mode use this bit to set which byte will be sent in firstly for the lane1;0= put the received data to the higher 21-bit data firstly,1= put the received data to the lower 21-bit data firstly parameter D1LN_RX_REASGN_A = 2'b00; //the data of the lane1 pina can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to parameter D1LN_RX_REASGN_B = 2'b01; //the data of the lane1 pinb can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D1LN_RX_REASGN_C = 2'b10; //the data of the lane1 pinc can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter EQ_RS_LN1 = 3'b001; //Data lane1: EQ degeneration resistor control. (mc1_eq_rs_lane0[2:0]=eq_rs_lane0[2:0]) parameter EQ_CS_LN1 = 3'b101; //Data lane1: EQ degeneration cap control.(mc1_eq_cs_lane0[2:0]=eq_cs_lane0[2:0]) parameter PGA_GAIN_LN1 = 4'b0110; //Data lane1: PGA amplifier gain config. parameter PGA_BIAS_LN1 = 4'b1000; //Data lane1: PGA amplifier tail current config. parameter EQ_PBIAS_LN1 = 4'b0100; //Data Lane1: Equalizer source current setting default 4'b1000 parameter EQ_ZLD_LN1 = 4'b1000; //Data Lane1: Preamplifier Resistive Load Setting: 4'b0000 smallest res loading parameter D2LN_TX_REASGN_A = 2'b00; //the data of the lane2 pina can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D2LN_TX_REASGN_B = 2'b01; //the data of the lane2 pinb can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D2LN_TX_REASGN_C = 2'b10; //the data of the lane2 pinc can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D2LN_RX_HS_21BIT_MODE = 1'b0; //Selection of lane2 rx data width to Fabric;1=21bit input mode,0=42bit input mode parameter D2LN_RX_WA_SYNC_PAT0_EN = 1'b1; //lane2 word aligner sync pattern0(default:44444) enable;1=enable to detect sync pattern0, 0=disable parameter D2LN_RX_WA_SYNC_PAT0_H = 7'b1001001; //the higher 7-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT0_L = 8'b00100100; //the lower 8-bit sync pat0 value(sync pat0 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT1_EN = 1'b1; //lane2 word aligner sync pattern1(default:24444) enable;1=enable to detect sync pattern1,0=disable parameter D2LN_RX_WA_SYNC_PAT1_H = 7'b0101001; //the higher 7-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT1_L = 8'b00100100; //the lower 8-bit sync pat1 value(sync pat1 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT2_EN = 1'b1; //lane2 word aligner sync pattern2(default:14444) enable;1=enable to detect sync pattern2,0=disable parameter D2LN_RX_WA_SYNC_PAT2_H = 7'b0011001; //the higher 7-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT2_L = 8'b00100100; //the lower 8-bit sync pat2 value(sync pat2 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT3_EN = 1'b0; //lane2 word aligner sync pattern3(default:04444) enable;1=enable to detect sync pattern3,0=disable parameter D2LN_RX_WA_SYNC_PAT3_H = 7'b0001001; //the higher 7-bit sync pat3 value(sync pat3 includes the 5-symbol(15-bit) parameter D2LN_RX_WA_SYNC_PAT3_L = 8'b00100100; //the lower 8-bit sync pat3 value(sync pat3 includes the 5-symbol(15-bit) parameter D2LN_RX_W_LENDIAN = 1'b1; //in 42-bit mode use this bit to set which byte will be sent in firstly for the lane2; 0= put the received data to the higher 21-bit data firstly,1= put the received data to the lower 21-bit data firstly parameter D2LN_RX_REASGN_A = 2'b00; //the data of the lane2 pina can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D2LN_RX_REASGN_B = 2'b01; //the data of the lane2 pinb can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter D2LN_RX_REASGN_C = 2'b10; //the data of the lane2 pinc can be reassigned to pina ; pinb or pinc; 00=connected to pina,01=connected to pinb,1x=connected to pinc parameter EQ_RS_LN2 = 3'b001; //Data lane2: EQ degeneration resistor control. (mc1_eq_rs_lane0[2:0]=eq_rs_lane0[2:0]) parameter EQ_CS_LN2 = 3'b101; //Data lane2: EQ degeneration cap control.(mc1_eq_cs_lane0[2:0]=eq_cs_lane0[2:0]) parameter PGA_GAIN_LN2 = 4'b0110; //Data lane2: PGA amplifier gain config. parameter PGA_BIAS_LN2 = 4'b1000; //Data lane2: PGA amplifier tail current config. parameter EQ_PBIAS_LN2 = 4'b0100; //Data Lane2: Equalizer source current setting default 4'b1000 parameter EQ_ZLD_LN2 = 4'b1000; //Data Lane2: Preamplifier Resistive Load Setting: 4'b0000 smallest res loading endmodule ////Serdes //GTR12_QUAD module GTR12_QUAD ( // ports to fabric output LN0_TXM_O, output LN0_TXP_O, output LN1_TXM_O, output LN1_TXP_O, output LN2_TXM_O, output LN2_TXP_O, output LN3_TXM_O, output LN3_TXP_O, input LN0_RXM_I, input LN0_RXP_I, input LN1_RXM_I, input LN1_RXP_I, input LN2_RXM_I, input LN2_RXP_I, input LN3_RXM_I, input LN3_RXP_I, input [ 1:0] FABRIC_CLK_LIFE_DIV_I, input FABRIC_CM0_RXCLK_OE_L_I, input FABRIC_CM0_RXCLK_OE_R_I, output FABRIC_LN0_RXDET_RESULT, output FABRIC_LN1_RXDET_RESULT, output FABRIC_LN2_RXDET_RESULT, output FABRIC_LN3_RXDET_RESULT, output FABRIC_PMA_CM0_DR_REFCLK_DET_O, output FABRIC_PMA_CM1_DR_REFCLK_DET_O, input FABRIC_PMA_PD_REFHCLK_I, input [ 2:0] FABRIC_REFCLK1_INPUT_SEL_I, input [ 2:0] FABRIC_REFCLK_INPUT_SEL_I, input FABRIC_REFCLK_OE_L_I, input FABRIC_REFCLK_OE_R_I, input [ 4:0] FABRIC_REFCLK_OUTPUT_SEL_I, input REFCLKM0_I, input REFCLKM1_I, input REFCLKP0_I, input REFCLKP1_I, input FABRIC_BURN_IN_I, input [ 1:0] FABRIC_CK_SOC_DIV_I, input