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// Quartus II SystemVerilog Template
//
// True Dual-Port RAM with different read/write addresses and single read/write clock
// and with a control for writing single bytes into the memory word; byte enable
 
// Read during write produces old data on ports A and B and old data on mixed ports
// For device families that do not support this mode (e.g. Stratix V) the ram is not inferred
 
 
`timescale 1ns / 1ps
 
module byte_enabled_true_dual_port_ram  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v format
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 4,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
generate
if (BYTES==1) begin : byte_en1
        byte_enabled_true_dual_port_ram_1
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==2) begin : byte_en2
        byte_enabled_true_dual_port_ram_2
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==3) begin : byte_en3
        byte_enabled_true_dual_port_ram_3
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==4) begin : byte_en4
        byte_enabled_true_dual_port_ram_4
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==5) begin : byte_en5
        byte_enabled_true_dual_port_ram_5
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==6) begin : byte_en6
        byte_enabled_true_dual_port_ram_6
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==7) begin : byte_en7
        byte_enabled_true_dual_port_ram_7
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==8) begin : byte_en8
        byte_enabled_true_dual_port_ram_8
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==9) begin : byte_en9
        byte_enabled_true_dual_port_ram_9
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==10) begin : byte_en10
        byte_enabled_true_dual_port_ram_10
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==11) begin : byte_en11
        byte_enabled_true_dual_port_ram_11
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==12) begin : byte_en12
        byte_enabled_true_dual_port_ram_12
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==13) begin : byte_en13
        byte_enabled_true_dual_port_ram_13
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==14) begin : byte_en14
        byte_enabled_true_dual_port_ram_14
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
if (BYTES==15) begin : byte_en15
        byte_enabled_true_dual_port_ram_15
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr1(addr1),
                .addr2(addr2),
                .be1(be1),
                .be2(be2),
                .data_in1(data_in1),
                .data_in2(data_in2),
                .we1(we1),
                .we2(we2),
                .clk(clk),
                .data_out1(data_out1),
                .data_out2(data_out2)
        );
end
endgenerate
endmodule:  byte_enabled_true_dual_port_ram
 
module byte_enabled_true_dual_port_ram_1        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 1,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_1
 
module byte_enabled_true_dual_port_ram_2        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 2,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_2
 
module byte_enabled_true_dual_port_ram_3        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 3,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_3
 
module byte_enabled_true_dual_port_ram_4        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 4,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_4
 
module byte_enabled_true_dual_port_ram_5        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 5,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_5
 
module byte_enabled_true_dual_port_ram_6        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 6,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_6
 
module byte_enabled_true_dual_port_ram_7        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 7,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_7
 
module byte_enabled_true_dual_port_ram_8        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 8,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_8
 
module byte_enabled_true_dual_port_ram_9        #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 9,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_9
 
module byte_enabled_true_dual_port_ram_10       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 10,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_10
 
module byte_enabled_true_dual_port_ram_11       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 11,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
                if(be1[10]) ram[addr1][10] <= data_in_sep1[10];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
                if(be2[10]) ram[addr2][10] <= data_in_sep2[10];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_11
 
module byte_enabled_true_dual_port_ram_12       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 12,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
                if(be1[10]) ram[addr1][10] <= data_in_sep1[10];
                if(be1[11]) ram[addr1][11] <= data_in_sep1[11];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
                if(be2[10]) ram[addr2][10] <= data_in_sep2[10];
                if(be2[11]) ram[addr2][11] <= data_in_sep2[11];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_12
 
module byte_enabled_true_dual_port_ram_13       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 13,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
                if(be1[10]) ram[addr1][10] <= data_in_sep1[10];
                if(be1[11]) ram[addr1][11] <= data_in_sep1[11];
                if(be1[12]) ram[addr1][12] <= data_in_sep1[12];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
                if(be2[10]) ram[addr2][10] <= data_in_sep2[10];
                if(be2[11]) ram[addr2][11] <= data_in_sep2[11];
                if(be2[12]) ram[addr2][12] <= data_in_sep2[12];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_13
 
