Added riscvsingle. Removed unnecessary coremark config. Added compiler flags for Coremark.

This commit is contained in:
David Harris 2022-01-10 05:04:13 +00:00
parent 89ee6c778e
commit 467aac8463
10 changed files with 449 additions and 2193 deletions

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@ -12,8 +12,11 @@ work/coremark.bare.riscv.memfile: work/coremark.bare.riscv work/coremark.bare.ri
work/coremark.bare.riscv.objdump: work/coremark.bare.riscv
riscv64-unknown-elf-objdump -D work/coremark.bare.riscv > work/coremark.bare.riscv.objdump
work/coremark.bare.riscv: $(sources)
make -C $(cmbase) PORT_DIR=$(PORT_DIR) compile RISCV=/opt/riscv/riscv-gnu-toolchain XCFLAGS="-march=rv64imd"
work/coremark.bare.riscv: $(sources) Makefile
# make -C $(cmbase) PORT_DIR=$(PORT_DIR) compile RISCV=/opt/riscv/riscv-gnu-toolchain XCFLAGS="-march=rv64imd -mabi=lp64d -mbranch-cost=1 -DSKIP_DEFAULT_MEMSET -mtune=sifive-7-series -Ofast -funroll-all-loops -fno-delete-null-pointer-checks -fno-rename-registers --param=loop-max-datarefs-for-datadeps=0 -funroll-all-loops --param=uninlined-function-insns=8 -fno-tree-vrp -fwrapv -fno-toplevel-reorder --param=max-inline-insns-size=128 -fipa-pta"
# These flags were used by WD on CoreMark
make -C $(cmbase) PORT_DIR=$(PORT_DIR) compile RISCV=/opt/riscv/riscv-gnu-toolchain XCFLAGS="-march=rv64imd -mabi=lp64d -mbranch-cost=1 -DSKIP_DEFAULT_MEMSET -mtune=sifive-7-series -Ofast -funroll-all-loops -fno-delete-null-pointer-checks -fno-rename-registers --param=loop-max-datarefs-for-datadeps=0 -funroll-all-loops --param=uninlined-function-insns=8 -fno-tree-vrp -fwrapv -fipa-pta "
# -fno-toplevel-reorder --param=max-inline-insns-size=128 " # adding this bit caused a compiler error
mkdir -p work/
mv $(cmbase)/coremark.bare.riscv work/

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@ -1,3 +0,0 @@
If you need to compile for different abi, below is an example of how to configure the gnu riscv toolchain.
./configure --prefix=/import/eager1/ross/riscv-multilib-bin --enable-multilib --multilib-generate="rv32i-ilp32--;rv32im-ilp32--;rv32iac-ilp32--;rv32imac-ilp32--;rv32imafc-ilp32f--;rv64ic-lp64--;rv64imac-lp64--;rv64imafdc-lp64d--"