FABRIC_CLK_REF_CORE_I, output FABRIC_CM1_LIFE_CLK_O, output FABRIC_CM_LIFE_CLK_O, output FABRIC_CMU1_CK_REF_O, output FABRIC_CMU1_OK_O, output FABRIC_CMU1_REFCLK_GATE_ACK_O, input FABRIC_CMU1_REFCLK_GATE_I, output FABRIC_CMU_CK_REF_O, output FABRIC_CMU_OK_O, output FABRIC_CMU_REFCLK_GATE_ACK_O, input FABRIC_CMU_REFCLK_GATE_I, input FABRIC_GLUE_MAC_INIT_INFO_I, output FABRIC_LANE0_CMU_CK_REF_O, output FABRIC_LANE1_CMU_CK_REF_O, output FABRIC_LANE2_CMU_CK_REF_O, output FABRIC_LANE3_CMU_CK_REF_O, output [ 5:0] FABRIC_LN0_ASTAT_O, output FABRIC_LN0_BURN_IN_TOGGLE_O, input [ 42:0] FABRIC_LN0_CTRL_I, input FABRIC_LN0_IDDQ_I, input [ 2:0] FABRIC_LN0_PD_I, output FABRIC_LN0_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN0_RATE_I, input FABRIC_LN0_RSTN_I, output [ 87:0] FABRIC_LN0_RXDATA_O, output [ 12:0] FABRIC_LN0_STAT_O, input [ 79:0] FABRIC_LN0_TXDATA_I, output [ 5:0] FABRIC_LN1_ASTAT_O, output FABRIC_LN1_BURN_IN_TOGGLE_O, input [ 42:0] FABRIC_LN1_CTRL_I, input FABRIC_LN1_IDDQ_I, input [ 2:0] FABRIC_LN1_PD_I, output FABRIC_LN1_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN1_RATE_I, input FABRIC_LN1_RSTN_I, output [ 87:0] FABRIC_LN1_RXDATA_O, output [ 12:0] FABRIC_LN1_STAT_O, input [ 79:0] FABRIC_LN1_TXDATA_I, output [ 5:0] FABRIC_LN2_ASTAT_O, output FABRIC_LN2_BURN_IN_TOGGLE_O, input [ 42:0] FABRIC_LN2_CTRL_I, input FABRIC_LN2_IDDQ_I, input [ 2:0] FABRIC_LN2_PD_I, output FABRIC_LN2_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN2_RATE_I, input FABRIC_LN2_RSTN_I, output [ 87:0] FABRIC_LN2_RXDATA_O, output [ 12:0] FABRIC_LN2_STAT_O, input [ 79:0] FABRIC_LN2_TXDATA_I, output [ 5:0] FABRIC_LN3_ASTAT_O, output FABRIC_LN3_BURN_IN_TOGGLE_O, input [ 42:0] FABRIC_LN3_CTRL_I, input FABRIC_LN3_IDDQ_I, input [ 2:0] FABRIC_LN3_PD_I, output FABRIC_LN3_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN3_RATE_I, input FABRIC_LN3_RSTN_I, output [ 87:0] FABRIC_LN3_RXDATA_O, output [ 12:0] FABRIC_LN3_STAT_O, input [ 79:0] FABRIC_LN3_TXDATA_I, output FABRIC_REFCLK_GATE_ACK_O, input FABRIC_REFCLK_GATE_I, input LANE0_PCS_RX_RST, input LANE1_PCS_RX_RST, input LANE2_PCS_RX_RST, input LANE3_PCS_RX_RST, input LANE0_ALIGN_TRIGGER, input LANE1_ALIGN_TRIGGER, input LANE2_ALIGN_TRIGGER, input LANE3_ALIGN_TRIGGER, input LANE0_CHBOND_START, input LANE1_CHBOND_START, input LANE2_CHBOND_START, input LANE3_CHBOND_START, output LANE0_ALIGN_LINK, output LANE0_K_LOCK, output [ 1:0] LANE0_DISP_ERR_O, output [ 1:0] LANE0_DEC_ERR_O, output [ 1:0] LANE0_CUR_DISP_O, output LANE1_ALIGN_LINK, output LANE1_K_LOCK, output [ 1:0] LANE1_DISP_ERR_O, output [ 1:0] LANE1_DEC_ERR_O, output [ 1:0] LANE1_CUR_DISP_O, output LANE2_ALIGN_LINK, output LANE2_K_LOCK, output [ 1:0] LANE2_DISP_ERR_O, output [ 1:0] LANE2_DEC_ERR_O, output [ 1:0] LANE2_CUR_DISP_O, output LANE3_ALIGN_LINK, output LANE3_K_LOCK, output [ 1:0] LANE3_DISP_ERR_O, output [ 1:0] LANE3_DEC_ERR_O, output [ 1:0] LANE3_CUR_DISP_O, input LANE0_PCS_TX_RST, input LANE1_PCS_TX_RST, input LANE2_PCS_TX_RST, input LANE3_PCS_TX_RST, input LANE0_FABRIC_RX_CLK, input LANE1_FABRIC_RX_CLK, input LANE2_FABRIC_RX_CLK, input LANE3_FABRIC_RX_CLK, input LANE0_FABRIC_C2I_CLK, input LANE1_FABRIC_C2I_CLK, input LANE2_FABRIC_C2I_CLK, input LANE3_FABRIC_C2I_CLK, output LANE0_PCS_RX_O_FABRIC_CLK, output LANE1_PCS_RX_O_FABRIC_CLK, output LANE2_PCS_RX_O_FABRIC_CLK, output LANE3_PCS_RX_O_FABRIC_CLK, input LANE0_FABRIC_TX_CLK, input LANE1_FABRIC_TX_CLK, input LANE2_FABRIC_TX_CLK, input LANE3_FABRIC_TX_CLK, output LANE0_PCS_TX_O_FABRIC_CLK, output LANE1_PCS_TX_O_FABRIC_CLK, output LANE2_PCS_TX_O_FABRIC_CLK, output LANE3_PCS_TX_O_FABRIC_CLK, output FABRIC_CMU0_CLK, output FABRIC_CMU1_CLK, output FABRIC_QUAD_CLK_RX, input LANE0_RX_IF_FIFO_RDEN, input LANE1_RX_IF_FIFO_RDEN, input LANE2_RX_IF_FIFO_RDEN, input LANE3_RX_IF_FIFO_RDEN, output [ 4:0] LANE0_RX_IF_FIFO_RDUSEWD, output LANE0_RX_IF_FIFO_AEMPTY, output LANE0_RX_IF_FIFO_EMPTY, output [ 4:0] LANE1_RX_IF_FIFO_RDUSEWD, output LANE1_RX_IF_FIFO_AEMPTY, output LANE1_RX_IF_FIFO_EMPTY, output [ 4:0] LANE2_RX_IF_FIFO_RDUSEWD, output LANE2_RX_IF_FIFO_AEMPTY, output LANE2_RX_IF_FIFO_EMPTY, output [ 4:0] LANE3_RX_IF_FIFO_RDUSEWD, output LANE3_RX_IF_FIFO_AEMPTY, output LANE3_RX_IF_FIFO_EMPTY, output [ 4:0] LANE0_TX_IF_FIFO_WRUSEWD, output LANE0_TX_IF_FIFO_AFULL, output LANE0_TX_IF_FIFO_FULL, output [ 4:0] LANE1_TX_IF_FIFO_WRUSEWD, output LANE1_TX_IF_FIFO_AFULL, output LANE1_TX_IF_FIFO_FULL, output [ 4:0] LANE2_TX_IF_FIFO_WRUSEWD, output LANE2_TX_IF_FIFO_AFULL, output LANE2_TX_IF_FIFO_FULL, output [ 4:0] LANE3_TX_IF_FIFO_WRUSEWD, output LANE3_TX_IF_FIFO_AFULL, output LANE3_TX_IF_FIFO_FULL, input FABRIC_CMU0_RESETN_I, input FABRIC_CMU0_PD_I, input FABRIC_CMU0_IDDQ_I, input FABRIC_CMU1_RESETN_I, input FABRIC_CMU1_PD_I, input FABRIC_CMU1_IDDQ_I, input FABRIC_PLL_CDN_I, input FABRIC_LN0_CPLL_RESETN_I, input FABRIC_LN0_CPLL_PD_I, input FABRIC_LN0_CPLL_IDDQ_I, input FABRIC_LN1_CPLL_RESETN_I, input FABRIC_LN1_CPLL_PD_I, input FABRIC_LN1_CPLL_IDDQ_I, input FABRIC_LN2_CPLL_RESETN_I, input FABRIC_LN2_CPLL_PD_I, input FABRIC_LN2_CPLL_IDDQ_I, input FABRIC_LN3_CPLL_RESETN_I, input FABRIC_LN3_CPLL_PD_I, input FABRIC_LN3_CPLL_IDDQ_I, input FABRIC_CM1_PD_REFCLK_DET_I, input FABRIC_CM0_PD_REFCLK_DET_I, output