module byte_enabled_true_dual_port_ram_14       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 14,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
                if(be1[10]) ram[addr1][10] <= data_in_sep1[10];
                if(be1[11]) ram[addr1][11] <= data_in_sep1[11];
                if(be1[12]) ram[addr1][12] <= data_in_sep1[12];
                if(be1[13]) ram[addr1][13] <= data_in_sep1[13];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
                if(be2[10]) ram[addr2][10] <= data_in_sep2[10];
                if(be2[11]) ram[addr2][11] <= data_in_sep2[11];
                if(be2[12]) ram[addr2][12] <= data_in_sep2[12];
                if(be2[13]) ram[addr2][13] <= data_in_sep2[13];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_14
 
module byte_enabled_true_dual_port_ram_15       #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 15,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr1,
        input [ADDRESS_WIDTH-1:0] addr2,
        input [BYTES-1:0] be1,
        input [BYTES-1:0] be2,
        input [DATA_WIDTH_R-1:0] data_in1,
        input [DATA_WIDTH_R-1:0] data_in2,
        input we1, we2, clk,
        output [DATA_WIDTH_R-1:0] data_out1,
        output [DATA_WIDTH_R-1:0] data_out2
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep1[BYTES-1 :       0];
wire [BYTE_WIDTH-1      :       0] data_in_sep2[BYTES-1 :       0];
 
genvar i;
generate
for (i=0;i
        assign data_in_sep1[i]=data_in1[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
        assign data_in_sep2[i]=data_in2[(i+1)*BYTE_WIDTH-1      :       i*BYTE_WIDTH];
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg1;
        reg [DATA_WIDTH_R-1:0] data_reg2;
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we1) begin
                if(be1[0]) ram[addr1][0] <= data_in_sep1[0];
                if(be1[1]) ram[addr1][1] <= data_in_sep1[1];
                if(be1[2]) ram[addr1][2] <= data_in_sep1[2];
                if(be1[3]) ram[addr1][3] <= data_in_sep1[3];
                if(be1[4]) ram[addr1][4] <= data_in_sep1[4];
                if(be1[5]) ram[addr1][5] <= data_in_sep1[5];
                if(be1[6]) ram[addr1][6] <= data_in_sep1[6];
                if(be1[7]) ram[addr1][7] <= data_in_sep1[7];
                if(be1[8]) ram[addr1][8] <= data_in_sep1[8];
                if(be1[9]) ram[addr1][9] <= data_in_sep1[9];
                if(be1[10]) ram[addr1][10] <= data_in_sep1[10];
                if(be1[11]) ram[addr1][11] <= data_in_sep1[11];
                if(be1[12]) ram[addr1][12] <= data_in_sep1[12];
                if(be1[13]) ram[addr1][13] <= data_in_sep1[13];
                if(be1[14]) ram[addr1][14] <= data_in_sep1[14];
 
                end
        data_reg1 <= ram[addr1];
        end
 
        assign data_out1 = data_reg1;
 
        // port B
        always@(posedge clk)
        begin
                if(we2) begin
                if(be2[0]) ram[addr2][0] <= data_in_sep2[0];
                if(be2[1]) ram[addr2][1] <= data_in_sep2[1];
                if(be2[2]) ram[addr2][2] <= data_in_sep2[2];
                if(be2[3]) ram[addr2][3] <= data_in_sep2[3];
                if(be2[4]) ram[addr2][4] <= data_in_sep2[4];
                if(be2[5]) ram[addr2][5] <= data_in_sep2[5];
                if(be2[6]) ram[addr2][6] <= data_in_sep2[6];
                if(be2[7]) ram[addr2][7] <= data_in_sep2[7];
                if(be2[8]) ram[addr2][8] <= data_in_sep2[8];
                if(be2[9]) ram[addr2][9] <= data_in_sep2[9];
                if(be2[10]) ram[addr2][10] <= data_in_sep2[10];
                if(be2[11]) ram[addr2][11] <= data_in_sep2[11];
                if(be2[12]) ram[addr2][12] <= data_in_sep2[12];
                if(be2[13]) ram[addr2][13] <= data_in_sep2[13];
                if(be2[14]) ram[addr2][14] <= data_in_sep2[14];
 
 
                end
        data_reg2 <= ram[addr2];
        end
 
        assign data_out2 = data_reg2;
 
