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# SLWChipVerify
SLWChipVerify 是一个轻量级芯片验证 EDA 工具MVP支持 Verilog 组合逻辑和时序逻辑验证。
## 功能
- 读取 JSON 验证规格
- 自动生成 testbench
- `examples/simple_cpu_seq_spec.json`: 时序逻辑simple_cpu示例
- `examples/simple_cpu_eventually_spec.json`: 时序窗口断言eventually示例
- `examples/simple_cpu_window_modes_spec.json`: 时序窗口断言always/never/until示例
- `examples/seq_auto_demo.v`: 自动时序激励演示 DUT
- `examples/seq_auto_demo_spec.json`: 自动时序激励演示规格
- `examples/seq_random_demo_spec.json`: 随机激励+固定种子示例
- `examples/github_cpu_validation/projects.json`: GitHub 热门 CPU 项目验证清单
- `examples/github_cpu_validation/run_github_cpu_validation.py`: GitHub 热门 CPU 自动验证脚本
- `examples/github_cpu_validation/README.md`: GitHub 热门 CPU 示例说明与打包方式
## 环境要求
- `vvp`
## 快速开始
```bash
./slwchipverify/one_click_verify.sh
```
脚本会交互询问:
- Verilog 目录
- 输出目录
- 仿真周期、时钟周期、复位周期
随后自动完成:
- 递归扫描 `.v` 文件并解析模块结构
- 自动识别或选择顶层模块
- 自动生成 smoke testbench
- 自动调用 `iverilog + vvp` 仿真
- 自动生成 VCD 波形文件
也可以用非交互模式:
```bash
python3 slwchipverify/one_click_verify.py \
--dir simple_cpu \
--top simple_cpu \
--out slwchipverify_auto \
--cycles 40 \
--period 10 \
--reset-cycles 2
```
批量模式(自动跑所有候选顶层模块):
```bash
python3 slwchipverify/one_click_verify.py \
--cycles 40 \
--period 10 \
--reset-cycles 2 \
--batch-report slwchipverify/auto_batch/batch_summary.json
```
也可以直接通过启动脚本透传参数:
```bash
./slwchipverify/one_click_verify.sh --dir simple_cpu --batch --out slwchipverify/auto_batch
```
批量模式输出说明:
- 每个顶层模块会在输出目录下生成独立子目录(包含该模块 TB、仿真可执行文件、日志、VCD
- 根输出目录下生成 `batch_summary.json`(或 `--batch-report` 指定路径)
- 返回码:全部通过返回 `0`,若任一模块失败返回 `1`
### B) 规格驱动流程(高级)
`Verilog-Learn` 目录下执行:
```bash
python3 slwchipverify/slwchipverify.py run \
-d and-gate/top.v \
--top top \
--spec slwchipverify/examples/and_gate_spec.json \
--report slwchipverify/and_gate_report.json \
--keep \
--workdir slwchipverify/build \
--dump-vcd and_gate_verify.vcd
```
成功时输出示例:
```text
[SLWChipVerify] PASS: 4/4 cases
[SLWChipVerify] Report written: .../slwchipverify/and_gate_report.json
```
时序模式示例(使用 `simple_cpu/simple_cpu.v`
```bash
python3 slwchipverify/slwchipverify.py run \
-d simple_cpu/simple_cpu.v \
--top simple_cpu \
--spec slwchipverify/examples/simple_cpu_seq_spec.json \
--report slwchipverify/simple_cpu_seq_report.json
```
自动时序激励示例(`binary_count`
```bash
python3 slwchipverify/slwchipverify.py run \
-d slwchipverify/examples/seq_auto_demo.v \
--top seq_auto_demo \
--spec slwchipverify/examples/seq_auto_demo_spec.json
```
窗口断言示例N 周期内 eventually
```bash
python3 slwchipverify/slwchipverify.py run \
-d simple_cpu/simple_cpu.v \
--top simple_cpu \
--spec slwchipverify/examples/simple_cpu_eventually_spec.json
```
窗口断言全集示例always/never/until
```bash
python3 slwchipverify/slwchipverify.py run \
-d simple_cpu/simple_cpu.v \
--top simple_cpu \
--spec slwchipverify/examples/simple_cpu_window_modes_spec.json
```
随机激励 + 可复现种子 + CI 报告导出:
```bash
python3 slwchipverify/slwchipverify.py run \
-d slwchipverify/examples/seq_auto_demo.v \
--top seq_auto_demo \
--spec slwchipverify/examples/seq_random_demo_spec.json \
--report slwchipverify/random_report.json \
--junit slwchipverify/random_junit.xml \
--csv slwchipverify/random_cases.csv
```
GitHub 热门 CPU 仓库可用性验证示例:
```bash
python3 slwchipverify/examples/github_cpu_validation/run_github_cpu_validation.py
```
## JSON 规格格式
### 1) 组合逻辑truth_table
{
"inputs": ["a", "b"],
"outputs": ["f"],
"cases": [
{
"name": "00",
"in": {"a": 0, "b": 0},
"out": {"f": 0}
}
]
}
```
说明:
- `inputs` / `outputs` 可以是字符串数组,也可以使用对象指定位宽:
- `{"name": "data", "width": 8}`
- 值支持:
- 整数:`15`
- 常见前缀:`0b1010` / `0x1f` / `0o17`
- Verilog 字面量:`8'h1f` / `4'b1010`
### 2) 时序逻辑sequential
```json
{
"kind": "sequential",
"clock": {"name": "clk", "period_ns": 10, "initial": 0},
"reset": {"name": "rst", "active": 1, "cycles": 2},
"inputs": [],
"outputs": [],
"observes": [
{"name": "cnt", "expr": "dut.cnt", "width": 4}
],
"max_cycles": 6,
"auto_stimulus": {
"enabled": true,
"start_cycle": 0,
"mode": "random",
"seed": 20260419
},
"assertions": [
{"name": "reset0", "cycle": 0, "expect": {"cnt": 0}},
{"name": "inc3", "cycle": 3, "expect": {"cnt": 2}},
{
"name": "eventually_hit_3",
"cycle": 2,
"mode": "eventually",
}
]
}
- `clock`: 时钟定义(名称、周期、初值)
- `reset`: 复位定义(名称、有效电平、保持周期)
- `assertions.mode`: `cycle`(默认)/ `eventually` / `always` / `never` / `until`
- `assertions.within`: 窗口模式eventually/always/never/until使用表示窗口宽度从 `cycle` 起算 N 周期内)
- `assertions.until_expect`: `until` 模式必填,表示终止条件;在终止条件满足前,`expect` 必须持续成立
- `auto_stimulus`: 自动时序激励配置,支持 `binary_count` 和 `random`
- `auto_stimulus.seed`: 随机激励种子,保证可复现
覆盖率统计:
CI 集成报告:
- `--junit`: 导出 JUnit XML
- `--csv`: 导出逐用例 CSV
## GitHub Actions 示例
仓库已提供示例工作流:
- `.github/workflows/slwchipverify-ci.yml`
- 自动运行组合与时序验证
- 直接消费 `--junit` 产物并生成 GitHub Checks 测试结果
- 读取 `--csv` 并写入 Job Summary
- 上传 JSON/JUnit/CSV 报告为构建产物
```bash
./package_slwchipverify_source.sh
脚本会自动生成 ZIP 源码包(默认在 `dist/` 目录),包含:
- `slwchipverify/` 全部源码与示例
- `.github/workflows/slwchipverify-ci.yml`(如果存在)
可直接将 ZIP 解压后上传到 GitHub 仓库,或在本地解压后 `git init` / `git add` / `git commit` 推送。
## 返回码
- `0`: 全部用例通过
- `1`: 有用例失败
- `2`: 工具错误(规格错误、编译失败、仿真错误、超时等)
## 当前限制
- 时序模式当前不包含 UVM、约束随机激励、功能覆盖组等高级能力
- 随机激励当前基于仿真器 `$random(seed)`,用于轻量回归与冒烟验证
后续可扩展到事务级激励、功能覆盖点与协议检查器。
```

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{
"timestamp": "2026-04-19T14:24:11",
"project_dir": "/Users/ningyedong/Coding/Verilog-Learn/simple_cpu",
"output_dir": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch",
"total_candidates": 1,
"passed": 1,
"failed": 0,
"results": [
{
"module": "simple_cpu",
"module_file": "/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v",
"output_dir": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu",
"status": "pass",
"tb_path": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/tb_simple_cpu_auto.v",
"sim_binary": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/auto_sim.out",
"sim_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/sim_output.log",
"vcd_path": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/simple_cpu_auto.vcd",
"error": null
}
]
}

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#! /opt/homebrew/Cellar/icarus-verilog/13.0/bin/vvp
:ivl_version "13.0 (stable)" "(v13_0)";
:ivl_delay_selection "TYPICAL";
:vpi_time_precision - 12;
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/system.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_sys.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_textio.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2005_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/va_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2009.vpi";
S_0x1012a3bb0 .scope package, "$unit" "$unit" 2 1;
.timescale 0 0;
S_0x1012a2190 .scope module, "tb_simple_cpu_auto" "tb_simple_cpu_auto" 3 2;
.timescale -9 -12;
v0x1012a84e0_0 .var "clk", 0 0;
v0x1012a8580_0 .var/i "i", 31 0;
v0x1012a8620_0 .var "rst", 0 0;
v0x1012a86c0_0 .var/i "seed", 31 0;
E_0x1012a7830 .event posedge, v0x1012a0d80_0;
S_0x1012a2310 .scope module, "dut" "simple_cpu" 3 9, 4 1 0, S_0x1012a2190;
.timescale 0 0;
.port_info 0 /INPUT 1 "clk";
.port_info 1 /INPUT 1 "rst";
v0x1012a0d80_0 .net "clk", 0 0, v0x1012a84e0_0; 1 drivers
v0x1012a0f70_0 .var "cnt", 3 0;
v0x1012a8440_0 .net "rst", 0 0, v0x1012a8620_0; 1 drivers
E_0x1012a2680 .event posedge, v0x1012a8440_0, v0x1012a0d80_0;
.scope S_0x1012a2310;
T_0 ;
%wait E_0x1012a2680;
%load/vec4 v0x1012a8440_0;
%flag_set/vec4 8;
%jmp/0xz T_0.0, 8;
%pushi/vec4 0, 0, 4;
%assign/vec4 v0x1012a0f70_0, 0;
%jmp T_0.1;
T_0.0 ;
%load/vec4 v0x1012a0f70_0;
%addi 1, 0, 4;
%assign/vec4 v0x1012a0f70_0, 0;
T_0.1 ;
%jmp T_0;
.thread T_0;
.scope S_0x1012a2190;
T_1 ;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1012a84e0_0, 0, 1;
T_1.0 ;
%delay 5000, 0;
%load/vec4 v0x1012a84e0_0;
%inv;
%store/vec4 v0x1012a84e0_0, 0, 1;
%jmp T_1.0;
T_1.1 ;
%end;
.thread T_1;
.scope S_0x1012a2190;
T_2 ;
%pushi/vec4 20260419, 0, 32;
%store/vec4 v0x1012a86c0_0, 0, 32;
%vpi_call/w 3 18 "$dumpfile", "simple_cpu_auto.vcd" {0 0 0};
%vpi_call/w 3 19 "$dumpvars", 32'sb00000000000000000000000000000000, S_0x1012a2190 {0 0 0};
%pushi/vec4 1, 0, 1;
%store/vec4 v0x1012a8620_0, 0, 1;
%pushi/vec4 2, 0, 32;
T_2.0 %dup/vec4;
%cmpi/s 0, 0, 32;
%jmp/1xz T_2.1, 5;
%jmp/1 T_2.1, 4;
%subi 1, 0, 32;
%wait E_0x1012a7830;
%jmp T_2.0;
T_2.1 ;
%pop/vec4 1;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1012a8620_0, 0, 1;
%pushi/vec4 0, 0, 32;
%store/vec4 v0x1012a8580_0, 0, 32;
T_2.2 ; Top of for-loop
%load/vec4 v0x1012a8580_0;
%cmpi/s 8, 0, 32;
%jmp/0xz T_2.3, 5;
%wait E_0x1012a7830;
T_2.4 ; for-loop step statement
%load/vec4 v0x1012a8580_0;
%addi 1, 0, 32;
%store/vec4 v0x1012a8580_0, 0, 32;
%jmp T_2.2;
T_2.3 ; for-loop exit label
%delay 1000, 0;
%vpi_call/w 3 27 "$finish" {0 0 0};
%end;
.thread T_2;
# The file index is used to find the file name in the following table.
:file_names 5;
"N/A";
"<interactive>";
"-";
"/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/tb_simple_cpu_auto.v";
"/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v";

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VCD info: dumpfile simple_cpu_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_batch/simple_cpu/tb_simple_cpu_auto.v:27: $finish called at 96000 (1ps)

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$date
Sun Apr 19 14:24:11 2026
$end
$version
Icarus Verilog
$end
$timescale
1ps
$end
$scope module tb_simple_cpu_auto $end
$var reg 1 ! clk $end
$var reg 1 " rst $end
$var integer 32 # i [31:0] $end
$var integer 32 $ seed [31:0] $end
$scope module dut $end
$var wire 1 ! clk $end
$var wire 1 " rst $end
$var reg 4 % cnt [3:0] $end
$upscope $end
$upscope $end
$enddefinitions $end
$comment Show the parameter values. $end
$dumpall
$end
#0
$dumpvars
b0 %
b1001101010010011001000011 $
bx #
1"
0!
$end
#5000
1!
#10000
0!
#15000
b1 %
b0 #
0"
1!
#20000
0!
#25000
b10 %
b1 #
1!
#30000
0!
#35000
b11 %
b10 #
1!
#40000
0!
#45000
b100 %
b11 #
1!
#50000
0!
#55000
b101 %
b100 #
1!
#60000
0!
#65000
b110 %
b101 #
1!
#70000
0!
#75000
b111 %
b110 #
1!
#80000
0!
#85000
b1000 %
b111 #
1!
#90000
0!
#95000
b1001 %
b1000 #
1!
#96000