FABRIC_CLK_MON_O, output FABRIC_GEARFIFO_ERR_RPT, input [ 42:0] FABRIC_LN0_CTRL_I_H, input [ 2:0] FABRIC_LN0_PD_I_H, input [ 1:0] FABRIC_LN0_RATE_I_H, output FABRIC_LN0_RX_VLD_OUT, output FABRIC_LN0_RXELECIDLE_O, output FABRIC_LN0_RXELECIDLE_O_H, output [ 12:0] FABRIC_LN0_STAT_O_H, input FABRIC_LN0_TX_VLD_IN, input [ 42:0] FABRIC_LN1_CTRL_I_H, input [ 2:0] FABRIC_LN1_PD_I_H, input [ 1:0] FABRIC_LN1_RATE_I_H, output FABRIC_LN1_RX_VLD_OUT, output FABRIC_LN1_RXELECIDLE_O, output FABRIC_LN1_RXELECIDLE_O_H, output [ 12:0] FABRIC_LN1_STAT_O_H, input FABRIC_LN1_TX_VLD_IN, input [ 42:0] FABRIC_LN2_CTRL_I_H, input [ 2:0] FABRIC_LN2_PD_I_H, input [ 1:0] FABRIC_LN2_RATE_I_H, output FABRIC_LN2_RX_VLD_OUT, output FABRIC_LN2_RXELECIDLE_O, output FABRIC_LN2_RXELECIDLE_O_H, output [ 12:0] FABRIC_LN2_STAT_O_H, input FABRIC_LN2_TX_VLD_IN, input [ 42:0] FABRIC_LN3_CTRL_I_H, input [ 2:0] FABRIC_LN3_PD_I_H, input [ 1:0] FABRIC_LN3_RATE_I_H, output FABRIC_LN3_RX_VLD_OUT, output FABRIC_LN3_RXELECIDLE_O, output FABRIC_LN3_RXELECIDLE_O_H, output [ 12:0] FABRIC_LN3_STAT_O_H, input FABRIC_LN3_TX_VLD_IN, input FABRIC_POR_N_I, input FABRIC_QUAD_MCU_REQ_I, //ports that are special input CK_AHB_I, input AHB_RSTN, input TEST_DEC_EN, output FABRIC_LANE0_CMU_OK_O, output FABRIC_LANE1_CMU_OK_O, output FABRIC_LANE2_CMU_OK_O, output FABRIC_LANE3_CMU_OK_O, input QUAD_PCIE_CLK, input PCIE_DIV2_REG, input PCIE_DIV4_REG, input PMAC_LN_RSTN, //ports for interconnection of hardwire inout [ 91:0] INET_Q0_Q1, inout [531:0] INET_Q_PMAC, inout [227:0] INET_Q_TEST, inout [420:0] INET_Q_UPAR ); parameter POSITION = "Q0"; endmodule //GTR12_UPAR module GTR12_UPAR ( // ports to fabric input CSR_TCK, input CSR_TMS, input CSR_TDI, output CSR_TDO, input UPAR_CLK, input UPAR_RST, input SPI_CLK, input UPAR_WREN_S, input [ 23:0] UPAR_ADDR_S, input [ 31:0] UPAR_WRDATA_S, input UPAR_RDEN_S, input [ 7:0] UPAR_STRB_S, input UPAR_BUS_WIDTH_S, output [ 31:0] UPAR_RDDATA_S, output UPAR_RDVLD_S, output UPAR_READY_S, input SPI_MOSI, output SPI_MISO, input SPI_SS, output AHB_CLK_O, input [ 4:0] CSR_MODE, input FABRIC_DFT_EDT_UPDATE, input FABRIC_DFT_IJTAG_CE, input FABRIC_DFT_IJTAG_RESET, input FABRIC_DFT_IJTAG_SE, input FABRIC_DFT_IJTAG_SEL, input FABRIC_DFT_IJTAG_SI, input FABRIC_DFT_IJTAG_TCK, input FABRIC_DFT_IJTAG_UE, input FABRIC_DFT_PLL_BYPASS_CLK, input FABRIC_DFT_PLL_BYPASS_MODE, input FABRIC_DFT_SCAN_CLK, input FABRIC_DFT_SCAN_EN, input FABRIC_DFT_SCAN_IN0, input FABRIC_DFT_SCAN_IN1, input FABRIC_DFT_SCAN_IN2, input FABRIC_DFT_SCAN_IN3, input FABRIC_DFT_SCAN_IN4, input FABRIC_DFT_SCAN_IN5, input FABRIC_DFT_SCAN_IN6, input FABRIC_DFT_SCAN_RSTN, input FABRIC_DFT_SHIFT_SCAN_EN, //ports that are special output QUAD_CFG_TEST_DEC_EN, output AHB_RSTN_O, output TL_CLKP_I, //ports for interconnection of hardwire inout [5466:0] INET_UPAR_PMAC, inout [ 420:0] INET_UPAR_Q0, inout [ 420:0] INET_UPAR_Q1, inout [1328:0] INET_UPAR_TEST ); endmodule //GTR12_PMAC module GTR12_PMAC ( // ports to fabric output [ 3:0] PL_EXIT, output [ 64:0] TL_FLR_REQ0, input [ 64:0] TL_FLR_ACK0, output [ 64:0] TL_FLR_REQ1, input [ 64:0] TL_FLR_ACK1, output [ 64:0] TL_FLR_REQ2, input [ 64:0] TL_FLR_ACK2, output [ 64:0] TL_FLR_REQ3, input [ 64:0] TL_FLR_ACK3, input [ 21:0] TL_CLOCK_FREQ, output PL_WAKE_OEN, input PL_WAKE_IN, output PL_CLKREQ_OEN, input PL_CLKREQ_IN, input PL_LTSSM_ENABLE, output TL_RX_SOP0, output TL_RX_EOP0, output [ 255:0] TL_RX_DATA0, output [ 7:0] TL_RX_VALID0, output [ 31:0] TL_RX_PROT0, output [ 19:0] TL_RX_BARDEC0, output [ 15:0] TL_RX_MCHIT0, output [ 7:0] TL_RX_ERR0, input TL_RX_MASKNP0, input TL_RX_WAIT0, input TL_TX_SOP0, input TL_TX_EOP0, input [ 255:0] TL_TX_DATA0, input [ 7:0] TL_TX_VALID0, input [ 31:0] TL_TX_PROT0, input TL_TX_STREAM0, input [ 7:0] TL_TX_ERR0, output TL_TX_WAIT0, output [ 95:0] TL_TX_CREDITS0, output [ 31:0] TL_TX_PROTERR0, input TL_TX_PROTACK0, input [ 7:0] TL_BRSW_IN, output [ 7:0] TL_BRSW_OUT, input TL_INT_STATUS0, input TL_INT_REQ0, input [ 4:0] TL_INT_MSINUM0, input [ 6:0] TL_INT_VFNUM0, output TL_INT_ACK0, input TL_INT_STATUS1, input TL_INT_REQ1, input [ 4:0] TL_INT_MSINUM1, input [ 6:0] TL_INT_VFNUM1, output TL_INT_ACK1, input TL_INT_STATUS2, input TL_INT_REQ2, input [ 4:0] TL_INT_MSINUM2, input [ 6:0] TL_INT_VFNUM2, output TL_INT_ACK2, input TL_INT_STATUS3, input TL_INT_REQ3, input [ 4:0] TL_INT_MSINUM3, input [ 6:0] TL_INT_VFNUM3, output TL_INT_ACK3, output [ 3:0] TL_INT_PINSTATE, input [ 3:0] TL_INT_PINCONTROL, input TL_PM_EVENT0, input [ 9:0] TL_PM_DATA0, input TL_PM_EVENT1, input [ 9:0] TL_PM_DATA1, input TL_PM_EVENT2, input [ 9:0] TL_PM_DATA2, input TL_PM_EVENT3, input [ 9:0] TL_PM_DATA3, input TL_PM_CLKCONTROL, output [ 3:0] TL_PM_CLKSTATUS, input [ 7:0] TL_PM_BWCHANGE, input TL_PM_TOCONTROL, output TL_PM_TOSTATUS, input TL_PM_AUXPWR, input [ 3:0] TL_PM_OBFFCONTROL, output [ 3:0] TL_PM_OBFFSTATUS, input [ 38:0] TL_REPORT_ERROR0, input [ 7:0] TL_REPORT_STATE0, input [ 64:0] TL_REPORT_CPLPENDING0, input [ 255:0] TL_REPORT_HEADER0, input [ 38:0] TL_REPORT_ERROR1, input [ 7:0] TL_REPORT_STATE1, input [ 64:0] TL_REPORT_CPLPENDING1, input [ 255:0] TL_REPORT_HEADER1, input [ 38:0] TL_REPORT_ERROR2, input [ 7:0] TL_REPORT_STATE2, input [ 64:0] TL_REPORT_CPLPENDING2, input [ 255:0] TL_REPORT_HEADER2, input [ 38:0] TL_REPORT_ERROR3, input [ 7:0] TL_REPORT_STATE3, input [ 64:0] TL_REPORT_CPLPENDING3, input [ 255:0] TL_REPORT_HEADER3, output [ 7:0] TL_REPORT_EVENT, input [ 7:0] TL_REPORT_HOTPLUG, output [ 3:0] TL_REPORT_TIMER, input [ 32:0] TL_REPORT_LATENCY, input FABRIC_PL_NPOR, input FABRIC_PL_RSTN, input FABRIC_PL_RSTNP, input FABRIC_PL_SRST, input FABRIC_TL_NPOR, input FABRIC_TL_RSTN, input FABRIC_TL_RSTNP, input FABRIC_TL_CRSTN, input FABRIC_TL_SRST, input FABRIC_TL_CRST, input FABRIC_PL_PCLK_STOP, input FABRIC_CTRL_GATE_TL_CLK, output PCIE_HALF_CLK, input [ 7:0] FABRIC_PHY_ACKLOCAL, input [ 7:0] FABRIC_PHY_ACKLOCAL_H, output [ 7:0] FABRIC_PHY_INVALIDREQ, output [ 7:0] FABRIC_PHY_INVALIDREQ_H, output [ 7:0] FABRIC_PHY_REQLOCAL, output [ 7:0] FABRIC_PHY_REQLOCAL_H, output [ 31:0] FABRIC_PHY_REQLOCALIDX, output [ 31:0] FABRIC_PHY_REQLOCALIDX_H, output [ 7:0] FABRIC_PHY_RXEQEVAL, output [ 7:0] FABRIC_PHY_RXEQEVAL_H, output [ 7:0] FABRIC_PHY_RXEQINPROGRESS, output [ 7:0] FABRIC_PHY_RXEQINPROGRESS_H, output [ 23:0] FABRIC_PHY_RXPREHINT, output [ 23:0] FABRIC_PHY_RXPREHINT_H, output [ 15:0] FABRIC_PHY_TXDEEMPH, output [ 15:0] FABRIC_PHY_TXDEEMPH_H, output FABRIC_PL_BLOCKALIGNCONTROL, output FABRIC_PL_BLOCKALIGNCONTROL_H, input [ 7:0] FABRIC_PL_PHYSTATUS, input [ 7:0] FABRIC_PL_PHYSTATUS_H, output [ 1:0] FABRIC_PL_POWERDOWN, output [ 1:0] FABRIC_PL_POWERDOWN_H, output [ 1:0] FABRIC_PL_RATE, output [ 1:0] FABRIC_PL_RATE_H, input [ 127:0] FABRIC_PL_RXDATA, input [ 127:0] FABRIC_PL_RXDATA_H, input [ 15:0] FABRIC_PL_RXDATAK, input [ 15:0] FABRIC_PL_RXDATAK_H, input [ 7:0] FABRIC_PL_RXDATAVALID, input [ 7:0] FABRIC_PL_RXDATAVALID_H, input [ 7:0] FABRIC_PL_RXELECIDLE, input [ 7:0] FABRIC_PL_RXELECIDLE_H, output [ 7:0] FABRIC_PL_RXPOLARITY, output [ 7:0] FABRIC_PL_RXPOLARITY_H, output [ 7:0] FABRIC_PL_RXSTANDBY, output [ 7:0] FABRIC_PL_RXSTANDBY_H, input [ 7:0] FABRIC_PL_RXSTARTBLOCK, input [ 7:0] FABRIC_PL_RXSTARTBLOCK_H, input [ 23:0] FABRIC_PL_RXSTATUS, input [ 23:0] FABRIC_PL_RXSTATUS_H, input [ 15:0] FABRIC_PL_RXSYNCHEADER, input [ 15:0] FABRIC_PL_RXSYNCHEADER_H, input [ 7:0] FABRIC_PL_RXVALID, input [ 7:0] FABRIC_PL_RXVALID_H, output [ 7:0] FABRIC_PL_TXCOMPLIANCE, output [ 7:0] FABRIC_PL_TXCOMPLIANCE_H, output [ 127:0] FABRIC_PL_TXDATA, output [ 127:0] FABRIC_PL_TXDATA_H, output [ 15:0] FABRIC_PL_TXDATAK, output [ 15:0] FABRIC_PL_TXDATAK_H, output [ 7:0] FABRIC_PL_TXDATAVALID, output [ 7:0] FABRIC_PL_TXDATAVALID_H, output [ 7:0] FABRIC_PL_TXDETECTRX, output [ 7:0] FABRIC_PL_TXDETECTRX_H, output [ 7:0] FABRIC_PL_TXELECIDLE, output [ 7:0] FABRIC_PL_TXELECIDLE_H, output [ 2:0] FABRIC_PL_TXMARGIN, output [ 2:0] FABRIC_PL_TXMARGIN_H, output [ 7:0] FABRIC_PL_TXSTARTBLOCK, output [ 7:0] FABRIC_PL_TXSTARTBLOCK_H, output FABRIC_PL_TXSWING, output FABRIC_PL_TXSWING_H, output [ 15:0] FABRIC_PL_TXSYNCHEADER, output [ 15:0] FABRIC_PL_TXSYNCHEADER_H, output [ 1:0] FABRIC_PL_WIDTH, output [ 1:0] FABRIC_PL_WIDTH_H, output [ 31:0] FABRIC_TEST_BUS_MON, output [ 18:0] TL_CFGEXPADDR0, output [ 18:0] TL_CFGEXPADDR1, output [ 18:0] TL_CFGEXPADDR2, output [ 18:0] TL_CFGEXPADDR3, input [ 31:0] TL_CFGEXPRDATA0, input [ 31:0] TL_CFGEXPRDATA1, input [ 31:0] TL_CFGEXPRDATA2, input [ 31:0] TL_CFGEXPRDATA3, output TL_CFGEXPREAD0, output TL_CFGEXPREAD1, output TL_CFGEXPREAD2, output TL_CFGEXPREAD3, output [ 3:0] TL_CFGEXPSTRB0, output [ 3:0] TL_CFGEXPSTRB1, output [ 3:0] TL_CFGEXPSTRB2, output [ 3:0] TL_CFGEXPSTRB3, input TL_CFGEXPVALID0, input TL_CFGEXPVALID1, input TL_CFGEXPVALID2, input TL_CFGEXPVALID3, output [ 31:0] TL_CFGEXPWDATA0, output [ 31:0] TL_CFGEXPWDATA1, output [ 31:0] TL_CFGEXPWDATA2, output [ 31:0] TL_CFGEXPWDATA3, output TL_CFGEXPWRITE0, output TL_CFGEXPWRITE1, output TL_CFGEXPWRITE2, output TL_CFGEXPWRITE3, output [ 12:0] TLCFG_BUSDEV, //ports that are special input TL_CLKP, output PCIE_CLK, output PMAC_LN_RSTN, input Q0_CPLL0_OK_I, input Q0_CPLL1_OK_I, input Q0_CPLL2_OK_I, input Q0_CPLL3_OK_I, input Q1_CPLL0_OK_I, input Q1_CPLL1_OK_I, input Q1_CPLL2_OK_I, input Q1_CPLL3_OK_I, input FABRIC_PCLK_I, output PCIE_DIV2_REG, output PCIE_DIV4_REG, //ports for interconnection of hardwire inout [ 531:0] INET_PMAC_Q0, inout [ 531:0] INET_PMAC_Q1, inout [ 780:0] INET_PMAC_TEST, inout [5466:0] INET_PMAC_UPAR ); endmodule //// //GTR12_QUADA,60k module GTR12_QUADA ( // ports to fabric output LN0_TXM_O, output LN0_TXP_O, output LN1_TXM_O, output LN1_TXP_O, output LN2_TXM_O, output LN2_TXP_O, output LN3_TXM_O, output LN3_TXP_O, input LN0_RXM_I, input LN0_RXP_I, input LN1_RXM_I, input LN1_RXP_I, input LN2_RXM_I, input LN2_RXP_I, input LN3_RXM_I, input LN3_RXP_I, input REFCLKM0_I, input REFCLKM1_I, input REFCLKP0_I, input REFCLKP1_I, input REFCLKM2_I, input REFCLKM3_I, input REFCLKP2_I, input REFCLKP3_I, output FABRIC_LN0_RXDET_RESULT, output FABRIC_LN1_RXDET_RESULT, output FABRIC_LN2_RXDET_RESULT, output FABRIC_LN3_RXDET_RESULT, output FABRIC_PMA_CM0_DR_REFCLK_DET_O, output FABRIC_PMA_CM1_DR_REFCLK_DET_O, input FABRIC_PMA_PD_REFHCLK_I, input [ 2:0] FABRIC_REFCLK1_INPUT_SEL_I, input [ 2:0] FABRIC_REFCLK_INPUT_SEL_I, input FABRIC_BURN_IN_I, input [ 1:0] FABRIC_CK_SOC_DIV_I, output FABRIC_CM1_LIFE_CLK_O, output FABRIC_CM_LIFE_CLK_O, output FABRIC_CMU1_CK_REF_O, output