endmodule : byte_enabled_true_dual_port_ram_15
 
module byte_enabled_single_port_ram     #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 4,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
generate
if (BYTES==1) begin : byte_en1
        byte_enabled_single_port_ram_1
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==2) begin : byte_en2
        byte_enabled_single_port_ram_2
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==3) begin : byte_en3
        byte_enabled_single_port_ram_3
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==4) begin : byte_en4
        byte_enabled_single_port_ram_4
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==5) begin : byte_en5
        byte_enabled_single_port_ram_5
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==6) begin : byte_en6
        byte_enabled_single_port_ram_6
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==7) begin : byte_en7
        byte_enabled_single_port_ram_7
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==8) begin : byte_en8
        byte_enabled_single_port_ram_8
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==9) begin : byte_en9
        byte_enabled_single_port_ram_9
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==10) begin : byte_en10
        byte_enabled_single_port_ram_10
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==11) begin : byte_en11
        byte_enabled_single_port_ram_11
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==12) begin : byte_en12
        byte_enabled_single_port_ram_12
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==13) begin : byte_en13
        byte_enabled_single_port_ram_13
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==14) begin : byte_en14
        byte_enabled_single_port_ram_14
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
if (BYTES==15) begin : byte_en15
        byte_enabled_single_port_ram_15
                #(
                .BYTE_WIDTH(BYTE_WIDTH),
                .ADDRESS_WIDTH(ADDRESS_WIDTH),
                 .INITIAL_EN(INITIAL_EN),
                 .INIT_FILE(INIT_FILE)
        )
        ram_inst
        (
                .addr(addr),
                .be(be),
                .data_in(data_in),
                .we(we),
                .clk(clk),
                .data_out(data_out)
 
        );
end
endgenerate
endmodule : byte_enabled_single_port_ram
 
module byte_enabled_single_port_ram_1   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 1,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_1
 
module byte_enabled_single_port_ram_2   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 2,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_2
 
module byte_enabled_single_port_ram_3   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 3,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_3
 
module byte_enabled_single_port_ram_4   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 4,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_4
 
module byte_enabled_single_port_ram_5   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 5,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_5
 
module byte_enabled_single_port_ram_6   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 6,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_6
 
module byte_enabled_single_port_ram_7   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 7,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_7
 
module byte_enabled_single_port_ram_8   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 8,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_8
 
module byte_enabled_single_port_ram_9   #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 9,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_9
 
module byte_enabled_single_port_ram_10  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 10,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_10
 
module byte_enabled_single_port_ram_11  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 11,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
                if(be[10]) ram[addr][10] <= data_in_sep[10];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_11
 
module byte_enabled_single_port_ram_12  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 12,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
                if(be[10]) ram[addr][10] <= data_in_sep[10];
                if(be[11]) ram[addr][11] <= data_in_sep[11];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_12
 
module byte_enabled_single_port_ram_13  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 13,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
                if(be[10]) ram[addr][10] <= data_in_sep[10];
                if(be[11]) ram[addr][11] <= data_in_sep[11];
                if(be[12]) ram[addr][12] <= data_in_sep[12];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_13
 
module byte_enabled_single_port_ram_14  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 14,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
                if(be[10]) ram[addr][10] <= data_in_sep[10];
                if(be[11]) ram[addr][11] <= data_in_sep[11];
                if(be[12]) ram[addr][12] <= data_in_sep[12];
                if(be[13]) ram[addr][13] <= data_in_sep[13];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_14
 
module byte_enabled_single_port_ram_15  #(
                parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v forma
                parameter INITIAL_EN= "NO",
                parameter int
                BYTE_WIDTH = 8,
                ADDRESS_WIDTH = 6,
                BYTES = 15,
                DATA_WIDTH_R = BYTE_WIDTH * BYTES
)
(
        input [ADDRESS_WIDTH-1:0] addr,
        input [BYTES-1:0] be,
        input [DATA_WIDTH_R-1:0] data_in,
        input  we, clk,
        output [DATA_WIDTH_R-1:0] data_out
 