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@ -0,0 +1,33 @@
# riscvtest.s
# Sarah.Harris@unlv.edu
# David_Harris@hmc.edu
# 27 Oct 2020
#
# Test the RISC-V processor.
# add, sub, and, or, slt, addi, lw, sw, beq, jal
# If successful, it should write the value 25 to address 100
# RISC-V Assembly Description Address Machine Code
main: addi x2, x0, 5 # x2 = 5 0 00500113
addi x3, x0, 12 # x3 = 12 4 00C00193
addi x7, x3, -9 # x7 = (12 - 9) = 3 8 FF718393
or x4, x7, x2 # x4 = (3 OR 5) = 7 C 0023E233
and x5, x3, x4 # x5 = (12 AND 7) = 4 10 0041F2B3
add x5, x5, x4 # x5 = (4 + 7) = 11 14 004282B3
beq x5, x7, end # shouldn't be taken 18 02728863
slt x4, x3, x4 # x4 = (12 < 7) = 0 1C 0041A233
beq x4, x0, around # should be taken 20 00020463
addi x5, x0, 0 # shouldn't happen 24 00000293
around: slt x4, x7, x2 # x4 = (3 < 5) = 1 28 0023A233
add x7, x4, x5 # x7 = (1 + 11) = 12 2C 005203B3
sub x7, x7, x2 # x7 = (12 - 5) = 7 30 402383B3
sw x7, 84(x3) # [96] = 7 34 0471AA23
lw x2, 96(x0) # x2 = [96] = 7 38 06002103
add x9, x2, x5 # x9 = (7 + 11) = 18 3C 005104B3
jal x3, end # jump to end, x3 = 0x44 40 008001EF
addi x2, x0, 1 # shouldn't happen 44 00100113
end: add x2, x2, x9 # x2 = (7 + 18) = 25 48 00910133
sw x2, 0x20(x3) # mem[100] = 25 4C 0221A023
done: beq x2, x2, done # infinite loop 50 00210063

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@ -0,0 +1,21 @@
00500113
00C00193
FF718393
0023E233
0041F2B3
004282B3
02728863
0041A233
00020463
00000293
0023A233
005203B3
402383B3
0471AA23
06002103
005104B3
008001EF
00100113
00910133
0221A023
00210063

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@ -0,0 +1,384 @@
// riscvsingle.sv
// RISC-V single-cycle processor
// From Section 7.6 of Digital Design & Computer Architecture
// 27 April 2020
// David_Harris@hmc.edu
// Sarah.Harris@unlv.edu
// run 210
// Expect simulator to print "Simulation succeeded"
// when the value 25 (0x19) is written to address 100 (0x64)
// Single-cycle implementation of RISC-V (RV32I)
// User-level Instruction Set Architecture V2.2 (May 7, 2017)
// Implements a subset of the base integer instructions:
// lw, sw
// add, sub, and, or, slt,
// addi, andi, ori, slti
// beq
// jal
// Exceptions, traps, and interrupts not implemented
// little-endian memory
// 31 32-bit registers x1-x31, x0 hardwired to 0
// R-Type instructions
// add, sub, and, or, slt
// INSTR rd, rs1, rs2
// Instr[31:25] = funct7 (funct7b5 & opb5 = 1 for sub, 0 for others)
// Instr[24:20] = rs2
// Instr[19:15] = rs1
// Instr[14:12] = funct3
// Instr[11:7] = rd
// Instr[6:0] = opcode
// I-Type Instructions
// lw, I-type ALU (addi, andi, ori, slti)
// lw: INSTR rd, imm(rs1)
// I-type ALU: INSTR rd, rs1, imm (12-bit signed)
// Instr[31:20] = imm[11:0]
// Instr[24:20] = rs2
// Instr[19:15] = rs1
// Instr[14:12] = funct3
// Instr[11:7] = rd
// Instr[6:0] = opcode
// S-Type Instruction
// sw rs2, imm(rs1) (store rs2 into address specified by rs1 + immm)
// Instr[31:25] = imm[11:5] (offset[11:5])
// Instr[24:20] = rs2 (src)
// Instr[19:15] = rs1 (base)
// Instr[14:12] = funct3
// Instr[11:7] = imm[4:0] (offset[4:0])
// Instr[6:0] = opcode
// B-Type Instruction
// beq rs1, rs2, imm (PCTarget = PC + (signed imm x 2))
// Instr[31:25] = imm[12], imm[10:5]
// Instr[24:20] = rs2
// Instr[19:15] = rs1
// Instr[14:12] = funct3
// Instr[11:7] = imm[4:1], imm[11]
// Instr[6:0] = opcode
// J-Type Instruction
// jal rd, imm (signed imm is multiplied by 2 and added to PC, rd = PC+4)
// Instr[31:12] = imm[20], imm[10:1], imm[11], imm[19:12]
// Instr[11:7] = rd
// Instr[6:0] = opcode
// Instruction opcode funct3 funct7
// add 0110011 000 0000000
// sub 0110011 000 0100000
// and 0110011 111 0000000