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`timescale 1ns/1ps
module tb_simple_cpu_auto;
reg clk;
reg rst;
integer i;
integer seed;
simple_cpu dut (.clk(clk), .rst(rst));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("simple_cpu_auto.vcd");
$dumpvars(0, tb_simple_cpu_auto);
rst = 1'b1;
repeat (2) @(posedge clk);
rst = 1'b0;
for (i = 0; i < 8; i = i + 1) begin
@(posedge clk);
end
#1;
$finish;
end
endmodule

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#! /opt/homebrew/Cellar/icarus-verilog/13.0/bin/vvp
:ivl_version "13.0 (stable)" "(v13_0)";
:ivl_delay_selection "TYPICAL";
:vpi_time_precision - 12;
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/system.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_sys.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_textio.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2005_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/va_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2009.vpi";
S_0x1016b4c00 .scope package, "$unit" "$unit" 2 1;
.timescale 0 0;
S_0x1016b3190 .scope module, "tb_simple_cpu_auto" "tb_simple_cpu_auto" 3 2;
.timescale -9 -12;
v0x1016b97d0_0 .var "clk", 0 0;
v0x1016b9870_0 .var/i "i", 31 0;
v0x1016b9910_0 .var "rst", 0 0;
v0x1016b99b0_0 .var/i "seed", 31 0;
E_0x1016b8ca0 .event posedge, v0x1016b4d80_0;
S_0x1016b3310 .scope module, "dut" "simple_cpu" 3 9, 4 1 0, S_0x1016b3190;
.timescale 0 0;
.port_info 0 /INPUT 1 "clk";
.port_info 1 /INPUT 1 "rst";
v0x1016b4d80_0 .net "clk", 0 0, v0x1016b97d0_0; 1 drivers
v0x1016b0f20_0 .var "cnt", 3 0;
v0x1016b0fd0_0 .net "rst", 0 0, v0x1016b9910_0; 1 drivers
E_0x1016b3ac0 .event posedge, v0x1016b0fd0_0, v0x1016b4d80_0;
.scope S_0x1016b3310;
T_0 ;
%wait E_0x1016b3ac0;
%load/vec4 v0x1016b0fd0_0;
%flag_set/vec4 8;
%jmp/0xz T_0.0, 8;
%pushi/vec4 0, 0, 4;
%assign/vec4 v0x1016b0f20_0, 0;
%jmp T_0.1;
T_0.0 ;
%load/vec4 v0x1016b0f20_0;
%addi 1, 0, 4;
%assign/vec4 v0x1016b0f20_0, 0;
T_0.1 ;
%jmp T_0;
.thread T_0;
.scope S_0x1016b3190;
T_1 ;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1016b97d0_0, 0, 1;
T_1.0 ;
%delay 5000, 0;
%load/vec4 v0x1016b97d0_0;
%inv;
%store/vec4 v0x1016b97d0_0, 0, 1;
%jmp T_1.0;
T_1.1 ;
%end;
.thread T_1;
.scope S_0x1016b3190;
T_2 ;
%pushi/vec4 20260419, 0, 32;
%store/vec4 v0x1016b99b0_0, 0, 32;
%vpi_call/w 3 18 "$dumpfile", "simple_cpu_auto.vcd" {0 0 0};
%vpi_call/w 3 19 "$dumpvars", 32'sb00000000000000000000000000000000, S_0x1016b3190 {0 0 0};
%pushi/vec4 1, 0, 1;
%store/vec4 v0x1016b9910_0, 0, 1;
%pushi/vec4 2, 0, 32;
T_2.0 %dup/vec4;
%cmpi/s 0, 0, 32;
%jmp/1xz T_2.1, 5;
%jmp/1 T_2.1, 4;
%subi 1, 0, 32;
%wait E_0x1016b8ca0;
%jmp T_2.0;
T_2.1 ;
%pop/vec4 1;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1016b9910_0, 0, 1;
%pushi/vec4 0, 0, 32;
%store/vec4 v0x1016b9870_0, 0, 32;
T_2.2 ; Top of for-loop
%load/vec4 v0x1016b9870_0;
%cmpi/s 12, 0, 32;
%jmp/0xz T_2.3, 5;
%wait E_0x1016b8ca0;
T_2.4 ; for-loop step statement
%load/vec4 v0x1016b9870_0;
%addi 1, 0, 32;
%store/vec4 v0x1016b9870_0, 0, 32;
%jmp T_2.2;
T_2.3 ; for-loop exit label
%delay 1000, 0;
%vpi_call/w 3 27 "$finish" {0 0 0};
%end;
.thread T_2;
# The file index is used to find the file name in the following table.
:file_names 5;
"N/A";
"<interactive>";
"-";
"/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_out_cli/tb_simple_cpu_auto.v";
"/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v";

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VCD info: dumpfile simple_cpu_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_out_cli/tb_simple_cpu_auto.v:27: $finish called at 136000 (1ps)

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$date
Sun Apr 19 14:11:55 2026
$end
$version
Icarus Verilog
$end
$timescale
1ps
$end
$scope module tb_simple_cpu_auto $end
$var reg 1 ! clk $end
$var reg 1 " rst $end
$var integer 32 # i [31:0] $end
$var integer 32 $ seed [31:0] $end
$scope module dut $end
$var wire 1 ! clk $end
$var wire 1 " rst $end
$var reg 4 % cnt [3:0] $end
$upscope $end
$upscope $end
$enddefinitions $end
$comment Show the parameter values. $end
$dumpall
$end
#0
$dumpvars
b0 %
b1001101010010011001000011 $
bx #
1"
0!
$end
#5000
1!
#10000
0!
#15000
b1 %
b0 #
0"
1!
#20000
0!
#25000
b10 %
b1 #
1!
#30000
0!
#35000
b11 %
b10 #
1!
#40000
0!
#45000
b100 %
b11 #
1!
#50000
0!
#55000
b101 %
b100 #
1!
#60000
0!
#65000
b110 %
b101 #
1!
#70000
0!
#75000
b111 %
b110 #
1!
#80000
0!
#85000
b1000 %
b111 #
1!
#90000
0!
#95000
b1001 %
b1000 #
1!
#100000
0!
#105000
b1010 %
b1001 #
1!
#110000
0!
#115000
b1011 %
b1010 #
1!
#120000
0!
#125000
b1100 %
b1011 #
1!
#130000
0!
#135000
b1101 %
b1100 #
1!
#136000

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@@ -0,0 +1,29 @@
`timescale 1ns/1ps
module tb_simple_cpu_auto;
reg clk;
reg rst;
integer i;
integer seed;
simple_cpu dut (.clk(clk), .rst(rst));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("simple_cpu_auto.vcd");
$dumpvars(0, tb_simple_cpu_auto);
rst = 1'b1;
repeat (2) @(posedge clk);
rst = 1'b0;
for (i = 0; i < 12; i = i + 1) begin
@(posedge clk);
end
#1;
$finish;
end
endmodule

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@@ -0,0 +1,100 @@
#! /opt/homebrew/Cellar/icarus-verilog/13.0/bin/vvp
:ivl_version "13.0 (stable)" "(v13_0)";
:ivl_delay_selection "TYPICAL";
:vpi_time_precision - 12;
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/system.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_sys.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_textio.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2005_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/va_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2009.vpi";
S_0x1031a0ba0 .scope package, "$unit" "$unit" 2 1;
.timescale 0 0;
S_0x10319f1c0 .scope module, "tb_simple_cpu_auto" "tb_simple_cpu_auto" 3 2;
.timescale -9 -12;
v0x1031a5580_0 .var "clk", 0 0;
v0x1031a5620_0 .var/i "i", 31 0;
v0x1031a56c0_0 .var "rst", 0 0;
v0x1031a5760_0 .var/i "seed", 31 0;
E_0x1031a49f0 .event posedge, v0x1031a0d20_0;
S_0x10319f340 .scope module, "dut" "simple_cpu" 3 9, 4 1 0, S_0x10319f1c0;
.timescale 0 0;
.port_info 0 /INPUT 1 "clk";
.port_info 1 /INPUT 1 "rst";
v0x1031a0d20_0 .net "clk", 0 0, v0x1031a5580_0; 1 drivers
v0x10319cf30_0 .var "cnt", 3 0;
v0x10319cfe0_0 .net "rst", 0 0, v0x1031a56c0_0; 1 drivers
E_0x10319faf0 .event posedge, v0x10319cfe0_0, v0x1031a0d20_0;
.scope S_0x10319f340;
T_0 ;
%wait E_0x10319faf0;
%load/vec4 v0x10319cfe0_0;
%flag_set/vec4 8;
%jmp/0xz T_0.0, 8;
%pushi/vec4 0, 0, 4;
%assign/vec4 v0x10319cf30_0, 0;
%jmp T_0.1;
T_0.0 ;
%load/vec4 v0x10319cf30_0;
%addi 1, 0, 4;
%assign/vec4 v0x10319cf30_0, 0;
T_0.1 ;
%jmp T_0;
.thread T_0;
.scope S_0x10319f1c0;
T_1 ;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1031a5580_0, 0, 1;
T_1.0 ;
%delay 5000, 0;
%load/vec4 v0x1031a5580_0;
%inv;
%store/vec4 v0x1031a5580_0, 0, 1;
%jmp T_1.0;
T_1.1 ;
%end;
.thread T_1;
.scope S_0x10319f1c0;
T_2 ;
%pushi/vec4 20260419, 0, 32;
%store/vec4 v0x1031a5760_0, 0, 32;
%vpi_call/w 3 18 "$dumpfile", "simple_cpu_auto.vcd" {0 0 0};
%vpi_call/w 3 19 "$dumpvars", 32'sb00000000000000000000000000000000, S_0x10319f1c0 {0 0 0};
%pushi/vec4 1, 0, 1;
%store/vec4 v0x1031a56c0_0, 0, 1;
%pushi/vec4 2, 0, 32;
T_2.0 %dup/vec4;
%cmpi/s 0, 0, 32;
%jmp/1xz T_2.1, 5;
%jmp/1 T_2.1, 4;
%subi 1, 0, 32;
%wait E_0x1031a49f0;
%jmp T_2.0;
T_2.1 ;
%pop/vec4 1;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1031a56c0_0, 0, 1;
%pushi/vec4 0, 0, 32;
%store/vec4 v0x1031a5620_0, 0, 32;
T_2.2 ; Top of for-loop
%load/vec4 v0x1031a5620_0;
%cmpi/s 20, 0, 32;
%jmp/0xz T_2.3, 5;
%wait E_0x1031a49f0;
T_2.4 ; for-loop step statement
%load/vec4 v0x1031a5620_0;
%addi 1, 0, 32;
%store/vec4 v0x1031a5620_0, 0, 32;
%jmp T_2.2;
T_2.3 ; for-loop exit label
%delay 1000, 0;
%vpi_call/w 3 27 "$finish" {0 0 0};
%end;
.thread T_2;
# The file index is used to find the file name in the following table.
:file_names 5;
"N/A";
"<interactive>";
"-";
"/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_out_simple_cpu/tb_simple_cpu_auto.v";
"/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v";

View File

@@ -0,0 +1,2 @@
VCD info: dumpfile simple_cpu_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_out_simple_cpu/tb_simple_cpu_auto.v:27: $finish called at 216000 (1ps)

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@@ -0,0 +1,162 @@
$date
Sun Apr 19 14:11:03 2026
$end
$version
Icarus Verilog
$end
$timescale
1ps
$end
$scope module tb_simple_cpu_auto $end
$var reg 1 ! clk $end
$var reg 1 " rst $end
$var integer 32 # i [31:0] $end
$var integer 32 $ seed [31:0] $end
$scope module dut $end
$var wire 1 ! clk $end
$var wire 1 " rst $end
$var reg 4 % cnt [3:0] $end
$upscope $end
$upscope $end
$enddefinitions $end
$comment Show the parameter values. $end
$dumpall
$end
#0
$dumpvars
b0 %
b1001101010010011001000011 $
bx #
1"
0!
$end
#5000
1!
#10000
0!
#15000
b1 %
b0 #
0"
1!
#20000
0!
#25000
b10 %
b1 #
1!
#30000
0!
#35000
b11 %
b10 #
1!
#40000
0!
#45000
b100 %
b11 #
1!
#50000
0!
#55000
b101 %
b100 #
1!
#60000
0!
#65000
b110 %
b101 #
1!
#70000
0!
#75000
b111 %
b110 #
1!
#80000
0!
#85000
b1000 %
b111 #
1!
#90000
0!
#95000
b1001 %
b1000 #
1!
#100000
0!
#105000
b1010 %
b1001 #
1!
#110000
0!
#115000
b1011 %
b1010 #
1!
#120000
0!
#125000
b1100 %
b1011 #
1!
#130000
0!
#135000
b1101 %
b1100 #
1!
#140000
0!
#145000
b1110 %
b1101 #
1!
#150000
0!
#155000
b1111 %
b1110 #
1!
#160000
0!
#165000
b0 %
b1111 #
1!
#170000
0!
#175000
b1 %
b10000 #
1!
#180000
0!
#185000
b10 %
b10001 #
1!
#190000
0!
#195000
b11 %
b10010 #
1!
#200000
0!
#205000
b100 %
b10011 #
1!
#210000
0!
#215000
b101 %
b10100 #
1!
#216000

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@@ -0,0 +1,29 @@
`timescale 1ns/1ps
module tb_simple_cpu_auto;
reg clk;
reg rst;
integer i;
integer seed;
simple_cpu dut (.clk(clk), .rst(rst));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("simple_cpu_auto.vcd");
$dumpvars(0, tb_simple_cpu_auto);
rst = 1'b1;
repeat (2) @(posedge clk);
rst = 1'b0;
for (i = 0; i < 20; i = i + 1) begin
@(posedge clk);
end
#1;
$finish;
end
endmodule