FABRIC_CMU1_OK_O, output FABRIC_CMU1_REFCLK_GATE_ACK_O, input FABRIC_CMU1_REFCLK_GATE_I, output FABRIC_CMU_CK_REF_O, output FABRIC_CMU_OK_O, output FABRIC_CMU_REFCLK_GATE_ACK_O, input FABRIC_CMU_REFCLK_GATE_I, input FABRIC_GLUE_MAC_INIT_INFO_I, output FABRIC_LANE0_CMU_CK_REF_O, output FABRIC_LANE1_CMU_CK_REF_O, output FABRIC_LANE2_CMU_CK_REF_O, output FABRIC_LANE3_CMU_CK_REF_O, output [ 5:0] FABRIC_LN0_ASTAT_O, output FABRIC_LN0_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN0_CTRL_I, input FABRIC_LN0_IDDQ_I, input [ 2:0] FABRIC_LN0_PD_I, output FABRIC_LN0_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN0_RATE_I, input FABRIC_LN0_RSTN_I, output [87:0] FABRIC_LN0_RXDATA_O, output [12:0] FABRIC_LN0_STAT_O, input [79:0] FABRIC_LN0_TXDATA_I, output [ 5:0] FABRIC_LN1_ASTAT_O, output FABRIC_LN1_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN1_CTRL_I, input FABRIC_LN1_IDDQ_I, input [ 2:0] FABRIC_LN1_PD_I, output FABRIC_LN1_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN1_RATE_I, input FABRIC_LN1_RSTN_I, output [87:0] FABRIC_LN1_RXDATA_O, output [12:0] FABRIC_LN1_STAT_O, input [79:0] FABRIC_LN1_TXDATA_I, output [ 5:0] FABRIC_LN2_ASTAT_O, output FABRIC_LN2_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN2_CTRL_I, input FABRIC_LN2_IDDQ_I, input [ 2:0] FABRIC_LN2_PD_I, output FABRIC_LN2_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN2_RATE_I, input FABRIC_LN2_RSTN_I, output [87:0] FABRIC_LN2_RXDATA_O, output [12:0] FABRIC_LN2_STAT_O, input [79:0] FABRIC_LN2_TXDATA_I, output [ 5:0] FABRIC_LN3_ASTAT_O, output FABRIC_LN3_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN3_CTRL_I, input FABRIC_LN3_IDDQ_I, input [ 2:0] FABRIC_LN3_PD_I, output FABRIC_LN3_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN3_RATE_I, input FABRIC_LN3_RSTN_I, output [87:0] FABRIC_LN3_RXDATA_O, output [12:0] FABRIC_LN3_STAT_O, input [79:0] FABRIC_LN3_TXDATA_I, output FABRIC_REFCLK_GATE_ACK_O, input FABRIC_REFCLK_GATE_I, input LANE0_PCS_RX_RST, input LANE1_PCS_RX_RST, input LANE2_PCS_RX_RST, input LANE3_PCS_RX_RST, input LANE0_ALIGN_TRIGGER, input LANE1_ALIGN_TRIGGER, input LANE2_ALIGN_TRIGGER, input LANE3_ALIGN_TRIGGER, input LANE0_CHBOND_START, input LANE1_CHBOND_START, input LANE2_CHBOND_START, input LANE3_CHBOND_START, output LANE0_ALIGN_LINK, output LANE0_K_LOCK, output [ 1:0] LANE0_DISP_ERR_O, output [ 1:0] LANE0_DEC_ERR_O, output [ 1:0] LANE0_CUR_DISP_O, output LANE1_ALIGN_LINK, output LANE1_K_LOCK, output [ 1:0] LANE1_DISP_ERR_O, output [ 1:0] LANE1_DEC_ERR_O, output [ 1:0] LANE1_CUR_DISP_O, output LANE2_ALIGN_LINK, output LANE2_K_LOCK, output [ 1:0] LANE2_DISP_ERR_O, output [ 1:0] LANE2_DEC_ERR_O, output [ 1:0] LANE2_CUR_DISP_O, output LANE3_ALIGN_LINK, output LANE3_K_LOCK, output [ 1:0] LANE3_DISP_ERR_O, output [ 1:0] LANE3_DEC_ERR_O, output [ 1:0] LANE3_CUR_DISP_O, input LANE0_PCS_TX_RST, input LANE1_PCS_TX_RST, input LANE2_PCS_TX_RST, input LANE3_PCS_TX_RST, input LANE0_FABRIC_RX_CLK, input LANE1_FABRIC_RX_CLK, input LANE2_FABRIC_RX_CLK, input LANE3_FABRIC_RX_CLK, input LANE0_FABRIC_C2I_CLK, input LANE1_FABRIC_C2I_CLK, input LANE2_FABRIC_C2I_CLK, input LANE3_FABRIC_C2I_CLK, output LANE0_PCS_RX_O_FABRIC_CLK, output LANE1_PCS_RX_O_FABRIC_CLK, output LANE2_PCS_RX_O_FABRIC_CLK, output LANE3_PCS_RX_O_FABRIC_CLK, input LANE0_FABRIC_TX_CLK, input LANE1_FABRIC_TX_CLK, input LANE2_FABRIC_TX_CLK, input LANE3_FABRIC_TX_CLK, output LANE0_PCS_TX_O_FABRIC_CLK, output LANE1_PCS_TX_O_FABRIC_CLK, output LANE2_PCS_TX_O_FABRIC_CLK, output LANE3_PCS_TX_O_FABRIC_CLK, output FABRIC_CMU0_CLK, output FABRIC_CMU1_CLK, output FABRIC_QUAD_CLK_RX, input LANE0_RX_IF_FIFO_RDEN, input LANE1_RX_IF_FIFO_RDEN, input LANE2_RX_IF_FIFO_RDEN, input LANE3_RX_IF_FIFO_RDEN, output [ 4:0] LANE0_RX_IF_FIFO_RDUSEWD, output LANE0_RX_IF_FIFO_AEMPTY, output LANE0_RX_IF_FIFO_EMPTY, output [ 4:0] LANE1_RX_IF_FIFO_RDUSEWD, output LANE1_RX_IF_FIFO_AEMPTY, output LANE1_RX_IF_FIFO_EMPTY, output [ 4:0] LANE2_RX_IF_FIFO_RDUSEWD, output LANE2_RX_IF_FIFO_AEMPTY, output LANE2_RX_IF_FIFO_EMPTY, output [ 4:0] LANE3_RX_IF_FIFO_RDUSEWD, output LANE3_RX_IF_FIFO_AEMPTY, output LANE3_RX_IF_FIFO_EMPTY, output [ 4:0] LANE0_TX_IF_FIFO_WRUSEWD, output LANE0_TX_IF_FIFO_AFULL, output LANE0_TX_IF_FIFO_FULL, output [ 4:0] LANE1_TX_IF_FIFO_WRUSEWD, output LANE1_TX_IF_FIFO_AFULL, output LANE1_TX_IF_FIFO_FULL, output [ 4:0] LANE2_TX_IF_FIFO_WRUSEWD, output LANE2_TX_IF_FIFO_AFULL, output LANE2_TX_IF_FIFO_FULL, output [ 4:0] LANE3_TX_IF_FIFO_WRUSEWD, output LANE3_TX_IF_FIFO_AFULL, output LANE3_TX_IF_FIFO_FULL, input FABRIC_CMU0_RESETN_I, input FABRIC_CMU0_PD_I, input FABRIC_CMU0_IDDQ_I, input FABRIC_CMU1_RESETN_I, input FABRIC_CMU1_PD_I, input FABRIC_CMU1_IDDQ_I, input FABRIC_PLL_CDN_I, input FABRIC_LN0_CPLL_RESETN_I, input FABRIC_LN0_CPLL_PD_I, input FABRIC_LN0_CPLL_IDDQ_I, input FABRIC_LN1_CPLL_RESETN_I, input FABRIC_LN1_CPLL_PD_I, input FABRIC_LN1_CPLL_IDDQ_I, input FABRIC_LN2_CPLL_RESETN_I, input FABRIC_LN2_CPLL_PD_I, input FABRIC_LN2_CPLL_IDDQ_I, input FABRIC_LN3_CPLL_RESETN_I, input FABRIC_LN3_CPLL_PD_I, input FABRIC_LN3_CPLL_IDDQ_I, input FABRIC_CM1_PD_REFCLK_DET_I, input FABRIC_CM0_PD_REFCLK_DET_I, output FABRIC_CLK_MON_O, output FABRIC_GEARFIFO_ERR_RPT, input [42:0] FABRIC_LN0_CTRL_I_H, input [ 