// or 0110011 110 0000000
// slt 0110011 010 0000000
// addi 0010011 000 immediate
// andi 0010011 111 immediate
// ori 0010011 110 immediate
// slti 0010011 010 immediate
// beq 1100011 000 immediate
// lw 0000011 010 immediate
// sw 0100011 010 immediate
// jal 1101111 immediate immediate
module testbench();
logic clk;
logic reset;
logic [31:0] WriteData, DataAdr;
logic MemWrite;
// instantiate device to be tested
top dut(clk, reset, WriteData, DataAdr, MemWrite);
// initialize test
initial
begin
reset <= 1; # 22; reset <= 0;
end
// generate clock to sequence tests
always
begin
clk <= 1; # 5; clk <= 0; # 5;
end
// check results
always @(negedge clk)
begin
if(MemWrite) begin
if(DataAdr === 100 & WriteData === 25) begin
$display("Simulation succeeded");
$stop;
end else if (DataAdr !== 96) begin
$display("Simulation failed");
$stop;
end
end
end
endmodule
module top(input logic clk, reset,
output logic [31:0] WriteData, DataAdr,
output logic MemWrite);
logic [31:0] PC, Instr, ReadData;
// instantiate processor and memories
riscvsingle rvsingle(clk, reset, PC, Instr, MemWrite, DataAdr,
WriteData, ReadData);
imem imem(PC, Instr);
dmem dmem(clk, MemWrite, DataAdr, WriteData, ReadData);
endmodule
module riscvsingle(input logic clk, reset,
output logic [31:0] PC,
input logic [31:0] Instr,
output logic MemWrite,
output logic [31:0] ALUResult, WriteData,
input logic [31:0] ReadData);
logic ALUSrc, RegWrite, Jump, Zero;
logic [1:0] ResultSrc, ImmSrc;
logic [2:0] ALUControl;
controller c(Instr[6:0], Instr[14:12], Instr[30], Zero,
ResultSrc, MemWrite, PCSrc,
ALUSrc, RegWrite, Jump,
ImmSrc, ALUControl);
datapath dp(clk, reset, ResultSrc, PCSrc,
ALUSrc, RegWrite,
ImmSrc, ALUControl,
Zero, PC, Instr,
ALUResult, WriteData, ReadData);
endmodule
module controller(input logic [6:0] op,
input logic [2:0] funct3,
input logic funct7b5,
input logic Zero,
output logic [1:0] ResultSrc,
output logic MemWrite,
output logic PCSrc, ALUSrc,
output logic RegWrite, Jump,
output logic [1:0] ImmSrc,
output logic [2:0] ALUControl);
logic [1:0] ALUOp;
logic Branch;
maindec md(op, ResultSrc, MemWrite, Branch,
ALUSrc, RegWrite, Jump, ImmSrc, ALUOp);
aludec ad(op[5], funct3, funct7b5, ALUOp, ALUControl);
assign PCSrc = Branch & Zero | Jump;
endmodule
module maindec(input logic [6:0] op,
output logic [1:0] ResultSrc,
output logic MemWrite,
output logic Branch, ALUSrc,
output logic RegWrite, Jump,
output logic [1:0] ImmSrc,
output logic [1:0] ALUOp);
logic [10:0] controls;
assign {RegWrite, ImmSrc, ALUSrc, MemWrite,
ResultSrc, Branch, ALUOp, Jump} = controls;
always_comb
case(op)
// RegWrite_ImmSrc_ALUSrc_MemWrite_ResultSrc_Branch_ALUOp_Jump
7'b0000011: controls = 11'b1_00_1_0_01_0_00_0; // lw
7'b0100011: controls = 11'b0_01_1_1_00_0_00_0; // sw
7'b0110011: controls = 11'b1_xx_0_0_00_0_10_0; // R-type
7'b1100011: controls = 11'b0_10_0_0_00_1_01_0; // beq
7'b0010011: controls = 11'b1_00_1_0_00_0_10_0; // I-type ALU
7'b1101111: controls = 11'b1_11_0_0_10_0_00_1; // jal
default: controls = 11'bx_xx_x_x_xx_x_xx_x; // non-implemented instruction
endcase
endmodule
module aludec(input logic opb5,
input logic [2:0] funct3,
input logic funct7b5,
input logic [1:0] ALUOp,
output logic [2:0] ALUControl);
logic RtypeSub;
assign RtypeSub = funct7b5 & opb5; // TRUE for R-type subtract instruction
always_comb
case(ALUOp)
2'b00: ALUControl = 3'b000; // addition
2'b01: ALUControl = 3'b001; // subtraction
default: case(funct3) // R-type or I-type ALU
3'b000: if (RtypeSub)
ALUControl = 3'b001; // sub
else
ALUControl = 3'b000; // add, addi
3'b010: ALUControl = 3'b101; // slt, slti
3'b110: ALUControl = 3'b011; // or, ori
3'b111: ALUControl = 3'b010; // and, andi
default: ALUControl = 3'bxxx; // ???