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@@ -0,0 +1,100 @@
#! /opt/homebrew/Cellar/icarus-verilog/13.0/bin/vvp
:ivl_version "13.0 (stable)" "(v13_0)";
:ivl_delay_selection "TYPICAL";
:vpi_time_precision - 12;
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/system.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_sys.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_textio.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2005_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/va_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2009.vpi";
S_0x103563610 .scope package, "$unit" "$unit" 2 1;
.timescale 0 0;
S_0x103561a80 .scope module, "tb_simple_cpu_auto" "tb_simple_cpu_auto" 3 2;
.timescale -9 -12;
v0x103568520_0 .var "clk", 0 0;
v0x1035685c0_0 .var/i "i", 31 0;
v0x103568660_0 .var "rst", 0 0;
v0x103568700_0 .var/i "seed", 31 0;
E_0x103567970 .event posedge, v0x10355ecc0_0;
S_0x103561c00 .scope module, "dut" "simple_cpu" 3 9, 4 1 0, S_0x103561a80;
.timescale 0 0;
.port_info 0 /INPUT 1 "clk";
.port_info 1 /INPUT 1 "rst";
v0x10355ecc0_0 .net "clk", 0 0, v0x103568520_0; 1 drivers
v0x10355ee70_0 .var "cnt", 3 0;
v0x10355ef10_0 .net "rst", 0 0, v0x103568660_0; 1 drivers
E_0x103562110 .event posedge, v0x10355ef10_0, v0x10355ecc0_0;
.scope S_0x103561c00;
T_0 ;
%wait E_0x103562110;
%load/vec4 v0x10355ef10_0;
%flag_set/vec4 8;
%jmp/0xz T_0.0, 8;
%pushi/vec4 0, 0, 4;
%assign/vec4 v0x10355ee70_0, 0;
%jmp T_0.1;
T_0.0 ;
%load/vec4 v0x10355ee70_0;
%addi 1, 0, 4;
%assign/vec4 v0x10355ee70_0, 0;
T_0.1 ;
%jmp T_0;
.thread T_0;
.scope S_0x103561a80;
T_1 ;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x103568520_0, 0, 1;
T_1.0 ;
%delay 5000, 0;
%load/vec4 v0x103568520_0;
%inv;
%store/vec4 v0x103568520_0, 0, 1;
%jmp T_1.0;
T_1.1 ;
%end;
.thread T_1;
.scope S_0x103561a80;
T_2 ;
%pushi/vec4 20260419, 0, 32;
%store/vec4 v0x103568700_0, 0, 32;
%vpi_call/w 3 18 "$dumpfile", "simple_cpu_auto.vcd" {0 0 0};
%vpi_call/w 3 19 "$dumpvars", 32'sb00000000000000000000000000000000, S_0x103561a80 {0 0 0};
%pushi/vec4 1, 0, 1;
%store/vec4 v0x103568660_0, 0, 1;
%pushi/vec4 2, 0, 32;
T_2.0 %dup/vec4;
%cmpi/s 0, 0, 32;
%jmp/1xz T_2.1, 5;
%jmp/1 T_2.1, 4;
%subi 1, 0, 32;
%wait E_0x103567970;
%jmp T_2.0;
T_2.1 ;
%pop/vec4 1;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x103568660_0, 0, 1;
%pushi/vec4 0, 0, 32;
%store/vec4 v0x1035685c0_0, 0, 32;
T_2.2 ; Top of for-loop
%load/vec4 v0x1035685c0_0;
%cmpi/s 6, 0, 32;
%jmp/0xz T_2.3, 5;
%wait E_0x103567970;
T_2.4 ; for-loop step statement
%load/vec4 v0x1035685c0_0;
%addi 1, 0, 32;
%store/vec4 v0x1035685c0_0, 0, 32;
%jmp T_2.2;
T_2.3 ; for-loop exit label
%delay 1000, 0;
%vpi_call/w 3 27 "$finish" {0 0 0};
%end;
.thread T_2;
# The file index is used to find the file name in the following table.
:file_names 5;
"N/A";
"<interactive>";
"-";
"/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_single_check/tb_simple_cpu_auto.v";
"/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v";

View File

@@ -0,0 +1,2 @@
VCD info: dumpfile simple_cpu_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_single_check/tb_simple_cpu_auto.v:27: $finish called at 76000 (1ps)

View File

@@ -0,0 +1,78 @@
$date
Sun Apr 19 14:20:32 2026
$end
$version
Icarus Verilog
$end
$timescale
1ps
$end
$scope module tb_simple_cpu_auto $end
$var reg 1 ! clk $end
$var reg 1 " rst $end
$var integer 32 # i [31:0] $end
$var integer 32 $ seed [31:0] $end
$scope module dut $end
$var wire 1 ! clk $end
$var wire 1 " rst $end
$var reg 4 % cnt [3:0] $end
$upscope $end
$upscope $end
$enddefinitions $end
$comment Show the parameter values. $end
$dumpall
$end
#0
$dumpvars
b0 %
b1001101010010011001000011 $
bx #
1"
0!
$end
#5000
1!
#10000
0!
#15000
b1 %
b0 #
0"
1!
#20000
0!
#25000
b10 %
b1 #
1!
#30000
0!
#35000
b11 %
b10 #
1!
#40000
0!
#45000
b100 %
b11 #
1!
#50000
0!
#55000
b101 %
b100 #
1!
#60000
0!
#65000
b110 %
b101 #
1!
#70000
0!
#75000
b111 %
b110 #
1!
#76000

View File

@@ -0,0 +1,29 @@
`timescale 1ns/1ps
module tb_simple_cpu_auto;
reg clk;
reg rst;
integer i;
integer seed;
simple_cpu dut (.clk(clk), .rst(rst));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("simple_cpu_auto.vcd");
$dumpvars(0, tb_simple_cpu_auto);
rst = 1'b1;
repeat (2) @(posedge clk);
rst = 1'b0;
for (i = 0; i < 6; i = i + 1) begin
@(posedge clk);
end
#1;
$finish;
end
endmodule

View File

@@ -0,0 +1,91 @@
#! /opt/homebrew/Cellar/icarus-verilog/13.0/bin/vvp
:ivl_version "13.0 (stable)" "(v13_0)";
:ivl_delay_selection "TYPICAL";
:vpi_time_precision - 12;
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/system.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_sys.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/vhdl_textio.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2005_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/va_math.vpi";
:vpi_module "/opt/homebrew/Cellar/icarus-verilog/13.0/lib/ivl/v2009.vpi";
S_0x10301bbe0 .scope package, "$unit" "$unit" 2 1;
.timescale 0 0;
S_0x10301a190 .scope module, "tb_simple_cpu_auto" "tb_simple_cpu_auto" 3 2;
.timescale -9 -12;
v0x103020870_0 .var "clk", 0 0;
v0x103020910_0 .var/i "i", 31 0;
v0x1030209b0_0 .var "rst", 0 0;
v0x103020a50_0 .var/i "seed", 31 0;
E_0x10301fd30 .event posedge, v0x103018d80_0;
S_0x10301a310 .scope module, "dut" "simple_cpu" 3 9, 4 1 0, S_0x10301a190;
.timescale 0 0;
.port_info 0 /INPUT 1 "clk";
.port_info 1 /INPUT 1 "rst";
v0x103018d80_0 .net "clk", 0 0, v0x103020870_0; 1 drivers
v0x103018f30_0 .var "cnt", 3 0;
v0x103018fe0_0 .net "rst", 0 0, v0x1030209b0_0; 1 drivers
E_0x10301a680 .event posedge, v0x103018fe0_0, v0x103018d80_0;
.scope S_0x10301a310;
T_0 ;
%wait E_0x10301a680;
%load/vec4 v0x103018fe0_0;
%flag_set/vec4 8;
%jmp/0xz T_0.0, 8;
%pushi/vec4 0, 0, 4;
%assign/vec4 v0x103018f30_0, 0;
%jmp T_0.1;
T_0.0 ;
%load/vec4 v0x103018f30_0;
%addi 1, 0, 4;
%assign/vec4 v0x103018f30_0, 0;
T_0.1 ;
%jmp T_0;
.thread T_0;
.scope S_0x10301a190;
T_1 ;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x103020870_0, 0, 1;
T_1.0 ;
%delay 5000, 0;
%load/vec4 v0x103020870_0;
%inv;
%store/vec4 v0x103020870_0, 0, 1;
%jmp T_1.0;
T_1.1 ;
%end;
.thread T_1;
.scope S_0x10301a190;
T_2 ;
%pushi/vec4 20260419, 0, 32;
%store/vec4 v0x103020a50_0, 0, 32;
%vpi_call/w 3 18 "$dumpfile", "simple_cpu_auto.vcd" {0 0 0};
%vpi_call/w 3 19 "$dumpvars", 32'sb00000000000000000000000000000000, S_0x10301a190 {0 0 0};
%pushi/vec4 1, 0, 1;
%store/vec4 v0x1030209b0_0, 0, 1;
%wait E_0x10301fd30;
%pushi/vec4 0, 0, 1;
%store/vec4 v0x1030209b0_0, 0, 1;
%pushi/vec4 0, 0, 32;
%store/vec4 v0x103020910_0, 0, 32;
T_2.0 ; Top of for-loop
%load/vec4 v0x103020910_0;
%cmpi/s 4, 0, 32;
%jmp/0xz T_2.1, 5;
%wait E_0x10301fd30;
T_2.2 ; for-loop step statement
%load/vec4 v0x103020910_0;
%addi 1, 0, 32;
%store/vec4 v0x103020910_0, 0, 32;
%jmp T_2.0;
T_2.1 ; for-loop exit label
%delay 1000, 0;
%vpi_call/w 3 27 "$finish" {0 0 0};
%end;
.thread T_2;
# The file index is used to find the file name in the following table.
:file_names 5;
"N/A";
"<interactive>";
"-";
"/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_single_launcher/tb_simple_cpu_auto.v";
"/Users/ningyedong/Coding/Verilog-Learn/simple_cpu/simple_cpu.v";

View File

@@ -0,0 +1,2 @@
VCD info: dumpfile simple_cpu_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/auto_single_launcher/tb_simple_cpu_auto.v:27: $finish called at 46000 (1ps)

View File

@@ -0,0 +1,62 @@
$date
Sun Apr 19 14:24:36 2026
$end
$version
Icarus Verilog
$end
$timescale
1ps
$end
$scope module tb_simple_cpu_auto $end
$var reg 1 ! clk $end
$var reg 1 " rst $end
$var integer 32 # i [31:0] $end
$var integer 32 $ seed [31:0] $end
$scope module dut $end
$var wire 1 ! clk $end
$var wire 1 " rst $end
$var reg 4 % cnt [3:0] $end
$upscope $end
$upscope $end
$enddefinitions $end
$comment Show the parameter values. $end
$dumpall
$end
#0
$dumpvars
b0 %
b1001101010010011001000011 $
bx #
1"
0!
$end
#5000
b1 %
b0 #
0"
1!
#10000
0!
#15000
b10 %
b1 #
1!
#20000
0!
#25000
b11 %
b10 #
1!
#30000
0!
#35000
b100 %
b11 #
1!
#40000
0!
#45000
b101 %
b100 #
1!
#46000

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`timescale 1ns/1ps
module tb_simple_cpu_auto;
reg clk;
reg rst;
integer i;
integer seed;
simple_cpu dut (.clk(clk), .rst(rst));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("simple_cpu_auto.vcd");
$dumpvars(0, tb_simple_cpu_auto);
rst = 1'b1;
repeat (1) @(posedge clk);
rst = 1'b0;
for (i = 0; i < 4; i = i + 1) begin
@(posedge clk);
end
#1;
$finish;
end
endmodule

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{
"kind": "truth_table",
"inputs": [
"a",
"b"
],
"outputs": [
"f"
],
"cases": [
{
"name": "00",
"in": {
"a": 0,
"b": 0
},
"out": {
"f": 0
}
},
{
"name": "01",
"in": {
"a": 0,
"b": 1
},
"out": {
"f": 0
}
},
{
"name": "10",
"in": {
"a": 1,
"b": 0
},
"out": {
"f": 0
}
},
{
"name": "11",
"in": {
"a": 1,
"b": 1
},
"out": {
"f": 1
}
}
]
}

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# GitHub CPU Validation Example (SLWChipVerify)
这个 example 演示如何对热门开源 CPU 项目执行 SLWChipVerify 一键验证流程,并生成可复现结果。
## 已验证项目(按 GitHub Stars
- `riscv-mcu/e203_hbirdv2`(约 1811 stars
- 目录:`rtl`
- 顶层:`e203_cpu_top`
- `ultraembedded/riscv`(约 1703 stars
- 目录:`core/riscv`
- 顶层:`riscv_core`
- `ZipCPU/zipcpu`(约 1535 stars
- 目录:`rtl`
- 顶层:`zipcore`
> Stars 基于 2026-04-19 采样,后续会变化。
## 前置要求
- Python 3.9+
- `git`
- `iverilog`
- `vvp`
- 可访问 GitHub 网络
## 一键复现
在安装目录执行:
```bash
python3 slwchipverify/examples/github_cpu_validation/run_github_cpu_validation.py
```
运行后会:
- 自动克隆/更新目标仓库到临时目录
- 对每个项目调用 `slwchipverify/one_click_verify.py`
-`slwchipverify/examples/github_cpu_validation/results/` 下生成:
- 每个项目的 TB / 波形 / 仿真日志 / run.log
- 汇总报告 `github_cpu_validation_summary.json`
## 打包 example
```bash
./slwchipverify/examples/github_cpu_validation/package_example.sh
```
会在 `slwchipverify/examples/github_cpu_validation/dist/` 下生成 zip 包,包含:
- `projects.json`
- `run_github_cpu_validation.py`
- 本说明文档
- `results/` 中的汇总报告与验证产物
## 说明
- 该 example 重点验证工具在真实开源 CPU 仓库上的可用性(冒烟级编译+仿真+波形)。
- 对于特别复杂的 SoC 工程,可能仍需定制宏定义、文件筛选或更细粒度目录选择。