);
 
wire [BYTE_WIDTH-1      :       0] data_in_sep[BYTES-1  :       0];
 
 
genvar i;
generate
for (i=0;i
        assign data_in_sep[i]=data_in[(i+1)*BYTE_WIDTH-1        :       i*BYTE_WIDTH];
 
end
endgenerate
 
        localparam RAM_DEPTH = 1 << ADDRESS_WIDTH;
 
        // model the RAM with two dimensional packed array
        logic [BYTES-1:0][BYTE_WIDTH-1:0] ram[0:RAM_DEPTH-1];
 
        generate
                if (INITIAL_EN ==  "YES") begin : init
                   initial $readmemh(INIT_FILE,ram);
                end
        endgenerate
 
        reg [DATA_WIDTH_R-1:0] data_reg;
 
 
        // port A
        integer k;
 
        always@(posedge clk)
        begin
                if(we) begin
                if(be[0]) ram[addr][0] <= data_in_sep[0];
                if(be[1]) ram[addr][1] <= data_in_sep[1];
                if(be[2]) ram[addr][2] <= data_in_sep[2];
                if(be[3]) ram[addr][3] <= data_in_sep[3];
                if(be[4]) ram[addr][4] <= data_in_sep[4];
                if(be[5]) ram[addr][5] <= data_in_sep[5];
                if(be[6]) ram[addr][6] <= data_in_sep[6];
                if(be[7]) ram[addr][7] <= data_in_sep[7];
                if(be[8]) ram[addr][8] <= data_in_sep[8];
                if(be[9]) ram[addr][9] <= data_in_sep[9];
                if(be[10]) ram[addr][10] <= data_in_sep[10];
                if(be[11]) ram[addr][11] <= data_in_sep[11];
                if(be[12]) ram[addr][12] <= data_in_sep[12];
                if(be[13]) ram[addr][13] <= data_in_sep[13];
                if(be[14]) ram[addr][14] <= data_in_sep[14];
 
                end
        data_reg <= ram[addr];
        end
 
        assign data_out = data_reg;
 
endmodule : byte_enabled_single_port_ram_15
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[/] [an-fpga-implementation-of-low-latency-noc-based-mpsoc/] [trunk/] [mpsoc/] [src_c/] [jtag/] [test_rtl/] [jtag_ram_test/] [src_verilog/] [lib/] [byte_enabled_generic_ram.sv] - Blame information for rev 38

Line No.	Rev	Author	Line
1	38	alirezamon	`// Quartus II SystemVerilog Template`
2			`//`
3			`// True Dual-Port RAM with different read/write addresses and single read/write clock`
4			`// and with a control for writing single bytes into the memory word; byte enable`
5
6			`// Read during write produces old data on ports A and B and old data on mixed ports`
7			`// For device families that do not support this mode (e.g. Stratix V) the ram is not inferred`
8
9
10			`timescale 1ns / 1ps
11
12			`module byte_enabled_true_dual_port_ram #(`
13			`parameter INIT_FILE= "sw/ram/ram0.txt",// ram initial file in v format`
14			`parameter INITIAL_EN= "NO",`
15			`parameter int`
16			`BYTE_WIDTH = 8,`
17			`ADDRESS_WIDTH = 6,`
18			`BYTES = 4,`
19			`DATA_WIDTH_R = BYTE_WIDTH * BYTES`
20			`)`
21			`(`
22			`input [ADDRESS_WIDTH-1:0] addr1,`
23			`input [ADDRESS_WIDTH-1:0] addr2,`
24			`input [BYTES-1:0] be1,`
25			`input [BYTES-1:0] be2,`
26			`input [DATA_WIDTH_R-1:0] data_in1,`
27			`input [DATA_WIDTH_R-1:0] data_in2,`
28			`input we1, we2, clk,`
29			`output [DATA_WIDTH_R-1:0] data_out1,`
30			`output [DATA_WIDTH_R-1:0] data_out2`
31			`);`
32
33			`generate`
34			`if (BYTES==1) begin : byte_en1`
35			`byte_enabled_true_dual_port_ram_1`
36			`#(`
37			`.BYTE_WIDTH(BYTE_WIDTH),`
38			`.ADDRESS_WIDTH(ADDRESS_WIDTH),`
39			`.INITIAL_EN(INITIAL_EN),`
40			`.INIT_FILE(INIT_FILE)`