endcase
endcase
endmodule
module datapath(input logic clk, reset,
input logic [1:0] ResultSrc,
input logic PCSrc, ALUSrc,
input logic RegWrite,
input logic [1:0] ImmSrc,
input logic [2:0] ALUControl,
output logic Zero,
output logic [31:0] PC,
input logic [31:0] Instr,
output logic [31:0] ALUResult, WriteData,
input logic [31:0] ReadData);
logic [31:0] PCNext, PCPlus4, PCTarget;
logic [31:0] ImmExt;
logic [31:0] SrcA, SrcB;
logic [31:0] Result;
// next PC logic
flopr #(32) pcreg(clk, reset, PCNext, PC);
adder pcadd4(PC, 32'd4, PCPlus4);
adder pcaddbranch(PC, ImmExt, PCTarget);
mux2 #(32) pcmux(PCPlus4, PCTarget, PCSrc, PCNext);
// register file logic
regfile rf(clk, RegWrite, Instr[19:15], Instr[24:20],
Instr[11:7], Result, SrcA, WriteData);
extend ext(Instr[31:7], ImmSrc, ImmExt);
// ALU logic
mux2 #(32) srcbmux(WriteData, ImmExt, ALUSrc, SrcB);
alu alu(SrcA, SrcB, ALUControl, ALUResult, Zero);
mux3 #(32) resultmux(ALUResult, ReadData, PCPlus4, ResultSrc, Result);
endmodule
module regfile(input logic clk,
input logic we3,
input logic [ 4:0] a1, a2, a3,
input logic [31:0] wd3,
output logic [31:0] rd1, rd2);
logic [31:0] rf[31:0];
// three ported register file
// read two ports combinationally (A1/RD1, A2/RD2)
// write third port on rising edge of clock (A3/WD3/WE3)
// register 0 hardwired to 0
always_ff @(posedge clk)
if (we3) rf[a3] <= wd3;
assign rd1 = (a1 != 0) ? rf[a1] : 0;
assign rd2 = (a2 != 0) ? rf[a2] : 0;
endmodule
module adder(input [31:0] a, b,
output [31:0] y);
assign y = a + b;
endmodule
module extend(input logic [31:7] instr,
input logic [1:0] immsrc,
output logic [31:0] immext);
always_comb
case(immsrc)
// I-type
2'b00: immext = {{20{instr[31]}}, instr[31:20]};
// S-type (stores)
2'b01: immext = {{20{instr[31]}}, instr[31:25], instr[11:7]};
// B-type (branches)
2'b10: immext = {{20{instr[31]}}, instr[7], instr[30:25], instr[11:8], 1'b0};
// J-type (jal)
2'b11: immext = {{12{instr[31]}}, instr[19:12], instr[20], instr[30:21], 1'b0};
default: immext = 32'bx; // undefined
endcase
endmodule
module flopr #(parameter WIDTH = 8)
(input logic clk, reset,
input logic [WIDTH-1:0] d,
output logic [WIDTH-1:0] q);
always_ff @(posedge clk, posedge reset)
if (reset) q <= 0;
else q <= d;
endmodule
module mux2 #(parameter WIDTH = 8)
(input logic [WIDTH-1:0] d0, d1,
input logic s,
output logic [WIDTH-1:0] y);
assign y = s ? d1 : d0;
endmodule
module mux3 #(parameter WIDTH = 8)
(input logic [WIDTH-1:0] d0, d1, d2,
input logic [1:0] s,
output logic [WIDTH-1:0] y);
assign y = s[1] ? d2 : (s[0] ? d1 : d0);
endmodule
module imem(input logic [31:0] a,
output logic [31:0] rd);
logic [31:0] RAM[63:0];
initial
$readmemh("riscvtest.txt",RAM);
assign rd = RAM[a[31:2]]; // word aligned
endmodule
module dmem(input logic clk, we,
input logic [31:0] a, wd,
output logic [31:0] rd);
logic [31:0] RAM[63:0];
assign rd = RAM[a[31:2]]; // word aligned
always_ff @(posedge clk)
if (we) RAM[a[31:2]] <= wd;
endmodule
module alu(input logic [31:0] a, b,
input logic [2:0] alucontrol,
output logic [31:0] result,
output logic zero);
logic [31:0] condinvb, sum;
logic v; // overflow
logic isAddSub; // true when is add or subtract operation
assign condinvb = alucontrol[0] ? ~b : b;
assign sum = a + condinvb + alucontrol[0];
assign isAddSub = ~alucontrol[2] & ~alucontrol[1] |
~alucontrol[1] & alucontrol[0];
always_comb
case (alucontrol)
3'b000: result = sum; // add
3'b001: result = sum; // subtract
3'b010: result = a & b; // and
3'b011: result = a | b; // or
3'b100: result = a ^ b; // xor
3'b101: result = sum[31] ^ v; // slt
3'b110: result = a << b[4:0]; // sll
3'b111: result = a >> b[4:0]; // srl
default: result = 32'bx;
endcase
assign zero = (result == 32'b0);
assign v = ~(alucontrol[0] ^ a[31] ^ b[31]) & (a[31] ^ sum[31]) & isAddSub;
endmodule

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@ -1,135 +0,0 @@
//////////////////////////////////////////
// wally-config.vh
//
// Written: David_Harris@hmc.edu 4 January 2021
// Modified:
//
// Purpose: Specify which features are configured
// Macros to determine which modes are supported based on MISA
//
// A component of the Wally configurable RISC-V project.
