UnityChipVerification/rtl/BPUTop/CAMTemplate.sv

137 lines
4.4 KiB
Systemverilog

// Generated by CIRCT firtool-1.62.0
// Standard header to adapt well known macros for register randomization.
`ifndef RANDOMIZE
`ifdef RANDOMIZE_MEM_INIT
`define RANDOMIZE
`endif // RANDOMIZE_MEM_INIT
`endif // not def RANDOMIZE
`ifndef RANDOMIZE
`ifdef RANDOMIZE_REG_INIT
`define RANDOMIZE
`endif // RANDOMIZE_REG_INIT
`endif // not def RANDOMIZE
// RANDOM may be set to an expression that produces a 32-bit random unsigned value.
`ifndef RANDOM
`define RANDOM $random
`endif // not def RANDOM
// Users can define INIT_RANDOM as general code that gets injected into the
// initializer block for modules with registers.
`ifndef INIT_RANDOM
`define INIT_RANDOM
`endif // not def INIT_RANDOM
// If using random initialization, you can also define RANDOMIZE_DELAY to
// customize the delay used, otherwise 0.002 is used.
`ifndef RANDOMIZE_DELAY
`define RANDOMIZE_DELAY 0.002
`endif // not def RANDOMIZE_DELAY
// Define INIT_RANDOM_PROLOG_ for use in our modules below.
`ifndef INIT_RANDOM_PROLOG_
`ifdef RANDOMIZE
`ifdef VERILATOR
`define INIT_RANDOM_PROLOG_ `INIT_RANDOM
`else // VERILATOR
`define INIT_RANDOM_PROLOG_ `INIT_RANDOM #`RANDOMIZE_DELAY begin end
`endif // VERILATOR
`else // RANDOMIZE
`define INIT_RANDOM_PROLOG_
`endif // RANDOMIZE
`endif // not def INIT_RANDOM_PROLOG_
// Include register initializers in init blocks unless synthesis is set
`ifndef SYNTHESIS
`ifndef ENABLE_INITIAL_REG_
`define ENABLE_INITIAL_REG_
`endif // not def ENABLE_INITIAL_REG_
`endif // not def SYNTHESIS
// Include rmemory initializers in init blocks unless synthesis is set
`ifndef SYNTHESIS
`ifndef ENABLE_INITIAL_MEM_
`define ENABLE_INITIAL_MEM_
`endif // not def ENABLE_INITIAL_MEM_
`endif // not def SYNTHESIS
module CAMTemplate(
input clock,
input [8:0] io_r_req_0_idx,
output io_r_resp_0_0,
output io_r_resp_0_1,
output io_r_resp_0_2,
output io_r_resp_0_3,
output io_r_resp_0_4,
output io_r_resp_0_5,
output io_r_resp_0_6,
output io_r_resp_0_7,
input io_w_valid,
input [8:0] io_w_bits_data_idx,
input [2:0] io_w_bits_index
);
reg [8:0] array_0;
reg [8:0] array_1;
reg [8:0] array_2;
reg [8:0] array_3;
reg [8:0] array_4;
reg [8:0] array_5;
reg [8:0] array_6;
reg [8:0] array_7;
always @(posedge clock) begin
if (io_w_valid & io_w_bits_index == 3'h0)
array_0 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h1)
array_1 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h2)
array_2 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h3)
array_3 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h4)
array_4 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h5)
array_5 <= io_w_bits_data_idx;
if (io_w_valid & io_w_bits_index == 3'h6)
array_6 <= io_w_bits_data_idx;
if (io_w_valid & (&io_w_bits_index))
array_7 <= io_w_bits_data_idx;
end // always @(posedge)
`ifdef ENABLE_INITIAL_REG_
`ifdef FIRRTL_BEFORE_INITIAL
`FIRRTL_BEFORE_INITIAL
`endif // FIRRTL_BEFORE_INITIAL
logic [31:0] _RANDOM[0:2];
initial begin
`ifdef INIT_RANDOM_PROLOG_
`INIT_RANDOM_PROLOG_
`endif // INIT_RANDOM_PROLOG_
`ifdef RANDOMIZE_REG_INIT
for (logic [1:0] i = 2'h0; i < 2'h3; i += 2'h1) begin
_RANDOM[i] = `RANDOM;
end
array_0 = _RANDOM[2'h0][8:0];
array_1 = _RANDOM[2'h0][17:9];
array_2 = _RANDOM[2'h0][26:18];
array_3 = {_RANDOM[2'h0][31:27], _RANDOM[2'h1][3:0]};
array_4 = _RANDOM[2'h1][12:4];
array_5 = _RANDOM[2'h1][21:13];
array_6 = _RANDOM[2'h1][30:22];
array_7 = {_RANDOM[2'h1][31], _RANDOM[2'h2][7:0]};
`endif // RANDOMIZE_REG_INIT
end // initial
`ifdef FIRRTL_AFTER_INITIAL
`FIRRTL_AFTER_INITIAL
`endif // FIRRTL_AFTER_INITIAL
`endif // ENABLE_INITIAL_REG_
assign io_r_resp_0_0 = io_r_req_0_idx == array_0;
assign io_r_resp_0_1 = io_r_req_0_idx == array_1;
assign io_r_resp_0_2 = io_r_req_0_idx == array_2;
assign io_r_resp_0_3 = io_r_req_0_idx == array_3;
assign io_r_resp_0_4 = io_r_req_0_idx == array_4;
assign io_r_resp_0_5 = io_r_req_0_idx == array_5;
assign io_r_resp_0_6 = io_r_req_0_idx == array_6;
assign io_r_resp_0_7 = io_r_req_0_idx == array_7;
endmodule