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#!/usr/bin/env bash
set -euo pipefail
# 获取脚本目录并定义输出路径。
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
DIST_DIR="$SCRIPT_DIR/dist"
STAMP="$(date +%Y%m%d_%H%M%S)"
ARCHIVE="$DIST_DIR/slwchipverify_github_cpu_validation_example_${STAMP}.zip"
# 创建打包输出目录。
mkdir -p "$DIST_DIR"
# 仅按白名单打包关键文件与结果目录,避免把无关文件一起打进去。
(
cd "$SCRIPT_DIR"
zip -r "$ARCHIVE" \
README.md \
projects.json \
run_github_cpu_validation.py \
results \
>/dev/null
)
echo "SLWChipVerify 示例已打包: $ARCHIVE"

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[
{
"name": "ultraembedded_riscv_core",
"repo": "https://github.com/ultraembedded/riscv.git",
"stars": 1703,
"rtl_subdir": "core/riscv",
"top": "riscv_core",
"cycles": 12,
"period": 10,
"reset_cycles": 2
},
{
"name": "zipcpu",
"repo": "https://github.com/ZipCPU/zipcpu.git",
"stars": 1535,
"rtl_subdir": "rtl",
"top": "zipcore",
"cycles": 12,
"period": 10,
"reset_cycles": 2
},
{
"name": "e203_cpu_top_fullrtl",
"repo": "https://github.com/riscv-mcu/e203_hbirdv2.git",
"stars": 1811,
"rtl_subdir": "rtl",
"top": "e203_cpu_top",
"cycles": 8,
"period": 10,
"reset_cycles": 2
}
]

File diff suppressed because it is too large Load Diff

File diff suppressed because it is too large Load Diff

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COMMAND:
/opt/anaconda3/bin/python /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/one_click_verify.py --dir /private/tmp/chipverify_github_cpu_example/clones/e203_cpu_top_fullrtl/rtl --top e203_cpu_top --out /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl --cycles 8 --period 10 --reset-cycles 2
STDOUT:
=== ChipVerify One-Click Auto Verification ===
Found 136 Verilog files
Selected top module: e203_cpu_top
Top module file: /private/tmp/chipverify_github_cpu_example/clones/e203_cpu_top_fullrtl/rtl/e203/core/e203_cpu_top.v
Generated testbench: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/tb_e203_cpu_top_auto.v
Simulation completed successfully
Simulation binary: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/auto_sim.out
Waveform: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/e203_cpu_top_auto.vcd
Simulation log: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/sim_output.log
Open waveform with: gtkwave /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/e203_cpu_top_auto.vcd
STDERR:

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VCD info: dumpfile e203_cpu_top_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/tb_e203_cpu_top_auto.v:232: $finish called at 96000 (1ps)

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`timescale 1ns/1ps
module tb_e203_cpu_top_auto;
reg pc_rtvec;
reg dcsr_r;
reg dpc_r;
reg dscratch_r;
reg dbg_mode;
reg dbg_halt_r;
reg dbg_step_r;
reg dbg_ebreakm_r;
reg dbg_stopcycle;
reg dbg_irq_a;
reg core_mhartid;
reg ext_irq_a;
reg sft_irq_a;
reg tmr_irq_a;
reg tcm_sd;
reg tcm_ds;
reg ext2itcm_icb_cmd_valid;
reg ext2itcm_icb_cmd_addr;
reg ext2itcm_icb_cmd_read;
reg ext2itcm_icb_cmd_wdata;
reg ext2itcm_icb_cmd_wmask;
reg ext2itcm_icb_rsp_ready;
reg ext2dtcm_icb_cmd_valid;
reg ext2dtcm_icb_cmd_addr;
reg ext2dtcm_icb_cmd_read;
reg ext2dtcm_icb_cmd_wdata;
reg ext2dtcm_icb_cmd_wmask;
reg ext2dtcm_icb_rsp_ready;
reg ppi_icb_cmd_ready;
reg ppi_icb_rsp_valid;
reg ppi_icb_rsp_err;
reg ppi_icb_rsp_rdata;
reg clint_icb_cmd_ready;
reg clint_icb_rsp_valid;
reg clint_icb_rsp_err;
reg clint_icb_rsp_rdata;
reg plic_icb_cmd_ready;
reg plic_icb_rsp_valid;
reg plic_icb_rsp_err;
reg plic_icb_rsp_rdata;
reg fio_icb_cmd_ready;
reg fio_icb_rsp_valid;
reg fio_icb_rsp_err;
reg fio_icb_rsp_rdata;
reg mem_icb_cmd_ready;
reg mem_icb_rsp_valid;
reg mem_icb_rsp_err;
reg mem_icb_rsp_rdata;
reg test_mode;
reg clk;
reg rst_n;
wire inspect_pc;
wire inspect_dbg_irq;
wire inspect_mem_cmd_valid;
wire inspect_mem_cmd_ready;
wire inspect_mem_rsp_valid;
wire inspect_mem_rsp_ready;
wire inspect_core_clk;
wire core_csr_clk;
wire core_wfi;
wire tm_stop;
wire dbg_irq_r;
wire cmt_dpc;
wire cmt_dpc_ena;
wire cmt_dcause;
wire cmt_dcause_ena;
wire wr_dcsr_ena;
wire wr_dpc_ena;
wire wr_dscratch_ena;
wire wr_csr_nxt;
wire ext2itcm_icb_cmd_ready;
wire ext2itcm_icb_rsp_valid;
wire ext2itcm_icb_rsp_err;
wire ext2itcm_icb_rsp_rdata;
wire ext2dtcm_icb_cmd_ready;
wire ext2dtcm_icb_rsp_valid;
wire ext2dtcm_icb_rsp_err;
wire ext2dtcm_icb_rsp_rdata;
wire ppi_icb_cmd_valid;
wire ppi_icb_cmd_addr;
wire ppi_icb_cmd_read;
wire ppi_icb_cmd_wdata;
wire ppi_icb_cmd_wmask;
wire ppi_icb_rsp_ready;
wire clint_icb_cmd_valid;
wire clint_icb_cmd_addr;
wire clint_icb_cmd_read;
wire clint_icb_cmd_wdata;
wire clint_icb_cmd_wmask;
wire clint_icb_rsp_ready;
wire plic_icb_cmd_valid;
wire plic_icb_cmd_addr;
wire plic_icb_cmd_read;
wire plic_icb_cmd_wdata;
wire plic_icb_cmd_wmask;
wire plic_icb_rsp_ready;
wire fio_icb_cmd_valid;
wire fio_icb_cmd_addr;
wire fio_icb_cmd_read;
wire fio_icb_cmd_wdata;
wire fio_icb_cmd_wmask;
wire fio_icb_rsp_ready;
wire mem_icb_cmd_valid;
wire mem_icb_cmd_addr;
wire mem_icb_cmd_read;
wire mem_icb_cmd_wdata;
wire mem_icb_cmd_wmask;
wire mem_icb_rsp_ready;
integer i;
integer seed;
e203_cpu_top dut (.inspect_pc(inspect_pc), .inspect_dbg_irq(inspect_dbg_irq), .inspect_mem_cmd_valid(inspect_mem_cmd_valid), .inspect_mem_cmd_ready(inspect_mem_cmd_ready), .inspect_mem_rsp_valid(inspect_mem_rsp_valid), .inspect_mem_rsp_ready(inspect_mem_rsp_ready), .inspect_core_clk(inspect_core_clk), .core_csr_clk(core_csr_clk), .core_wfi(core_wfi), .tm_stop(tm_stop), .pc_rtvec(pc_rtvec), .dbg_irq_r(dbg_irq_r), .cmt_dpc(cmt_dpc), .cmt_dpc_ena(cmt_dpc_ena), .cmt_dcause(cmt_dcause), .cmt_dcause_ena(cmt_dcause_ena), .wr_dcsr_ena(wr_dcsr_ena), .wr_dpc_ena(wr_dpc_ena), .wr_dscratch_ena(wr_dscratch_ena), .wr_csr_nxt(wr_csr_nxt), .dcsr_r(dcsr_r), .dpc_r(dpc_r), .dscratch_r(dscratch_r), .dbg_mode(dbg_mode), .dbg_halt_r(dbg_halt_r), .dbg_step_r(dbg_step_r), .dbg_ebreakm_r(dbg_ebreakm_r), .dbg_stopcycle(dbg_stopcycle), .dbg_irq_a(dbg_irq_a), .core_mhartid(core_mhartid), .ext_irq_a(ext_irq_a), .sft_irq_a(sft_irq_a), .tmr_irq_a(tmr_irq_a), .tcm_sd(tcm_sd), .tcm_ds(tcm_ds), .ext2itcm_icb_cmd_valid(ext2itcm_icb_cmd_valid), .ext2itcm_icb_cmd_ready(ext2itcm_icb_cmd_ready), .ext2itcm_icb_cmd_addr(ext2itcm_icb_cmd_addr), .ext2itcm_icb_cmd_read(ext2itcm_icb_cmd_read), .ext2itcm_icb_cmd_wdata(ext2itcm_icb_cmd_wdata), .ext2itcm_icb_cmd_wmask(ext2itcm_icb_cmd_wmask), .ext2itcm_icb_rsp_valid(ext2itcm_icb_rsp_valid), .ext2itcm_icb_rsp_ready(ext2itcm_icb_rsp_ready), .ext2itcm_icb_rsp_err(ext2itcm_icb_rsp_err), .ext2itcm_icb_rsp_rdata(ext2itcm_icb_rsp_rdata), .ext2dtcm_icb_cmd_valid(ext2dtcm_icb_cmd_valid), .ext2dtcm_icb_cmd_ready(ext2dtcm_icb_cmd_ready), .ext2dtcm_icb_cmd_addr(ext2dtcm_icb_cmd_addr), .ext2dtcm_icb_cmd_read(ext2dtcm_icb_cmd_read), .ext2dtcm_icb_cmd_wdata(ext2dtcm_icb_cmd_wdata), .ext2dtcm_icb_cmd_wmask(ext2dtcm_icb_cmd_wmask), .ext2dtcm_icb_rsp_valid(ext2dtcm_icb_rsp_valid), .ext2dtcm_icb_rsp_ready(ext2dtcm_icb_rsp_ready), .ext2dtcm_icb_rsp_err(ext2dtcm_icb_rsp_err), .ext2dtcm_icb_rsp_rdata(ext2dtcm_icb_rsp_rdata), .ppi_icb_cmd_valid(ppi_icb_cmd_valid), .ppi_icb_cmd_ready(ppi_icb_cmd_ready), .ppi_icb_cmd_addr(ppi_icb_cmd_addr), .ppi_icb_cmd_read(ppi_icb_cmd_read), .ppi_icb_cmd_wdata(ppi_icb_cmd_wdata), .ppi_icb_cmd_wmask(ppi_icb_cmd_wmask), .ppi_icb_rsp_valid(ppi_icb_rsp_valid), .ppi_icb_rsp_ready(ppi_icb_rsp_ready), .ppi_icb_rsp_err(ppi_icb_rsp_err), .ppi_icb_rsp_rdata(ppi_icb_rsp_rdata), .clint_icb_cmd_valid(clint_icb_cmd_valid), .clint_icb_cmd_ready(clint_icb_cmd_ready), .clint_icb_cmd_addr(clint_icb_cmd_addr), .clint_icb_cmd_read(clint_icb_cmd_read), .clint_icb_cmd_wdata(clint_icb_cmd_wdata), .clint_icb_cmd_wmask(clint_icb_cmd_wmask), .clint_icb_rsp_valid(clint_icb_rsp_valid), .clint_icb_rsp_ready(clint_icb_rsp_ready), .clint_icb_rsp_err(clint_icb_rsp_err), .clint_icb_rsp_rdata(clint_icb_rsp_rdata), .plic_icb_cmd_valid(plic_icb_cmd_valid), .plic_icb_cmd_ready(plic_icb_cmd_ready), .plic_icb_cmd_addr(plic_icb_cmd_addr), .plic_icb_cmd_read(plic_icb_cmd_read), .plic_icb_cmd_wdata(plic_icb_cmd_wdata), .plic_icb_cmd_wmask(plic_icb_cmd_wmask), .plic_icb_rsp_valid(plic_icb_rsp_valid), .plic_icb_rsp_ready(plic_icb_rsp_ready), .plic_icb_rsp_err(plic_icb_rsp_err), .plic_icb_rsp_rdata(plic_icb_rsp_rdata), .fio_icb_cmd_valid(fio_icb_cmd_valid), .fio_icb_cmd_ready(fio_icb_cmd_ready), .fio_icb_cmd_addr(fio_icb_cmd_addr), .fio_icb_cmd_read(fio_icb_cmd_read), .fio_icb_cmd_wdata(fio_icb_cmd_wdata), .fio_icb_cmd_wmask(fio_icb_cmd_wmask), .fio_icb_rsp_valid(fio_icb_rsp_valid), .fio_icb_rsp_ready(fio_icb_rsp_ready), .fio_icb_rsp_err(fio_icb_rsp_err), .fio_icb_rsp_rdata(fio_icb_rsp_rdata), .mem_icb_cmd_valid(mem_icb_cmd_valid), .mem_icb_cmd_ready(mem_icb_cmd_ready), .mem_icb_cmd_addr(mem_icb_cmd_addr), .mem_icb_cmd_read(mem_icb_cmd_read), .mem_icb_cmd_wdata(mem_icb_cmd_wdata), .mem_icb_cmd_wmask(mem_icb_cmd_wmask), .mem_icb_rsp_valid(mem_icb_rsp_valid), .mem_icb_rsp_ready(mem_icb_rsp_ready), .mem_icb_rsp_err(mem_icb_rsp_err), .mem_icb_rsp_rdata(mem_icb_rsp_rdata), .test_mode(test_mode), .clk(clk), .rst_n(rst_n));
initial begin
clk = 1'b0;
forever #5 clk = ~clk;
end
initial begin
seed = 20260419;
$dumpfile("e203_cpu_top_auto.vcd");
$dumpvars(0, tb_e203_cpu_top_auto);
pc_rtvec = 1'd0;
dcsr_r = 1'd0;
dpc_r = 1'd0;
dscratch_r = 1'd0;
dbg_mode = 1'd0;
dbg_halt_r = 1'd0;
dbg_step_r = 1'd0;
dbg_ebreakm_r = 1'd0;
dbg_stopcycle = 1'd0;
dbg_irq_a = 1'd0;
core_mhartid = 1'd0;
ext_irq_a = 1'd0;
sft_irq_a = 1'd0;
tmr_irq_a = 1'd0;
tcm_sd = 1'd0;
tcm_ds = 1'd0;
ext2itcm_icb_cmd_valid = 1'd0;
ext2itcm_icb_cmd_addr = 1'd0;
ext2itcm_icb_cmd_read = 1'd0;
ext2itcm_icb_cmd_wdata = 1'd0;
ext2itcm_icb_cmd_wmask = 1'd0;
ext2itcm_icb_rsp_ready = 1'd0;
ext2dtcm_icb_cmd_valid = 1'd0;
ext2dtcm_icb_cmd_addr = 1'd0;
ext2dtcm_icb_cmd_read = 1'd0;
ext2dtcm_icb_cmd_wdata = 1'd0;
ext2dtcm_icb_cmd_wmask = 1'd0;
ext2dtcm_icb_rsp_ready = 1'd0;
ppi_icb_cmd_ready = 1'd0;
ppi_icb_rsp_valid = 1'd0;
ppi_icb_rsp_err = 1'd0;
ppi_icb_rsp_rdata = 1'd0;
clint_icb_cmd_ready = 1'd0;
clint_icb_rsp_valid = 1'd0;
clint_icb_rsp_err = 1'd0;
clint_icb_rsp_rdata = 1'd0;
plic_icb_cmd_ready = 1'd0;
plic_icb_rsp_valid = 1'd0;
plic_icb_rsp_err = 1'd0;
plic_icb_rsp_rdata = 1'd0;
fio_icb_cmd_ready = 1'd0;
fio_icb_rsp_valid = 1'd0;
fio_icb_rsp_err = 1'd0;
fio_icb_rsp_rdata = 1'd0;
mem_icb_cmd_ready = 1'd0;
mem_icb_rsp_valid = 1'd0;
mem_icb_rsp_err = 1'd0;
mem_icb_rsp_rdata = 1'd0;
test_mode = 1'd0;
rst_n = 1'b0;
repeat (2) @(posedge clk);
rst_n = 1'b1;
for (i = 0; i < 8; i = i + 1) begin
@(negedge clk);
pc_rtvec = $random(seed) & 1'd1;
dcsr_r = $random(seed) & 1'd1;
dpc_r = $random(seed) & 1'd1;
dscratch_r = $random(seed) & 1'd1;
dbg_mode = $random(seed) & 1'd1;
dbg_halt_r = $random(seed) & 1'd1;
dbg_step_r = $random(seed) & 1'd1;
dbg_ebreakm_r = $random(seed) & 1'd1;
dbg_stopcycle = $random(seed) & 1'd1;
dbg_irq_a = $random(seed) & 1'd1;
core_mhartid = $random(seed) & 1'd1;
ext_irq_a = $random(seed) & 1'd1;
sft_irq_a = $random(seed) & 1'd1;
tmr_irq_a = $random(seed) & 1'd1;
tcm_sd = $random(seed) & 1'd1;
tcm_ds = $random(seed) & 1'd1;
ext2itcm_icb_cmd_valid = $random(seed) & 1'd1;
ext2itcm_icb_cmd_addr = $random(seed) & 1'd1;
ext2itcm_icb_cmd_read = $random(seed) & 1'd1;
ext2itcm_icb_cmd_wdata = $random(seed) & 1'd1;
ext2itcm_icb_cmd_wmask = $random(seed) & 1'd1;
ext2itcm_icb_rsp_ready = $random(seed) & 1'd1;
ext2dtcm_icb_cmd_valid = $random(seed) & 1'd1;
ext2dtcm_icb_cmd_addr = $random(seed) & 1'd1;
ext2dtcm_icb_cmd_read = $random(seed) & 1'd1;
ext2dtcm_icb_cmd_wdata = $random(seed) & 1'd1;
ext2dtcm_icb_cmd_wmask = $random(seed) & 1'd1;
ext2dtcm_icb_rsp_ready = $random(seed) & 1'd1;
ppi_icb_cmd_ready = $random(seed) & 1'd1;
ppi_icb_rsp_valid = $random(seed) & 1'd1;
ppi_icb_rsp_err = $random(seed) & 1'd1;
ppi_icb_rsp_rdata = $random(seed) & 1'd1;
clint_icb_cmd_ready = $random(seed) & 1'd1;
clint_icb_rsp_valid = $random(seed) & 1'd1;
clint_icb_rsp_err = $random(seed) & 1'd1;
clint_icb_rsp_rdata = $random(seed) & 1'd1;
plic_icb_cmd_ready = $random(seed) & 1'd1;
plic_icb_rsp_valid = $random(seed) & 1'd1;
plic_icb_rsp_err = $random(seed) & 1'd1;
plic_icb_rsp_rdata = $random(seed) & 1'd1;
fio_icb_cmd_ready = $random(seed) & 1'd1;
fio_icb_rsp_valid = $random(seed) & 1'd1;
fio_icb_rsp_err = $random(seed) & 1'd1;
fio_icb_rsp_rdata = $random(seed) & 1'd1;
mem_icb_cmd_ready = $random(seed) & 1'd1;
mem_icb_rsp_valid = $random(seed) & 1'd1;
mem_icb_rsp_err = $random(seed) & 1'd1;
mem_icb_rsp_rdata = $random(seed) & 1'd1;
test_mode = $random(seed) & 1'd1;
@(posedge clk);
end
#1;
$finish;
end
endmodule