2:0] FABRIC_LN0_PD_I_H, input [ 1:0] FABRIC_LN0_RATE_I_H, output FABRIC_LN0_RX_VLD_OUT, output FABRIC_LN0_RXELECIDLE_O, output FABRIC_LN0_RXELECIDLE_O_H, output [12:0] FABRIC_LN0_STAT_O_H, input FABRIC_LN0_TX_VLD_IN, input [42:0] FABRIC_LN1_CTRL_I_H, input [ 2:0] FABRIC_LN1_PD_I_H, input [ 1:0] FABRIC_LN1_RATE_I_H, output FABRIC_LN1_RX_VLD_OUT, output FABRIC_LN1_RXELECIDLE_O, output FABRIC_LN1_RXELECIDLE_O_H, output [12:0] FABRIC_LN1_STAT_O_H, input FABRIC_LN1_TX_VLD_IN, input [42:0] FABRIC_LN2_CTRL_I_H, input [ 2:0] FABRIC_LN2_PD_I_H, input [ 1:0] FABRIC_LN2_RATE_I_H, output FABRIC_LN2_RX_VLD_OUT, output FABRIC_LN2_RXELECIDLE_O, output FABRIC_LN2_RXELECIDLE_O_H, output [12:0] FABRIC_LN2_STAT_O_H, input FABRIC_LN2_TX_VLD_IN, input [42:0] FABRIC_LN3_CTRL_I_H, input [ 2:0] FABRIC_LN3_PD_I_H, input [ 1:0] FABRIC_LN3_RATE_I_H, output FABRIC_LN3_RX_VLD_OUT, output FABRIC_LN3_RXELECIDLE_O, output FABRIC_LN3_RXELECIDLE_O_H, output [12:0] FABRIC_LN3_STAT_O_H, input FABRIC_LN3_TX_VLD_IN, input FABRIC_POR_N_I, input FABRIC_QUAD_MCU_REQ_I, //new port input [ 3:0] FABRIC_CLK_REF_CORE_I, input FABRIC_CM3_PD_REFCLK_DET_I, input FABRIC_CM2_PD_REFCLK_DET_I, output FABRIC_PMA_CM3_DR_REFCLK_DET_O, output FABRIC_PMA_CM2_DR_REFCLK_DET_O, output QUAD_PCLK1, output QUAD_PCLK0, output FABRIC_LANE0_64B66B_TX_INVLD_BLK, output FABRIC_LANE0_64B66B_TX_FETCH, output FABRIC_LANE0_64B66B_RX_VALID, input [ 7:0] FABRIC_LN0_TX_DISPARITY_I, output FABRIC_LANE1_64B66B_TX_INVLD_BLK, output FABRIC_LANE1_64B66B_TX_FETCH, output FABRIC_LANE1_64B66B_RX_VALID, input [ 7:0] FABRIC_LN1_TX_DISPARITY_I, output FABRIC_LANE2_64B66B_TX_INVLD_BLK, output FABRIC_LANE2_64B66B_TX_FETCH, output FABRIC_LANE2_64B66B_RX_VALID, input [ 7:0] FABRIC_LN2_TX_DISPARITY_I, output FABRIC_LANE3_64B66B_TX_INVLD_BLK, output FABRIC_LANE3_64B66B_TX_FETCH, output FABRIC_LANE3_64B66B_RX_VALID, input [ 7:0] FABRIC_LN3_TX_DISPARITY_I, //ports that are special input CK_AHB_I, input AHB_RSTN, input TEST_DEC_EN, output FABRIC_LANE0_CMU_OK_O, output FABRIC_LANE1_CMU_OK_O, output FABRIC_LANE2_CMU_OK_O, output FABRIC_LANE3_CMU_OK_O, input QUAD_PCIE_CLK, input PCIE_DIV2_REG, input PCIE_DIV4_REG, input PMAC_LN_RSTN, //new port output CKP_MIPI_1, output CKP_MIPI_0, output CKN_MIPI_1, output CKN_MIPI_0, input [3:0] CLK_VIQ_I ); endmodule //GTR12_UPARA,60k/15k module GTR12_UPARA ( // ports to fabric input CSR_TCK, input CSR_TMS, input CSR_TDI, output CSR_TDO, input UPAR_CLK, input UPAR_RST, input SPI_CLK, input UPAR_WREN_S, input [23:0] UPAR_ADDR_S, input [31:0] UPAR_WRDATA_S, input UPAR_RDEN_S, input [ 7:0] UPAR_STRB_S, input UPAR_BUS_WIDTH_S, output [31:0] UPAR_RDDATA_S, output UPAR_RDVLD_S, output UPAR_READY_S, input SPI_MOSI, output SPI_MISO, input SPI_SS, output AHB_CLK_O, input [ 4:0] CSR_MODE, input FABRIC_DFT_EDT_UPDATE, input FABRIC_DFT_IJTAG_CE, input FABRIC_DFT_IJTAG_RESET, input FABRIC_DFT_IJTAG_SE, input FABRIC_DFT_IJTAG_SEL, input FABRIC_DFT_IJTAG_SI, input FABRIC_DFT_IJTAG_TCK, input FABRIC_DFT_IJTAG_UE, input FABRIC_DFT_PLL_BYPASS_CLK, input FABRIC_DFT_PLL_BYPASS_MODE, input FABRIC_DFT_SCAN_CLK, input FABRIC_DFT_SCAN_EN, input FABRIC_DFT_SCAN_IN0, input FABRIC_DFT_SCAN_IN1, input FABRIC_DFT_SCAN_IN2, input FABRIC_DFT_SCAN_IN3, input FABRIC_DFT_SCAN_IN4, input FABRIC_DFT_SCAN_IN5, input FABRIC_DFT_SCAN_IN6, input FABRIC_DFT_SCAN_RSTN, input FABRIC_DFT_SHIFT_SCAN_EN, //ports that are special output QUAD_CFG_TEST_DEC_EN, output AHB_RSTN_O ); endmodule //GTR12_PMACA,60k/15k module GTR12_PMACA ( // ports to fabric output [ 3:0] PL_EXIT, output [ 64:0] TL_FLR_REQ0, input [ 64:0] TL_FLR_ACK0, input [ 21:0] TL_CLOCK_FREQ, output PL_WAKE_OEN, input PL_WAKE_IN, output PL_CLKREQ_OEN, input PL_CLKREQ_IN, input PL_LTSSM_ENABLE, output TL_RX_SOP0, output TL_RX_EOP0, output [255:0] TL_RX_DATA0, output [ 7:0] TL_RX_VALID0, output [ 31:0] TL_RX_PROT0, output [ 19:0] TL_RX_BARDEC0, output [ 15:0] TL_RX_MCHIT0, output [ 7:0] TL_RX_ERR0, input TL_RX_MASKNP0, input TL_RX_WAIT0, input TL_TX_SOP0, input TL_TX_EOP0, input [255:0] TL_TX_DATA0, input [ 7:0] TL_TX_VALID0, input [ 31:0] TL_TX_PROT0, input TL_TX_STREAM0, input [ 7:0] TL_TX_ERR0, output TL_TX_WAIT0, output [ 95:0] TL_TX_CREDITS0, output [ 31:0] TL_TX_PROTERR0, input TL_TX_PROTACK0, input [ 7:0] TL_BRSW_IN, output [ 7:0] TL_BRSW_OUT, input TL_INT_STATUS0, input TL_INT_REQ0, input [ 4:0] TL_INT_MSINUM0, input [ 6:0] TL_INT_VFNUM0, output TL_INT_ACK0, input TL_INT_STATUS1, input TL_INT_REQ1, input [ 4:0] TL_INT_MSINUM1, input [ 6:0] TL_INT_VFNUM1, output TL_INT_ACK1, output [ 3:0] TL_INT_PINSTATE, input [ 3:0] TL_INT_PINCONTROL, input TL_PM_EVENT0, input [ 9:0] TL_PM_DATA0, input TL_PM_EVENT1, input [ 9:0] TL_PM_DATA1, input TL_PM_CLKCONTROL, output [ 3:0] TL_PM_CLKSTATUS, input [ 7:0] TL_PM_BWCHANGE, input TL_PM_TOCONTROL, output TL_PM_TOSTATUS, input TL_PM_AUXPWR, input [ 3:0] TL_PM_OBFFCONTROL, output [ 3:0] TL_PM_OBFFSTATUS, input [ 38:0] TL_REPORT_ERROR0, input [ 7:0] TL_REPORT_STATE0, input [ 64:0] TL_REPORT_CPLPENDING0, input [255:0] TL_REPORT_HEADER0, input [ 7:0] TL_REPORT_STATE1, output [ 7:0] TL_REPORT_EVENT, input [ 7:0] TL_REPORT_HOTPLUG, output [ 3:0] TL_REPORT_TIMER, input [ 32:0] TL_REPORT_LATENCY, input FABRIC_PL_NPOR, input FABRIC_PL_RSTN, input FABRIC_PL_RSTNP, input