//
// Copyright (C) 2021 Harvey Mudd College & Oklahoma State University
//
// Permission is hereby granted, free of charge, to any person obtaining a copy of this software and associated documentation
// files (the "Software"), to deal in the Software without restriction, including without limitation the rights to use, copy,
// modify, merge, publish, distribute, sublicense, and/or sell copies of the Software, and to permit persons to whom the Software
// is furnished to do so, subject to the following conditions:
//
// The above copyright notice and this permission notice shall be included in all copies or substantial portions of the Software.
//
// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES
// OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS
// BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT
// OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
///////////////////////////////////////////
// include shared configuration
`include "wally-shared.vh"
`define FPGA 0
`define QEMU 0
`define BUILDROOT 0
`define BUSYBEAR 0
// RV32 or RV64: XLEN = 32 or 64
`define XLEN 64
// IEEE 754 compliance
`define IEEE754 0
//`define MISA (32'h00000104)
`define MISA (32'h00000104 | 1<<5 | 1<<18 | 1 << 20 | 1 << 12)
`define ZICSR_SUPPORTED 1
`define ZIFENCEI_SUPPORTED 1
`define COUNTERS 32
`define ZICOUNTERS_SUPPORTED 1
`define DESIGN_COMPILER 0
// Microarchitectural Features
`define UARCH_PIPELINED 1
`define UARCH_SUPERSCALR 0
`define UARCH_SINGLECYCLE 0
`define MEM_DTIM 1
`define MEM_DCACHE 1
`define MEM_IROM 1
`define MEM_ICACHE 1
`define MEM_VIRTMEM 1
`define VECTORED_INTERRUPTS_SUPPORTED 1
// TLB configuration. Entries should be a power of 2
`define ITLB_ENTRIES 32
`define DTLB_ENTRIES 32
// Cache configuration. Sizes should be a power of two
// typical configuration 4 ways, 4096 bytes per way, 256 bit or more lines
`define DCACHE_NUMWAYS 4
`define DCACHE_WAYSIZEINBYTES 2048
`define DCACHE_LINELENINBITS 256
`define DCACHE_REPLBITS 3
`define ICACHE_NUMWAYS 1
`define ICACHE_WAYSIZEINBYTES 4096
`define ICACHE_LINELENINBITS 256
// Integer Divider Configuration
// DIV_BITSPERCYCLE must be 1, 2, or 4
`define DIV_BITSPERCYCLE 4
// Legal number of PMP entries are 0, 16, or 64
`define PMP_ENTRIES 16
// Address space
`define RESET_VECTOR 64'h00000000000100b0
// Bus Interface width
`define AHBW 64
// Peripheral Addresses
// Peripheral memory space extends from BASE to BASE+RANGE
// Range should be a thermometer code with 0's in the upper bits and 1s in the lower bits
`define BOOTROM_SUPPORTED 1'b1
`define BOOTROM_BASE 34'h00001000
`define BOOTROM_RANGE 34'h00000FFF
`define RAM_SUPPORTED 1'b1
`define RAM_BASE 34'h80000000
`define RAM_RANGE 34'h07FFFFFF
`define EXT_MEM_SUPPORTED 1'b0
`define EXT_MEM_BASE 56'h80000000
`define EXT_MEM_RANGE 56'h07FFFFFF
`define CLINT_SUPPORTED 1'b1
`define CLINT_BASE 34'h02000000
`define CLINT_RANGE 34'h0000FFFF