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{
"timestamp_utc": "2026-04-19T06:38:06.434830+00:00",
"repo_root": "/Users/ningyedong/Coding/Verilog-Learn",
"workspace": "/private/tmp/chipverify_github_cpu_example",
"projects_file": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/projects.json",
"tool": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/one_click_verify.py",
"results": [
{
"name": "ultraembedded_riscv_core",
"repo": "https://github.com/ultraembedded/riscv.git",
"stars": 1703,
"status": "pass",
"clone_status": "updated",
"rtl_dir": "/private/tmp/chipverify_github_cpu_example/clones/ultraembedded_riscv_core/core/riscv",
"top": "riscv_core",
"return_code": 0,
"artifacts": {
"tb": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/tb_riscv_core_auto.v",
"vcd": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/riscv_core_auto.vcd",
"sim_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/sim_output.log",
"sim_binary": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/auto_sim.out",
"run_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/run.log"
}
},
{
"name": "zipcpu",
"repo": "https://github.com/ZipCPU/zipcpu.git",
"stars": 1535,
"status": "pass",
"clone_status": "cloned",
"rtl_dir": "/private/tmp/chipverify_github_cpu_example/clones/zipcpu/rtl",
"top": "zipcore",
"return_code": 0,
"artifacts": {
"tb": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/tb_zipcore_auto.v",
"vcd": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/zipcore_auto.vcd",
"sim_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/sim_output.log",
"sim_binary": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/auto_sim.out",
"run_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/run.log"
}
},
{
"name": "e203_cpu_top_fullrtl",
"repo": "https://github.com/riscv-mcu/e203_hbirdv2.git",
"stars": 1811,
"status": "pass",
"clone_status": "cloned",
"rtl_dir": "/private/tmp/chipverify_github_cpu_example/clones/e203_cpu_top_fullrtl/rtl",
"top": "e203_cpu_top",
"return_code": 0,
"artifacts": {
"tb": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/tb_e203_cpu_top_auto.v",
"vcd": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/e203_cpu_top_auto.vcd",
"sim_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/sim_output.log",
"sim_binary": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/auto_sim.out",
"run_log": "/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/e203_cpu_top_fullrtl/run.log"
}
}
],
"pass_count": 3,
"fail_count": 0,
"total": 3
}

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COMMAND:
/opt/anaconda3/bin/python /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/one_click_verify.py --dir /private/tmp/chipverify_github_cpu_example/clones/ultraembedded_riscv_core/core/riscv --top riscv_core --out /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core --cycles 12 --period 10 --reset-cycles 2
STDOUT:
=== ChipVerify One-Click Auto Verification ===
Found 18 Verilog files
Selected top module: riscv_core
Top module file: /private/tmp/chipverify_github_cpu_example/clones/ultraembedded_riscv_core/core/riscv/riscv_core.v
Generated testbench: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/tb_riscv_core_auto.v
Simulation completed successfully
Simulation binary: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/auto_sim.out
Waveform: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/riscv_core_auto.vcd
Simulation log: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/sim_output.log
Open waveform with: gtkwave /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/riscv_core_auto.vcd
STDERR:

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VCD info: dumpfile riscv_core_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/ultraembedded_riscv_core/tb_riscv_core_auto.v:71: $finish called at 12000 (1ps)

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`timescale 1ns/1ps
module tb_riscv_core_auto;
reg clk_i;
reg rst_i;
reg [31:0] mem_d_data_rd_i;
reg mem_d_accept_i;
reg mem_d_ack_i;
reg mem_d_error_i;
reg [10:0] mem_d_resp_tag_i;
reg mem_i_accept_i;
reg mem_i_valid_i;
reg mem_i_error_i;
reg [31:0] mem_i_inst_i;
reg intr_i;
reg [31:0] reset_vector_i;
reg [31:0] cpu_id_i;
wire [31:0] mem_d_addr_o;
wire [31:0] mem_d_data_wr_o;
wire mem_d_rd_o;
wire [3:0] mem_d_wr_o;
wire mem_d_cacheable_o;
wire [10:0] mem_d_req_tag_o;
wire mem_d_invalidate_o;
wire mem_d_writeback_o;
wire mem_d_flush_o;
wire mem_i_rd_o;
wire mem_i_flush_o;
wire mem_i_invalidate_o;
wire [31:0] mem_i_pc_o;
integer i;
integer seed;
integer vec;
riscv_core dut (.clk_i(clk_i), .rst_i(rst_i), .mem_d_data_rd_i(mem_d_data_rd_i), .mem_d_accept_i(mem_d_accept_i), .mem_d_ack_i(mem_d_ack_i), .mem_d_error_i(mem_d_error_i), .mem_d_resp_tag_i(mem_d_resp_tag_i), .mem_i_accept_i(mem_i_accept_i), .mem_i_valid_i(mem_i_valid_i), .mem_i_error_i(mem_i_error_i), .mem_i_inst_i(mem_i_inst_i), .intr_i(intr_i), .reset_vector_i(reset_vector_i), .cpu_id_i(cpu_id_i), .mem_d_addr_o(mem_d_addr_o), .mem_d_data_wr_o(mem_d_data_wr_o), .mem_d_rd_o(mem_d_rd_o), .mem_d_wr_o(mem_d_wr_o), .mem_d_cacheable_o(mem_d_cacheable_o), .mem_d_req_tag_o(mem_d_req_tag_o), .mem_d_invalidate_o(mem_d_invalidate_o), .mem_d_writeback_o(mem_d_writeback_o), .mem_d_flush_o(mem_d_flush_o), .mem_i_rd_o(mem_i_rd_o), .mem_i_flush_o(mem_i_flush_o), .mem_i_invalidate_o(mem_i_invalidate_o), .mem_i_pc_o(mem_i_pc_o));
initial begin
seed = 20260419;
$dumpfile("riscv_core_auto.vcd");
$dumpvars(0, tb_riscv_core_auto);
clk_i = 1'd0;
mem_d_data_rd_i = 32'd0;
mem_d_accept_i = 1'd0;
mem_d_ack_i = 1'd0;
mem_d_error_i = 1'd0;
mem_d_resp_tag_i = 11'd0;
mem_i_accept_i = 1'd0;
mem_i_valid_i = 1'd0;
mem_i_error_i = 1'd0;
mem_i_inst_i = 32'd0;
intr_i = 1'd0;
reset_vector_i = 32'd0;
cpu_id_i = 32'd0;
rst_i = 1'b1;
for (i = 0; i < 12; i = i + 1) begin
clk_i = $random(seed) & 1'd1;
mem_d_data_rd_i = $random(seed) & 32'd4294967295;
mem_d_accept_i = $random(seed) & 1'd1;
mem_d_ack_i = $random(seed) & 1'd1;
mem_d_error_i = $random(seed) & 1'd1;
mem_d_resp_tag_i = $random(seed) & 11'd2047;
mem_i_accept_i = $random(seed) & 1'd1;
mem_i_valid_i = $random(seed) & 1'd1;
mem_i_error_i = $random(seed) & 1'd1;
mem_i_inst_i = $random(seed) & 32'd4294967295;
intr_i = $random(seed) & 1'd1;
reset_vector_i = $random(seed) & 32'd4294967295;
cpu_id_i = $random(seed) & 32'd4294967295;
#1;
end
$finish;
end
endmodule

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COMMAND:
/opt/anaconda3/bin/python /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/one_click_verify.py --dir /private/tmp/chipverify_github_cpu_example/clones/zipcpu/rtl --top zipcore --out /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu --cycles 12 --period 10 --reset-cycles 2
STDOUT:
=== ChipVerify One-Click Auto Verification ===
Found 51 Verilog files
Selected top module: zipcore
Top module file: /private/tmp/chipverify_github_cpu_example/clones/zipcpu/rtl/core/zipcore.v
Generated testbench: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/tb_zipcore_auto.v
Simulation completed successfully
Simulation binary: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/auto_sim.out
Waveform: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/zipcore_auto.vcd
Simulation log: /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/sim_output.log
Open waveform with: gtkwave /Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/zipcore_auto.vcd
STDERR:

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VCD info: dumpfile zipcore_auto.vcd opened for output.
/Users/ningyedong/Coding/Verilog-Learn/slwchipverify/examples/github_cpu_validation/results/zipcpu/tb_zipcore_auto.v:106: $finish called at 136000 (1ps)

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`timescale 1ns/1ps
module tb_zipcore_auto;
reg i_clk;
reg i_reset;
reg i_interrupt;
reg i_halt;
reg i_clear_cache;
reg [4:0] i_dbg_wreg;
reg i_dbg_we;
reg [31:0] i_dbg_data;
reg [4:0] i_dbg_rreg;
reg i_pf_valid;
reg i_pf_illegal;
reg [31:0] i_pf_instruction;
reg i_pf_instruction_pc;
reg i_mem_busy;
reg i_mem_rdbusy;
reg i_mem_pipe_stalled;
reg i_mem_valid;
reg i_bus_err;
reg [4:0] i_mem_wreg;
reg [31:0] i_mem_result;
wire o_clken;
wire o_dbg_stall;
wire [31:0] o_dbg_reg;
wire [2:0] o_dbg_cc;
wire o_break;
wire o_pf_new_pc;
wire o_clear_icache;
wire o_pf_ready;
wire o_pf_request_address;
wire o_clear_dcache;
wire o_mem_ce;
wire o_bus_lock;
wire [2:0] o_mem_op;
wire [31:0] o_mem_addr;
wire [31:0] o_mem_data;
wire o_mem_lock_pc;
wire [4:0] o_mem_reg;
wire o_op_stall;
wire o_pf_stall;
wire o_i_count;
wire [31:0] o_debug;
wire o_prof_stb;
wire o_prof_addr;
wire [31:0] o_prof_ticks;
integer i;
integer seed;
zipcore dut (.i_clk(i_clk), .i_reset(i_reset), .i_interrupt(i_interrupt), .o_clken(o_clken), .i_halt(i_halt), .i_clear_cache(i_clear_cache), .i_dbg_wreg(i_dbg_wreg), .i_dbg_we(i_dbg_we), .i_dbg_data(i_dbg_data), .i_dbg_rreg(i_dbg_rreg), .o_dbg_stall(o_dbg_stall), .o_dbg_reg(o_dbg_reg), .o_dbg_cc(o_dbg_cc), .o_break(o_break), .o_pf_new_pc(o_pf_new_pc), .o_clear_icache(o_clear_icache), .o_pf_ready(o_pf_ready), .o_pf_request_address(o_pf_request_address), .i_pf_valid(i_pf_valid), .i_pf_illegal(i_pf_illegal), .i_pf_instruction(i_pf_instruction), .i_pf_instruction_pc(i_pf_instruction_pc), .o_clear_dcache(o_clear_dcache), .o_mem_ce(o_mem_ce), .o_bus_lock(o_bus_lock), .o_mem_op(o_mem_op), .o_mem_addr(o_mem_addr), .o_mem_data(o_mem_data), .o_mem_lock_pc(o_mem_lock_pc), .o_mem_reg(o_mem_reg), .i_mem_busy(i_mem_busy), .i_mem_rdbusy(i_mem_rdbusy), .i_mem_pipe_stalled(i_mem_pipe_stalled), .i_mem_valid(i_mem_valid), .i_bus_err(i_bus_err), .i_mem_wreg(i_mem_wreg), .i_mem_result(i_mem_result), .o_op_stall(o_op_stall), .o_pf_stall(o_pf_stall), .o_i_count(o_i_count), .o_debug(o_debug), .o_prof_stb(o_prof_stb), .o_prof_addr(o_prof_addr), .o_prof_ticks(o_prof_ticks));
initial begin
i_clk = 1'b0;
forever #5 i_clk = ~i_clk;
end
initial begin
seed = 20260419;
$dumpfile("zipcore_auto.vcd");
$dumpvars(0, tb_zipcore_auto);
i_interrupt = 1'd0;
i_halt = 1'd0;
i_clear_cache = 1'd0;
i_dbg_wreg = 5'd0;
i_dbg_we = 1'd0;
i_dbg_data = 32'd0;
i_dbg_rreg = 5'd0;
i_pf_valid = 1'd0;
i_pf_illegal = 1'd0;
i_pf_instruction = 32'd0;
i_pf_instruction_pc = 1'd0;
i_mem_busy = 1'd0;
i_mem_rdbusy = 1'd0;
i_mem_pipe_stalled = 1'd0;
i_mem_valid = 1'd0;
i_bus_err = 1'd0;
i_mem_wreg = 5'd0;
i_mem_result = 32'd0;
i_reset = 1'b1;
repeat (2) @(posedge i_clk);
i_reset = 1'b0;
for (i = 0; i < 12; i = i + 1) begin
@(negedge i_clk);
i_interrupt = $random(seed) & 1'd1;
i_halt = $random(seed) & 1'd1;
i_clear_cache = $random(seed) & 1'd1;
i_dbg_wreg = $random(seed) & 5'd31;
i_dbg_we = $random(seed) & 1'd1;
i_dbg_data = $random(seed) & 32'd4294967295;
i_dbg_rreg = $random(seed) & 5'd31;
i_pf_valid = $random(seed) & 1'd1;
i_pf_illegal = $random(seed) & 1'd1;
i_pf_instruction = $random(seed) & 32'd4294967295;
i_pf_instruction_pc = $random(seed) & 1'd1;
i_mem_busy = $random(seed) & 1'd1;
i_mem_rdbusy = $random(seed) & 1'd1;
i_mem_pipe_stalled = $random(seed) & 1'd1;
i_mem_valid = $random(seed) & 1'd1;
i_bus_err = $random(seed) & 1'd1;
i_mem_wreg = $random(seed) & 5'd31;
i_mem_result = $random(seed) & 32'd4294967295;
@(posedge i_clk);
end
#1;
$finish;
end
endmodule

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#!/usr/bin/env python3
"""验证 SLWChipVerify 在热门开源 GitHub CPU 项目上的一键流程可用性。"""
from __future__ import annotations
import argparse
import json
import shutil
import subprocess
import sys
from dataclasses import dataclass
from datetime import datetime, timezone
from pathlib import Path
from typing import Any
@dataclass
class ProjectCase:
"""描述一个待验证项目的仓库信息与仿真参数。"""
name: str
repo: str
stars: int
rtl_subdir: str
top: str
cycles: int
period: int
reset_cycles: int
def _run(cmd: list[str], cwd: Path | None = None) -> subprocess.CompletedProcess[str]:
"""执行外部命令并收集标准输出/标准错误。"""
return subprocess.run(
cmd,
cwd=str(cwd) if cwd is not None else None,
text=True,
capture_output=True,
check=False,
)
def _load_cases(path: Path) -> list[ProjectCase]:
"""从 JSON 文件加载项目清单。"""
raw: list[dict[str, Any]] = json.loads(path.read_text(encoding="utf-8"))
cases: list[ProjectCase] = []
for item in raw:
cases.append(
ProjectCase(
name=str(item["name"]),
repo=str(item["repo"]),
stars=int(item["stars"]),
rtl_subdir=str(item["rtl_subdir"]),
top=str(item["top"]),
cycles=int(item["cycles"]),
period=int(item["period"]),
reset_cycles=int(item["reset_cycles"]),
)
)
return cases
def _clone_or_update(case: ProjectCase, clone_dir: Path) -> tuple[bool, str]:
"""克隆仓库,或对已有仓库做浅拉取并硬重置到远端最新状态。"""
if clone_dir.exists() and (clone_dir / ".git").exists():
fetch = _run(["git", "-C", str(clone_dir), "fetch", "--depth", "1", "origin"])
if fetch.returncode != 0:
return False, fetch.stderr.strip() or fetch.stdout.strip()
reset = _run(["git", "-C", str(clone_dir), "reset", "--hard", "origin/HEAD"])
if reset.returncode != 0:
return False, reset.stderr.strip() or reset.stdout.strip()
return True, "updated"
if clone_dir.exists():
shutil.rmtree(clone_dir)
clone_dir.parent.mkdir(parents=True, exist_ok=True)
clone = _run(["git", "clone", "--depth", "1", case.repo, str(clone_dir)])
if clone.returncode != 0:
return False, clone.stderr.strip() or clone.stdout.strip()
return True, "cloned"
def main() -> int:
"""按项目列表逐个执行一键验证,并输出汇总 JSON 报告。"""
script_dir = Path(__file__).resolve().parent
default_repo_root = script_dir.parents[2]
parser = argparse.ArgumentParser(description="运行 SLWChipVerify GitHub CPU 验证示例")
parser.add_argument(
"--repo-root",
default=str(default_repo_root),
help="Path to Verilog-Learn repository root",
)
parser.add_argument(
"--projects",
default=str(script_dir / "projects.json"),
help="Path to project case JSON",
)
parser.add_argument(
"--workspace",
default="/tmp/slwchipverify_github_cpu_example",
help="Temporary clone workspace",
)
parser.add_argument(
"--results-dir",
default=str(script_dir / "results"),
help="Directory to store per-case outputs and summary",
)
parser.add_argument(
"--python",
default=sys.executable,
help="Python executable used to run one_click_verify.py",
)
args = parser.parse_args()
repo_root = Path(args.repo_root).expanduser().resolve()
one_click = repo_root / "slwchipverify" / "one_click_verify.py"
if not one_click.exists():
print(
f"[SLWChipVerify][github-example] ERROR: one_click script not found: {one_click}",
file=sys.stderr,
)
return 2
project_file = Path(args.projects).expanduser().resolve()
cases = _load_cases(project_file)
workspace = Path(args.workspace).expanduser().resolve()
clones_dir = workspace / "clones"
results_dir = Path(args.results_dir).expanduser().resolve()
results_dir.mkdir(parents=True, exist_ok=True)
summary: dict[str, Any] = {
"timestamp_utc": datetime.now(timezone.utc).isoformat(),
"repo_root": str(repo_root),
"workspace": str(workspace),
"projects_file": str(project_file),
"tool": str(one_click),
"results": [],
}
pass_count = 0
fail_count = 0
for case in cases:
print(f"\\n=== Case: {case.name} ===")
clone_dir = clones_dir / case.name
ok, clone_msg = _clone_or_update(case, clone_dir)
if not ok:
fail_count += 1
result = {
"name": case.name,
"repo": case.repo,
"stars": case.stars,
"status": "fail",
"stage": "clone",
"error": clone_msg,
}
summary["results"].append(result)
print(f"[SLWChipVerify][github-example] FAIL clone: {clone_msg}")
continue
target_dir = (clone_dir / case.rtl_subdir).resolve()
out_dir = results_dir / case.name
if out_dir.exists():
shutil.rmtree(out_dir)
out_dir.mkdir(parents=True, exist_ok=True)
cmd = [
args.python,
str(one_click),
"--dir",
str(target_dir),
"--top",
case.top,
"--out",
str(out_dir),
"--cycles",
str(case.cycles),
"--period",
str(case.period),
"--reset-cycles",
str(case.reset_cycles),
]
run = _run(cmd)
run_log = out_dir / "run.log"
run_log.write_text(
"COMMAND:\n"
+ " ".join(cmd)
+ "\n\nSTDOUT:\n"
+ run.stdout
+ "\n\nSTDERR:\n"
+ run.stderr,
encoding="utf-8",
)
artifacts = {
"tb": str(next(iter(sorted(out_dir.glob("tb_*_auto.v"))), "")),
"vcd": str(next(iter(sorted(out_dir.glob("*_auto.vcd"))), "")),
"sim_log": str(out_dir / "sim_output.log") if (out_dir / "sim_output.log").exists() else "",
"sim_binary": str(out_dir / "auto_sim.out") if (out_dir / "auto_sim.out").exists() else "",
"run_log": str(run_log),
}
status = "pass" if run.returncode == 0 else "fail"
if status == "pass":
pass_count += 1
print("[SLWChipVerify][github-example] PASS")
else:
fail_count += 1
print(f"[SLWChipVerify][github-example] FAIL (exit={run.returncode})")
result = {
"name": case.name,
"repo": case.repo,
"stars": case.stars,
"status": status,
"clone_status": clone_msg,
"rtl_dir": str(target_dir),
"top": case.top,
"return_code": run.returncode,
"artifacts": artifacts,
}
if status == "fail":
result["error_tail"] = (run.stderr or run.stdout)[-2000:]
summary["results"].append(result)
summary["pass_count"] = pass_count
summary["fail_count"] = fail_count
summary["total"] = len(cases)
summary_path = results_dir / "github_cpu_validation_summary.json"
summary_path.write_text(json.dumps(summary, ensure_ascii=False, indent=2), encoding="utf-8")
print("\\n=== Summary ===")
print(f"Passed: {pass_count}")
print(f"Failed: {fail_count}")
print(f"Summary: {summary_path}")
return 0 if fail_count == 0 else 1
if __name__ == "__main__":
raise SystemExit(main())

16
examples/seq_auto_demo.v Normal file
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// SLWChipVerify 时序验证示例
// 在时钟上升沿把输入 din 锁存到输出 q复位时清零 q
module seq_auto_demo(
input clk,
input rst,
input [1:0] din,
output reg [1:0] q
);
// 该寄存器逻辑用于演示自动时序激励与断言检查
always @(posedge clk or posedge rst) begin
if (rst)
q <= 2'd0;
else
q <= din;
end
endmodule