FABRIC_PL_SRST, input FABRIC_TL_NPOR, input FABRIC_TL_RSTN, input FABRIC_TL_RSTNP, input FABRIC_TL_CRSTN, input FABRIC_TL_SRST, input FABRIC_TL_CRST, input FABRIC_PL_PCLK_STOP, input FABRIC_CTRL_GATE_TL_CLK, output PCIE_HALF_CLK, output [ 31:0] FABRIC_TEST_BUS_MON, output [ 18:0] TL_CFGEXPADDR0, output [ 18:0] TL_CFGEXPADDR1, input [ 31:0] TL_CFGEXPRDATA0, input [ 31:0] TL_CFGEXPRDATA1, output TL_CFGEXPREAD0, output TL_CFGEXPREAD1, output [ 3:0] TL_CFGEXPSTRB0, output [ 3:0] TL_CFGEXPSTRB1, input TL_CFGEXPVALID0, input TL_CFGEXPVALID1, output [ 31:0] TL_CFGEXPWDATA0, output [ 31:0] TL_CFGEXPWDATA1, output TL_CFGEXPWRITE0, output TL_CFGEXPWRITE1, output [ 12:0] TLCFG_BUSDEV, //new port input TL_EN_PF0_FLR, output FABRIC_PCIE_PRGM_ACTIVE, output TL_APB_PREADY, output [31:0] TL_APB_PRDATA, input [ 3:0] TL_APB_PSTRB, input [31:0] TL_APB_PWDATA, input TL_APB_PWRITE, input TL_APB_PENABLE, input [20:0] TL_APB_PADDR, input TL_EN_PF0_REPORT_ERROR, input TL_EN_PF0_REPORT_HEADER, input TL_EN_PF0_REPORT_CPLPENDING, //ports that are special input OSC_CLK, input TL_CLKP, output PCIE_CLK, output PMAC_LN_RSTN, input Q0_CPLL0_OK_I, input Q0_CPLL1_OK_I, input Q0_CPLL2_OK_I, input Q0_CPLL3_OK_I, input Q1_CPLL0_OK_I, input Q1_CPLL1_OK_I, input Q1_CPLL2_OK_I, input Q1_CPLL3_OK_I, input FABRIC_PCLK_I, output PCIE_DIV2_REG, output PCIE_DIV4_REG ); endmodule //GTR12_QUADB, 15k module GTR12_QUADB ( // ports to fabric output LN0_TXM_O, output LN0_TXP_O, output LN1_TXM_O, output LN1_TXP_O, output LN2_TXM_O, output LN2_TXP_O, output LN3_TXM_O, output LN3_TXP_O, input LN0_RXM_I, input LN0_RXP_I, input LN1_RXM_I, input LN1_RXP_I, input LN2_RXM_I, input LN2_RXP_I, input LN3_RXM_I, input LN3_RXP_I, input REFCLKM0_I, input REFCLKM1_I, input REFCLKP0_I, input REFCLKP1_I, output FABRIC_LN0_RXDET_RESULT, output FABRIC_LN1_RXDET_RESULT, output FABRIC_LN2_RXDET_RESULT, output FABRIC_LN3_RXDET_RESULT, output FABRIC_PMA_CM0_DR_REFCLK_DET_O, output FABRIC_PMA_CM1_DR_REFCLK_DET_O, input FABRIC_PMA_PD_REFHCLK_I, input [ 2:0] FABRIC_REFCLK1_INPUT_SEL_I, input [ 2:0] FABRIC_REFCLK_INPUT_SEL_I, input FABRIC_BURN_IN_I, input [ 1:0] FABRIC_CK_SOC_DIV_I, output FABRIC_CM1_LIFE_CLK_O, output FABRIC_CM_LIFE_CLK_O, output FABRIC_CMU1_CK_REF_O, output FABRIC_CMU1_OK_O, output FABRIC_CMU1_REFCLK_GATE_ACK_O, input FABRIC_CMU1_REFCLK_GATE_I, output FABRIC_CMU_CK_REF_O, output FABRIC_CMU_OK_O, output FABRIC_CMU_REFCLK_GATE_ACK_O, input FABRIC_CMU_REFCLK_GATE_I, input FABRIC_GLUE_MAC_INIT_INFO_I, output FABRIC_LANE0_CMU_CK_REF_O, output FABRIC_LANE1_CMU_CK_REF_O, output FABRIC_LANE2_CMU_CK_REF_O, output FABRIC_LANE3_CMU_CK_REF_O, output [ 5:0] FABRIC_LN0_ASTAT_O, output FABRIC_LN0_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN0_CTRL_I, input FABRIC_LN0_IDDQ_I, input [ 2:0] FABRIC_LN0_PD_I, output FABRIC_LN0_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN0_RATE_I, input FABRIC_LN0_RSTN_I, output [87:0] FABRIC_LN0_RXDATA_O, output [12:0] FABRIC_LN0_STAT_O, input [79:0] FABRIC_LN0_TXDATA_I, output [ 5:0] FABRIC_LN1_ASTAT_O, output FABRIC_LN1_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN1_CTRL_I, input FABRIC_LN1_IDDQ_I, input [ 2:0] FABRIC_LN1_PD_I, output FABRIC_LN1_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN1_RATE_I, input FABRIC_LN1_RSTN_I, output [87:0] FABRIC_LN1_RXDATA_O, output [12:0] FABRIC_LN1_STAT_O, input [79:0] FABRIC_LN1_TXDATA_I, output [ 5:0] FABRIC_LN2_ASTAT_O, output FABRIC_LN2_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN2_CTRL_I, input FABRIC_LN2_IDDQ_I, input [ 2:0] FABRIC_LN2_PD_I, output FABRIC_LN2_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN2_RATE_I, input FABRIC_LN2_RSTN_I, output [87:0] FABRIC_LN2_RXDATA_O, output [12:0] FABRIC_LN2_STAT_O, input [79:0] FABRIC_LN2_TXDATA_I, output [ 5:0] FABRIC_LN3_ASTAT_O, output FABRIC_LN3_BURN_IN_TOGGLE_O, input [42:0] FABRIC_LN3_CTRL_I, input FABRIC_LN3_IDDQ_I, input [ 2:0] FABRIC_LN3_PD_I, output FABRIC_LN3_PMA_RX_LOCK_O, input [ 1:0] FABRIC_LN3_RATE_I, input FABRIC_LN3_RSTN_I, output [87:0] FABRIC_LN3_RXDATA_O, output [12:0] FABRIC_LN3_STAT_O, input [79:0] FABRIC_LN3_TXDATA_I, output FABRIC_REFCLK_GATE_ACK_O, input FABRIC_REFCLK_GATE_I, input LANE0_PCS_RX_RST, input LANE1_PCS_RX_RST, input LANE2_PCS_RX_RST, input LANE3_PCS_RX_RST, input LANE0_ALIGN_TRIGGER, input LANE1_ALIGN_TRIGGER, input LANE2_ALIGN_TRIGGER, input LANE3_ALIGN_TRIGGER, input LANE0_CHBOND_START, input LANE1_CHBOND_START, input LANE2_CHBOND_START, input LANE3_CHBOND_START, output LANE0_ALIGN_LINK, output LANE0_K_LOCK, output [ 1:0] LANE0_DISP_ERR_O, output [ 1:0] LANE0_DEC_ERR_O, output [ 1:0] LANE0_CUR_DISP_O, output LANE1_ALIGN_LINK, output LANE1_K_LOCK, output [ 1:0] LANE1_DISP_ERR_O, output [ 1:0] LANE1_DEC_ERR_O, output [ 1:0] LANE1_CUR_DISP_O, output LANE2_ALIGN_LINK, output LANE2_K_LOCK, output [ 1:0] LANE2_DISP_ERR_O, output [ 1:0] LANE2_DEC_ERR_O, output [ 1:0] LANE2_CUR_DISP_O, output LANE3_ALIGN_LINK, output LANE3_K_LOCK, output [ 1:0] LANE3_DISP_ERR_O, output [ 1:0] LANE3_DEC_ERR_O, output [ 1:0] LANE3_CUR_DISP_O, input LANE0_PCS_TX_RST, input LANE1_PCS_TX_RST, input LANE2_PCS_TX_RST, input LANE3_PCS_TX_RST, input LANE0_FABRIC_RX_CLK, input LANE1_FABRIC_RX_CLK, input LANE2_FABRIC_RX_CLK, input