`define GPIO_SUPPORTED 1'b1
`define GPIO_BASE 34'h10012000
`define GPIO_RANGE 34'h000000FF
`define UART_SUPPORTED 1'b1
`define UART_BASE 34'h10000000
`define UART_RANGE 34'h00000007
`define PLIC_SUPPORTED 1'b1
`define PLIC_BASE 34'h0C000000
`define PLIC_RANGE 34'h03FFFFFF
`define SDC_SUPPORTED 1'b0
`define SDC_BASE 56'h00012100
`define SDC_RANGE 56'h0000001F
// Test modes
// Tie GPIO outputs back to inputs
`define GPIO_LOOPBACK_TEST 0
// Hardware configuration
`define UART_PRESCALE 1
// Interrupt configuration
`define PLIC_NUM_SRC 53
`define PLIC_UART_ID 4
// Can add PLIC Config here
// Num interrupt sources
`define TWO_BIT_PRELOAD "../config/coremark/twoBitPredictor.txt"
`define BTB_PRELOAD "../config/coremark/BTBPredictor.txt"
`define BPRED_ENABLED 1
`define BPTYPE "BPGSHARE" // BPGLOBAL or BPTWOBIT or BPGSHARE
`define TESTSBP 0

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@ -28,7 +28,8 @@ vlib work
# because vsim will run vopt
# default to config/coremark, but allow this to be overridden at the command line. For example:
vlog +incdir+../config/coremark_bare +incdir+../config/shared ../testbench/testbench-coremark_bare.sv ../testbench/common/*.sv ../src/*/*.sv ../src/*/*/*.sv -suppress 2583
#vlog +incdir+../config/coremark_bare +incdir+../config/shared ../testbench/testbench-coremark_bare.sv ../testbench/common/*.sv ../src/*/*.sv ../src/*/*/*.sv -suppress 2583
vlog +incdir+../config/rv64gc +incdir+../config/shared ../testbench/testbench-coremark_bare.sv ../testbench/common/*.sv ../src/*/*.sv ../src/*/*/*.sv -suppress 2583
# start and run simulation
# remove +acc flag for faster sim during regressions if there is no need to access internal signals

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@ -77,9 +77,9 @@ module testbench();
assign HREADYEXT = 1;
assign HRESPEXT = 0;
assign HRDATAEXT = 0;
wallypipelinedsoc dut(.clk, .reset_ext, .HRDATAEXT,.HREADYEXT, .HRESPEXT,.HSELEXT,
wallypipelinedsoc dut(.clk, .reset_ext, .reset(), .HRDATAEXT,.HREADYEXT, .HRESPEXT,.HSELEXT,
.HCLK, .HRESETn, .HADDR, .HWDATA, .HWRITE, .HSIZE, .HBURST, .HPROT,
.HTRANS, .HMASTLOCK, .HREADY, .TIMECLK(0), .GPIOPinsIn, .GPIOPinsOut, .GPIOPinsEn,
.HTRANS, .HMASTLOCK, .HREADY, .TIMECLK(1'b0), .GPIOPinsIn, .GPIOPinsOut, .GPIOPinsEn,
.UARTSin, .UARTSout, .SDCCmdIn, .SDCCmdOut, .SDCCmdOE, .SDCDatIn, .SDCCLK);
logic [31:0] InstrW;
@ -87,7 +87,7 @@ module testbench();
// Track names of instructions
instrTrackerTB it(clk, reset, dut.hart.ieu.dp.FlushE,
dut.hart.ifu.icache.FinalInstrRawF,
dut.hart.ifu.icache.icache.readdata.FinalInstrRawF, // *** is there a better name
dut.hart.ifu.InstrD, dut.hart.ifu.InstrE,
dut.hart.ifu.InstrM, InstrW,
InstrFName, InstrDName, InstrEName, InstrMName, InstrWName);
@ -123,7 +123,7 @@ module testbench();
end
always @(negedge clk)
begin
if (dut.hart.priv.ecallM) begin
if (dut.hart.priv.priv.ecallM) begin
#20;
$display("Code ended with ebreakM");
$stop;