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@@ -0,0 +1,61 @@
{
"kind": "sequential",
"clock": {
"name": "clk",
"period_ns": 10,
"initial": 0
},
"reset": {
"name": "rst",
"active": 1,
"cycles": 1
},
"inputs": [
{
"name": "din",
"width": 2
}
],
"outputs": [
{
"name": "q",
"width": 2
}
],
"max_cycles": 5,
"auto_stimulus": {
"enabled": true,
"start_cycle": 0,
"mode": "binary_count"
},
"assertions": [
{
"name": "rst_cycle0",
"cycle": 0,
"expect": {
"q": 0
}
},
{
"name": "q_cycle1",
"cycle": 1,
"expect": {
"q": 1
}
},
{
"name": "q_cycle2",
"cycle": 2,
"expect": {
"q": 2
}
},
{
"name": "q_cycle3",
"cycle": 3,
"expect": {
"q": 3
}
}
]
}

View File

@@ -0,0 +1,51 @@
{
"kind": "sequential",
"clock": {
"name": "clk",
"period_ns": 10,
"initial": 0
},
"reset": {
"name": "rst",
"active": 1,
"cycles": 1
},
"inputs": [
{
"name": "din",
"width": 2
}
],
"outputs": [
{
"name": "q",
"width": 2
}
],
"max_cycles": 8,
"auto_stimulus": {
"enabled": true,
"start_cycle": 0,
"mode": "random",
"seed": 20260419
},
"assertions": [
{
"name": "reset_cycle0",
"cycle": 0,
"expect": {
"q": 0
}
},
{
"name": "q_range_guard",
"cycle": 1,
"expect": {
"q": {
"op": "le",
"value": 3
}
}
}
]
}

View File

@@ -0,0 +1,44 @@
{
"kind": "sequential",
"clock": {
"name": "clk",
"period_ns": 10,
"initial": 0
},
"reset": {
"name": "rst",
"active": 1,
"cycles": 2
},
"inputs": [],
"outputs": [],
"observes": [
{
"name": "cnt",
"expr": "dut.cnt",
"width": 4
}
],
"max_cycles": 7,
"auto_stimulus": {
"enabled": false
},
"assertions": [
{
"name": "count_cycle2",
"cycle": 2,
"expect": {
"cnt": 1
}
},
{
"name": "eventually_cnt_3",
"cycle": 2,
"mode": "eventually",
"within": 2,
"expect": {
"cnt": 3
}
}
]
}

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@@ -0,0 +1,63 @@
{
"kind": "sequential",
"clock": {
"name": "clk",
"period_ns": 10,
"initial": 0
},
"reset": {
"name": "rst",
"active": 1,
"cycles": 2
},
"inputs": [],
"outputs": [],
"observes": [
{
"name": "cnt",
"expr": "dut.cnt",
"width": 4
}
],
"max_cycles": 6,
"auto_stimulus": {
"enabled": false
},
"assertions": [
{
"name": "reset_cycle0",
"cycle": 0,
"expect": {
"cnt": 0
}
},
{
"name": "reset_cycle1",
"cycle": 1,
"expect": {
"cnt": 0
}
},
{
"name": "count_cycle2",
"cycle": 2,
"expect": {
"cnt": 1
}
},
{
"name": "count_cycle3",
"cycle": 3,
"expect": {
"cnt": 2
}
},
{
"name": "count_cycle4",
"cycle": 4,
"expect": {
"cnt": 3
}
}
]
}

View File

@@ -0,0 +1,71 @@
{
"kind": "sequential",
"clock": {
"name": "clk",
"period_ns": 10,
"initial": 0
},
"reset": {
"name": "rst",
"active": 1,
"cycles": 2
},
"inputs": [],
"outputs": [],
"observes": [
{
"name": "cnt",
"expr": "dut.cnt",
"width": 4
}
],
"max_cycles": 7,
"auto_stimulus": {
"enabled": false
},
"assertions": [
{
"name": "cycle_cnt_1",
"cycle": 2,
"expect": {
"cnt": 1
}
},
{
"name": "always_cnt_ge_1",
"cycle": 2,
"mode": "always",
"within": 2,
"expect": {
"cnt": {
"op": "ge",
"value": 1
}
}
},
{
"name": "never_cnt_eq_0",
"cycle": 2,
"mode": "never",
"within": 2,
"expect": {
"cnt": 0
}
},
{
"name": "until_cnt_lt_4_until_4",
"cycle": 2,
"mode": "until",
"within": 3,
"expect": {
"cnt": {
"op": "lt",
"value": 4
}
},
"until_expect": {
"cnt": 4
}
}
]
}