LANE3_FABRIC_RX_CLK, input LANE0_FABRIC_C2I_CLK, input LANE1_FABRIC_C2I_CLK, input LANE2_FABRIC_C2I_CLK, input LANE3_FABRIC_C2I_CLK, output LANE0_PCS_RX_O_FABRIC_CLK, output LANE1_PCS_RX_O_FABRIC_CLK, output LANE2_PCS_RX_O_FABRIC_CLK, output LANE3_PCS_RX_O_FABRIC_CLK, input LANE0_FABRIC_TX_CLK, input LANE1_FABRIC_TX_CLK, input LANE2_FABRIC_TX_CLK, input LANE3_FABRIC_TX_CLK, output LANE0_PCS_TX_O_FABRIC_CLK, output LANE1_PCS_TX_O_FABRIC_CLK, output LANE2_PCS_TX_O_FABRIC_CLK, output LANE3_PCS_TX_O_FABRIC_CLK, output FABRIC_CMU0_CLK, output FABRIC_CMU1_CLK, output FABRIC_QUAD_CLK_RX, input LANE0_RX_IF_FIFO_RDEN, input LANE1_RX_IF_FIFO_RDEN, input LANE2_RX_IF_FIFO_RDEN, input LANE3_RX_IF_FIFO_RDEN, output [ 4:0] LANE0_RX_IF_FIFO_RDUSEWD, output LANE0_RX_IF_FIFO_AEMPTY, output LANE0_RX_IF_FIFO_EMPTY, output [ 4:0] LANE1_RX_IF_FIFO_RDUSEWD, output LANE1_RX_IF_FIFO_AEMPTY, output LANE1_RX_IF_FIFO_EMPTY, output [ 4:0] LANE2_RX_IF_FIFO_RDUSEWD, output LANE2_RX_IF_FIFO_AEMPTY, output LANE2_RX_IF_FIFO_EMPTY, output [ 4:0] LANE3_RX_IF_FIFO_RDUSEWD, output LANE3_RX_IF_FIFO_AEMPTY, output LANE3_RX_IF_FIFO_EMPTY, output [ 4:0] LANE0_TX_IF_FIFO_WRUSEWD, output LANE0_TX_IF_FIFO_AFULL, output LANE0_TX_IF_FIFO_FULL, output [ 4:0] LANE1_TX_IF_FIFO_WRUSEWD, output LANE1_TX_IF_FIFO_AFULL, output LANE1_TX_IF_FIFO_FULL, output [ 4:0] LANE2_TX_IF_FIFO_WRUSEWD, output LANE2_TX_IF_FIFO_AFULL, output LANE2_TX_IF_FIFO_FULL, output [ 4:0] LANE3_TX_IF_FIFO_WRUSEWD, output LANE3_TX_IF_FIFO_AFULL, output LANE3_TX_IF_FIFO_FULL, input FABRIC_CMU0_RESETN_I, input FABRIC_CMU0_PD_I, input FABRIC_CMU0_IDDQ_I, input FABRIC_CMU1_RESETN_I, input FABRIC_CMU1_PD_I, input FABRIC_CMU1_IDDQ_I, input FABRIC_PLL_CDN_I, input FABRIC_LN0_CPLL_RESETN_I, input FABRIC_LN0_CPLL_PD_I, input FABRIC_LN0_CPLL_IDDQ_I, input FABRIC_LN1_CPLL_RESETN_I, input FABRIC_LN1_CPLL_PD_I, input FABRIC_LN1_CPLL_IDDQ_I, input FABRIC_LN2_CPLL_RESETN_I, input FABRIC_LN2_CPLL_PD_I, input FABRIC_LN2_CPLL_IDDQ_I, input FABRIC_LN3_CPLL_RESETN_I, input FABRIC_LN3_CPLL_PD_I, input FABRIC_LN3_CPLL_IDDQ_I, input FABRIC_CM1_PD_REFCLK_DET_I, input FABRIC_CM0_PD_REFCLK_DET_I, output FABRIC_CLK_MON_O, output FABRIC_GEARFIFO_ERR_RPT, input [42:0] FABRIC_LN0_CTRL_I_H, input [ 2:0] FABRIC_LN0_PD_I_H, input [ 1:0] FABRIC_LN0_RATE_I_H, output FABRIC_LN0_RX_VLD_OUT, output FABRIC_LN0_RXELECIDLE_O, output FABRIC_LN0_RXELECIDLE_O_H, output [12:0] FABRIC_LN0_STAT_O_H, input FABRIC_LN0_TX_VLD_IN, input [42:0] FABRIC_LN1_CTRL_I_H, input [ 2:0] FABRIC_LN1_PD_I_H, input [ 1:0] FABRIC_LN1_RATE_I_H, output FABRIC_LN1_RX_VLD_OUT, output FABRIC_LN1_RXELECIDLE_O, output FABRIC_LN1_RXELECIDLE_O_H, output [12:0] FABRIC_LN1_STAT_O_H, input FABRIC_LN1_TX_VLD_IN, input [42:0] FABRIC_LN2_CTRL_I_H, input [ 2:0] FABRIC_LN2_PD_I_H, input [ 1:0] FABRIC_LN2_RATE_I_H, output FABRIC_LN2_RX_VLD_OUT, output FABRIC_LN2_RXELECIDLE_O, output FABRIC_LN2_RXELECIDLE_O_H, output [12:0] FABRIC_LN2_STAT_O_H, input FABRIC_LN2_TX_VLD_IN, input [42:0] FABRIC_LN3_CTRL_I_H, input [ 2:0] FABRIC_LN3_PD_I_H, input [ 1:0] FABRIC_LN3_RATE_I_H, output FABRIC_LN3_RX_VLD_OUT, output FABRIC_LN3_RXELECIDLE_O, output FABRIC_LN3_RXELECIDLE_O_H, output [12:0] FABRIC_LN3_STAT_O_H, input FABRIC_LN3_TX_VLD_IN, input FABRIC_POR_N_I, input FABRIC_QUAD_MCU_REQ_I, //new port input [ 3:0] FABRIC_CLK_REF_CORE_I, input FABRIC_CM3_PD_REFCLK_DET_I, input FABRIC_CM2_PD_REFCLK_DET_I, output FABRIC_PMA_CM3_DR_REFCLK_DET_O, output FABRIC_PMA_CM2_DR_REFCLK_DET_O, output QUAD_PCLK1, output QUAD_PCLK0, output FABRIC_LANE0_64B66B_TX_INVLD_BLK, output FABRIC_LANE0_64B66B_TX_FETCH, output FABRIC_LANE0_64B66B_RX_VALID, input [ 7:0] FABRIC_LN0_TX_DISPARITY_I, output FABRIC_LANE1_64B66B_TX_INVLD_BLK, output FABRIC_LANE1_64B66B_TX_FETCH, output FABRIC_LANE1_64B66B_RX_VALID, input [ 7:0] FABRIC_LN1_TX_DISPARITY_I, output FABRIC_LANE2_64B66B_TX_INVLD_BLK, output FABRIC_LANE2_64B66B_TX_FETCH, output FABRIC_LANE2_64B66B_RX_VALID, input [ 7:0] FABRIC_LN2_TX_DISPARITY_I, output FABRIC_LANE3_64B66B_TX_INVLD_BLK, output FABRIC_LANE3_64B66B_TX_FETCH, output FABRIC_LANE3_64B66B_RX_VALID, input [ 7:0] FABRIC_LN3_TX_DISPARITY_I, //ports that are special input CK_AHB_I, input AHB_RSTN, input TEST_DEC_EN, output FABRIC_LANE0_CMU_OK_O, output FABRIC_LANE1_CMU_OK_O, output FABRIC_LANE2_CMU_OK_O, output FABRIC_LANE3_CMU_OK_O, input QUAD_PCIE_CLK, input PCIE_DIV2_REG, input PCIE_DIV4_REG, input PMAC_LN_RSTN, //new port output CKP_MIPI_1, output CKP_MIPI_0, output CKN_MIPI_1, output CKN_MIPI_0, input [1:0] CLK_VIQ_I ); endmodule // DQS module DQS ( DQSR90, DQSW0, DQSW270, RPOINT, WPOINT, RVALID, RBURST, RFLAG, WFLAG, DQSIN, DLLSTEP, WSTEP, READ, RLOADN, RMOVE, RDIR, WLOADN, WMOVE, WDIR, HOLD, RCLKSEL, PCLK, FCLK, RESET ); input DQSIN, PCLK, FCLK, RESET; input [3:0] READ; input [2:0] RCLKSEL; input [7:0] DLLSTEP; input [7:0] WSTEP; input RLOADN, RMOVE, RDIR, WLOADN, WMOVE, WDIR, HOLD; output DQSR90, DQSW0, DQSW270; output [2:0] RPOINT, WPOINT; output RVALID, RBURST, RFLAG, WFLAG; parameter FIFO_MODE_SEL = 1'b0; // FIFO mode select,1'b0: DDR memory mode;1'b1: GDDR mode parameter RD_PNTR = 3'b000; // FIFO read pointer setting parameter DQS_MODE = "X1"; // "X1", "X2_DDR2", "X2_DDR3","X4","X2_DDR3_EXT" parameter HWL = "false"; //"true"; "false" endmodule