881
one_click_verify.py Normal file
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@@ -0,0 +1,881 @@
#!/usr/bin/env python3
"""SLWChipVerify 一键自动验证脚本。
功能概览:
1) 交互式输入工程目录与仿真参数
2) 自动扫描 Verilog 文件并解析模块关系
3) 自动或手动选择顶层模块
4) 自动生成冒烟测试 testbench
5) 调用 iverilog/vvp 进行编译与仿真
6) 自动输出 VCD 波形
"""
from __future__ import annotations
import argparse
import json
import re
import shutil
import subprocess
import sys
from dataclasses import dataclass
from datetime import datetime
from pathlib import Path
KEYWORDS = {
"module",
"endmodule",
"if",
"else",
"case",
"endcase",
"for",
"while",
"always",
"initial",
"assign",
"wire",
"reg",
"logic",
"input",
"output",
"inout",
"function",
"task",
"begin",
"end",
}
LOG_PREFIX = "[SLWChipVerify][one-click]"
@dataclass
class PortInfo:
"""端口信息:名称、方向、位宽。"""
name: str
direction: str
width: int
@dataclass
class ModuleInfo:
"""模块信息:模块名、来源文件和端口列表。"""
name: str
file_path: Path
ports: list[PortInfo]
def _strip_comments(text: str) -> str:
"""去除 Verilog 的行注释与块注释,便于后续正则解析。"""
text = re.sub(r"/\*.*?\*/", "", text, flags=re.S)
text = re.sub(r"//.*", "", text)
return text
def _parse_int_value(expr: str) -> int | None:
"""把十进制或十六进制数字文本解析为整数。"""
value = expr.strip()
if re.fullmatch(r"\d+", value):
return int(value)
if value.lower().startswith("0x"):
try:
return int(value, 16)
except ValueError:
return None
return None
def _parse_range_width(range_text: str | None) -> int:
"""从位宽范围文本(如 [7:0])计算位宽。"""
if not range_text:
return 1
m = re.match(r"\[\s*([^:]+)\s*:\s*([^\]]+)\s*\]", range_text)
if not m:
return 1
msb = _parse_int_value(m.group(1))
lsb = _parse_int_value(m.group(2))
if msb is None or lsb is None:
return 1
return abs(msb - lsb) + 1
def _parse_header_ports(header_text: str) -> dict[str, PortInfo]:
"""解析模块头部端口声明,返回端口名到端口信息的映射。"""
parts = [part.strip() for part in header_text.replace("\n", " ").split(",")]
names: dict[str, PortInfo] = {}
current_direction = "input"
current_width = 1
for part in parts:
if not part:
continue
direction_match = re.search(r"\b(input|output|inout)\b", part)
width_match = re.search(r"\[[^\]]+\]", part)
if direction_match:
current_direction = direction_match.group(1).lower()
if width_match is None:
current_width = 1
if width_match:
current_width = _parse_range_width(width_match.group(0))
tokens = re.findall(r"[A-Za-z_][A-Za-z0-9_]*", part)
name: str | None = None
for token in reversed(tokens):
if token.lower() not in {
"input",
"output",
"inout",
"wire",
"reg",
"logic",
"signed",
"unsigned",
}:
name = token
break
if name:
names[name] = PortInfo(
name=name,
direction=current_direction,
width=current_width,
)
return names
def _extract_names_from_decl(decl_text: str) -> list[str]:
"""从 input/output 声明片段中提取端口名列表。"""
cleaned = re.sub(r"\[[^\]]+\]", " ", decl_text)
cleaned = re.sub(r"\b(?:reg|wire|logic|signed|unsigned)\b", " ", cleaned)
names: list[str] = []
for part in cleaned.split(","):
candidate = part.strip()
if not candidate:
continue
candidate = candidate.split("=")[0].strip()
if not candidate:
continue
m = re.match(r"([A-Za-z_][A-Za-z0-9_]*)", candidate)
if m:
names.append(m.group(1))
return names
def _parse_ports_from_body(body_text: str) -> dict[str, PortInfo]:
"""解析模块体中的端口声明,补全方向与位宽信息。"""
port_map: dict[str, PortInfo] = {}
decl_re = re.compile(r"^\s*(input|output|inout)\b([^;]*);", re.M)
for m in decl_re.finditer(body_text):
direction = m.group(1).lower()
rest = m.group(2)
width_match = re.search(r"\[[^\]]+\]", rest)
width = _parse_range_width(width_match.group(0) if width_match else None)
names = _extract_names_from_decl(rest)
for name in names:
port_map[name] = PortInfo(name=name, direction=direction, width=width)
return port_map
def parse_modules_from_file(file_path: Path) -> list[ModuleInfo]:
"""从单个 Verilog 文件中提取模块及其端口定义。"""
text = file_path.read_text(encoding="utf-8", errors="ignore")
text_no_comments = _strip_comments(text)
module_re = re.compile(
r"\bmodule\s+([A-Za-z_][A-Za-z0-9_]*)\s*"
r"(?:#\s*\(.*?\)\s*)?"
r"\((.*?)\)\s*;",
re.S,
)
modules: list[ModuleInfo] = []
pos = 0
while True:
m = module_re.search(text_no_comments, pos)
if not m:
break
module_name = m.group(1)
header_port_map = _parse_header_ports(m.group(2))
header_ports = list(header_port_map.keys())
body_start = m.end()
end_match = re.search(r"\bendmodule\b", text_no_comments[body_start:], re.S)
if not end_match:
break
body_end = body_start + end_match.start()
body_text = text_no_comments[body_start:body_end]
port_map = _parse_ports_from_body(body_text)
ordered_ports: list[PortInfo] = []
seen = set()
for name in header_ports:
if name in port_map:
ordered_ports.append(port_map[name])
elif name in header_port_map:
ordered_ports.append(header_port_map[name])
else:
ordered_ports.append(PortInfo(name=name, direction="input", width=1))
seen.add(name)
for name in sorted(port_map.keys()):
if name not in seen:
ordered_ports.append(port_map[name])
modules.append(ModuleInfo(name=module_name, file_path=file_path, ports=ordered_ports))
pos = body_end + len("endmodule")
return modules
def collect_modules(verilog_files: list[Path]) -> list[ModuleInfo]:
"""汇总多个 Verilog 文件中的全部模块定义。"""
modules: list[ModuleInfo] = []
for file_path in verilog_files:
modules.extend(parse_modules_from_file(file_path))
return modules
def find_instantiated_modules(verilog_files: list[Path], module_names: set[str]) -> set[str]:
"""扫描实例化关系,找出被其他模块实例化过的模块名。"""
instantiated: set[str] = set()
for file_path in verilog_files:
text = _strip_comments(file_path.read_text(encoding="utf-8", errors="ignore"))
for module_name in module_names:
pattern = re.compile(
rf"\b{re.escape(module_name)}\b\s*(?:#\s*\(.*?\)\s*)?[A-Za-z_][A-Za-z0-9_]*\s*\(",
re.S,
)
if pattern.search(text):
instantiated.add(module_name)
return instantiated
def _is_clock_name(name: str) -> bool:
"""判断端口名是否像时钟信号。"""
low = name.lower()
return low == "clk" or "clock" in low or low.endswith("_clk")
def _is_reset_name(name: str) -> bool:
"""判断端口名是否像复位信号。"""
low = name.lower()
return (
low == "rst"
or low == "reset"
or "reset" in low
or low.startswith("rst")
or low.endswith("_rst")
)
def _is_active_low_reset(name: str) -> bool:
"""根据命名习惯判断复位是否更可能为低有效。"""
low = name.lower()
return (
low.endswith("_n")
or low.endswith("n")
or "resetn" in low
or "rstn" in low
or low.startswith("nreset")
or low.startswith("nrst")
)
def _sv_width(width: int) -> str:
"""把位宽整数转换为 SystemVerilog 声明片段。"""
if width <= 1:
return ""
return f"[{width - 1}:0] "
def _mask(width: int) -> int:
"""生成指定位宽的按位掩码。"""
if width <= 0:
return 0
return (1 << width) - 1
def _format_half_period(period_ns: int) -> str:
"""将半周期延时格式化为紧凑字符串。"""
half = period_ns / 2.0
text = f"{half:.6f}".rstrip("0").rstrip(".")
return text or "0"
def _is_testbench_module_name(name: str) -> bool:
"""判断模块名是否呈现 testbench 命名特征。"""
low = name.lower()
return (
low == "tb"
or low.startswith("tb_")
or low.endswith("_tb")
or "test" in low
)
def _top_candidates(
modules: list[ModuleInfo],
instantiated: set[str],
) -> list[ModuleInfo]:
"""根据实例化关系和命名特征推断顶层候选模块。"""
name_map = {m.name: m for m in modules}
roots = sorted([m.name for m in modules if m.name not in instantiated])
if roots:
non_tb_roots = [name for name in roots if not _is_testbench_module_name(name)]
if non_tb_roots:
return [name_map[name] for name in non_tb_roots]
non_tb_modules = [m for m in modules if not _is_testbench_module_name(m.name)]
if non_tb_modules:
max_ports = max(len(m.ports) for m in non_tb_modules)
likely_tops = [m for m in non_tb_modules if len(m.ports) == max_ports]
return sorted(likely_tops, key=lambda m: m.name)
return [name_map[name] for name in roots]
non_tb_modules = [m for m in modules if not _is_testbench_module_name(m.name)]
if non_tb_modules:
max_ports = max(len(m.ports) for m in non_tb_modules)
likely_tops = [m for m in non_tb_modules if len(m.ports) == max_ports]
return sorted(likely_tops, key=lambda m: m.name)
max_ports = max(len(m.ports) for m in modules)
likely_tops = [m for m in modules if len(m.ports) == max_ports]
return sorted(likely_tops, key=lambda m: m.name)
def _pick_top_module(
modules: list[ModuleInfo],
specified_top: str | None,
instantiated: set[str],
) -> ModuleInfo:
"""确定最终顶层模块:优先使用命令行指定,否则自动推断或交互选择。"""
name_map = {m.name: m for m in modules}
if specified_top:
if specified_top not in name_map:
available = ", ".join(sorted(name_map))
raise ChipVerifyError(
f"Top module {specified_top!r} not found. Available modules: {available}"
)
return name_map[specified_top]
candidates = _top_candidates(modules, instantiated)
if len(candidates) == 1:
return candidates[0]
print("Detected multiple top candidates:")
for idx, module in enumerate(candidates, start=1):
print(f" {idx}. {module.name}")
selected = input("Choose top module index (default 1): ").strip()
if not selected:
return candidates[0]
try:
index = int(selected)
if index < 1 or index > len(candidates):
raise ValueError
except ValueError as exc:
raise ChipVerifyError("Invalid top module selection index") from exc
return candidates[index - 1]
def generate_testbench(
top_module: ModuleInfo,
output_dir: Path,
cycles: int,
period_ns: int,
reset_cycles: int,
) -> tuple[Path, Path]:
"""按顶层模块端口自动生成冒烟测试 testbench 与波形路径。"""
tb_name = f"tb_{top_module.name}_auto"
tb_path = output_dir / f"{tb_name}.v"
vcd_path = output_dir / f"{top_module.name}_auto.vcd"
inputs = [p for p in top_module.ports if p.direction == "input"]
outputs = [p for p in top_module.ports if p.direction in {"output", "inout"}]
clock_port = next((p for p in inputs if p.width == 1 and _is_clock_name(p.name)), None)
reset_port = next((p for p in inputs if p.width == 1 and _is_reset_name(p.name)), None)
skip_names = {
clock_port.name if clock_port else "",
reset_port.name if reset_port else "",
}
non_special_inputs = [p for p in inputs if p.name not in skip_names]
lines: list[str] = []
lines.append("`timescale 1ns/1ps")
lines.append(f"module {tb_name};")
lines.append("")
for p in inputs:
lines.append(f" reg {_sv_width(p.width)}{p.name};")
for p in outputs:
lines.append(f" wire {_sv_width(p.width)}{p.name};")
lines.append(" integer i;")
lines.append(" integer seed;")
if not clock_port and non_special_inputs:
lines.append(" integer vec;")
lines.append("")
conn = ", ".join([f".{p.name}({p.name})" for p in top_module.ports])
lines.append(f" {top_module.name} dut ({conn});")
if clock_port:
half_text = _format_half_period(period_ns)
lines.append("")
lines.append(" initial begin")
lines.append(f" {clock_port.name} = 1'b0;")
lines.append(f" forever #{half_text} {clock_port.name} = ~{clock_port.name};")
lines.append(" end")
lines.append("")
lines.append(" initial begin")
lines.append(" seed = 20260419;")
lines.append(f" $dumpfile(\"{vcd_path.name}\");")
lines.append(f" $dumpvars(0, {tb_name});")
for p in non_special_inputs:
lines.append(f" {p.name} = {p.width}'d0;")
if reset_port:
active = 0 if _is_active_low_reset(reset_port.name) else 1
inactive = 1 - active
lines.append(f" {reset_port.name} = 1'b{active};")
if clock_port:
if reset_port:
lines.append(f" repeat ({reset_cycles}) @(posedge {clock_port.name});")
lines.append(f" {reset_port.name} = 1'b{inactive};")
lines.append(f" for (i = 0; i < {cycles}; i = i + 1) begin")
if non_special_inputs:
lines.append(f" @(negedge {clock_port.name});")
for p in non_special_inputs:
mask = _mask(p.width)
lines.append(f" {p.name} = $random(seed) & {p.width}'d{mask};")
lines.append(f" @(posedge {clock_port.name});")
lines.append(" end")
lines.append(" #1;")
else:
total_width = sum(p.width for p in non_special_inputs)
if total_width == 0:
lines.append(f" #{max(1, cycles)};")
elif total_width <= 8:
max_cases = 1 << total_width
lines.append(f" for (vec = 0; vec < {max_cases}; vec = vec + 1) begin")
bit_offset = 0
for p in non_special_inputs:
mask = _mask(p.width)
lines.append(
f" {p.name} = (vec >> {bit_offset}) & {p.width}'d{mask};"
)
bit_offset += p.width
lines.append(" #1;")
lines.append(" end")
else:
lines.append(f" for (i = 0; i < {cycles}; i = i + 1) begin")
for p in non_special_inputs:
mask = _mask(p.width)
lines.append(f" {p.name} = $random(seed) & {p.width}'d{mask};")
lines.append(" #1;")
lines.append(" end")
lines.append(" $finish;")
lines.append(" end")
lines.append("endmodule")
tb_path.write_text("\n".join(lines) + "\n", encoding="utf-8")
return tb_path, vcd_path
def run_simulation(
verilog_files: list[Path],
tb_path: Path,
output_dir: Path,
tb_module_name: str,
) -> tuple[Path, str]:
"""调用 iverilog/vvp 完成编译与仿真,返回可执行文件和仿真输出。"""
if shutil.which("iverilog") is None:
raise ChipVerifyError("iverilog not found in PATH")
if shutil.which("vvp") is None:
raise ChipVerifyError("vvp not found in PATH")
sim_out = output_dir / "auto_sim.out"
include_dirs = sorted({str(p.parent.resolve()) for p in verilog_files})
include_args: list[str] = []
for inc in include_dirs:
include_args.extend(["-I", inc])
compile_cmd = [
"iverilog",
"-g2012",
"-gno-assertions",
*include_args,
"-s",
tb_module_name,
"-o",
str(sim_out),
*[str(p) for p in verilog_files],
str(tb_path),
]
compile_result = subprocess.run(
compile_cmd,
capture_output=True,
text=True,
cwd=output_dir,
check=False,
)
if compile_result.returncode != 0:
message = compile_result.stderr.strip() or compile_result.stdout.strip()
raise ChipVerifyError(f"Compile failed:\n{message}")
sim_cmd = ["vvp", str(sim_out)]
sim_result = subprocess.run(
sim_cmd,
capture_output=True,
text=True,
cwd=output_dir,
check=False,
)
if sim_result.returncode != 0:
message = sim_result.stderr.strip() or sim_result.stdout.strip()
raise ChipVerifyError(f"Simulation failed:\n{message}")
return sim_out, sim_result.stdout
def _sanitize_name(value: str) -> str:
"""把模块名清洗为可用作目录名的安全字符串。"""
txt = re.sub(r"[^A-Za-z0-9_.-]", "_", value)
txt = txt.strip("._")
return txt or "module"
def _unique_module_dir(base_dir: Path, module_name: str, used: set[str]) -> Path:
"""为批量模式生成不冲突的模块输出目录。"""
stem = _sanitize_name(module_name)
candidate = stem
counter = 2
while candidate in used:
candidate = f"{stem}_{counter}"
counter += 1
used.add(candidate)
return base_dir / candidate
def run_single_module(
top_module: ModuleInfo,
verilog_files: list[Path],
output_dir: Path,
cycles: int,
period: int,
reset_cycles: int,
) -> dict[str, str | int | None]:
"""执行单个顶层模块的一键验证流程,并返回结构化结果。"""
output_dir.mkdir(parents=True, exist_ok=True)
result: dict[str, str | int | None] = {
"module": top_module.name,
"module_file": str(top_module.file_path),
"output_dir": str(output_dir),
"status": "fail",
"tb_path": None,
"sim_binary": None,
"sim_log": None,
"vcd_path": None,
"error": None,
}
try:
tb_path, vcd_path = generate_testbench(
top_module=top_module,
output_dir=output_dir,
cycles=cycles,
period_ns=period,
reset_cycles=reset_cycles,
)
result["tb_path"] = str(tb_path)
result["vcd_path"] = str(vcd_path)
sim_out, sim_stdout = run_simulation(
verilog_files,
tb_path,
output_dir,
tb_module_name=tb_path.stem,
)
sim_log = output_dir / "sim_output.log"
sim_log.write_text(sim_stdout, encoding="utf-8")
result["sim_binary"] = str(sim_out)
result["sim_log"] = str(sim_log)
result["status"] = "pass"
return result
except ChipVerifyError as exc:
result["error"] = str(exc)
return result
def write_batch_summary(path: Path, report: dict[str, object]) -> None:
"""写出批量模式汇总报告。"""
path.parent.mkdir(parents=True, exist_ok=True)
path.write_text(json.dumps(report, ensure_ascii=False, indent=2), encoding="utf-8")
def _prompt_yes_no(prompt: str, default: bool) -> bool:
"""读取 Y/N 交互输入,并处理默认值。"""
default_text = "Y/n" if default else "y/N"
raw = input(f"{prompt} [{default_text}]: ").strip().lower()
if not raw:
return default
return raw in {"y", "yes", "1", "true"}
def _prompt_with_default(prompt: str, default: str) -> str:
"""读取字符串输入,若为空则回退默认值。"""
user = input(f"{prompt} [{default}]: ").strip()
return user or default
def _prompt_int(prompt: str, default: int, min_value: int = 0) -> int:
"""读取整数输入并校验最小值约束。"""
raw = _prompt_with_default(prompt, str(default))
try:
value = int(raw)
except ValueError as exc:
raise ChipVerifyError(f"Invalid integer input for {prompt}") from exc
if value < min_value:
raise ChipVerifyError(f"{prompt} must be >= {min_value}")
return value
def find_verilog_files(project_dir: Path) -> list[Path]:
"""递归扫描工程目录中的 .v 源文件。"""
files = sorted([p for p in project_dir.rglob("*.v") if p.is_file()])
return files
class ChipVerifyError(Exception):
"""一键验证流程的统一异常类型。"""
def main() -> int:
"""一键流程入口:参数解析、模块选择、仿真执行与结果输出。"""
parser = argparse.ArgumentParser(
description="One-click Verilog auto testbench + simulation + waveform generator"
)
parser.add_argument("--dir", help="Verilog project directory")
parser.add_argument("--top", help="Top module name (optional)")
parser.add_argument("--out", help="Output directory")
parser.add_argument("--cycles", type=int, help="Simulation cycles")
parser.add_argument("--period", type=int, help="Clock period (ns)")
parser.add_argument("--reset-cycles", type=int, help="Reset hold cycles")
parser.add_argument(
"--batch",
action="store_true",
help="Run all detected top candidates and produce a consolidated summary report",
)
parser.add_argument(
"--batch-report",
help="Optional path of consolidated batch summary JSON",
)
args = parser.parse_args()
print("=== SLWChipVerify One-Click Auto Verification ===")
cwd = Path.cwd()
project_dir_txt = args.dir or _prompt_with_default("Enter Verilog directory", str(cwd))
project_dir = Path(project_dir_txt).expanduser().resolve()
if not project_dir.exists() or not project_dir.is_dir():
raise ChipVerifyError(f"Directory not found: {project_dir}")
output_dir = Path(
args.out
or _prompt_with_default("Output directory", str(project_dir / "slwchipverify_auto"))
).expanduser().resolve()
output_dir.mkdir(parents=True, exist_ok=True)
cycles = args.cycles if args.cycles is not None else _prompt_int("Simulation cycles", 40, 1)
period = args.period if args.period is not None else _prompt_int("Clock period (ns)", 10, 1)
reset_cycles = (
args.reset_cycles
if args.reset_cycles is not None
else _prompt_int("Reset hold cycles", 2, 0)
)
verilog_files = find_verilog_files(project_dir)
if not verilog_files:
raise ChipVerifyError(f"No .v files found in {project_dir}")
print(f"Found {len(verilog_files)} Verilog files")
modules = collect_modules(verilog_files)
if not modules:
raise ChipVerifyError("No module declarations found in Verilog files")
module_names = {m.name for m in modules}
instantiated = find_instantiated_modules(verilog_files, module_names)
batch_mode = args.batch
if not args.batch and not args.top:
candidate_count = len(_top_candidates(modules, instantiated))
if candidate_count > 1:
batch_mode = _prompt_yes_no(
f"Detected {candidate_count} top candidates. Run in batch mode",
True,
)
if batch_mode:
if args.top:
selected_modules = [_pick_top_module(modules, args.top, instantiated)]
else:
selected_modules = _top_candidates(modules, instantiated)
print(f"Batch mode enabled, total candidates: {len(selected_modules)}")
for module in selected_modules:
print(f" - {module.name} ({module.file_path})")
used_dir_names: set[str] = set()
batch_results: list[dict[str, str | int | None]] = []
passed = 0
failed = 0
for module in selected_modules:
module_output_dir = _unique_module_dir(output_dir, module.name, used_dir_names)
if module_output_dir.exists():
shutil.rmtree(module_output_dir)
module_output_dir.mkdir(parents=True, exist_ok=True)
print(f"\n[batch] Running module: {module.name}")
result = run_single_module(
top_module=module,
verilog_files=verilog_files,
output_dir=module_output_dir,
cycles=cycles,
period=period,
reset_cycles=reset_cycles,
)
batch_results.append(result)
if result["status"] == "pass":
passed += 1
print(f"[batch] PASS: {module.name}")
print(f"[batch] TB: {result['tb_path']}")
print(f"[batch] VCD: {result['vcd_path']}")
else:
failed += 1
print(f"[batch] FAIL: {module.name}")
print(f"[batch] Error: {result['error']}")
summary_report = {
"timestamp": datetime.now().isoformat(timespec="seconds"),
"project_dir": str(project_dir),
"output_dir": str(output_dir),
"total_candidates": len(selected_modules),
"passed": passed,
"failed": failed,
"results": batch_results,
}
batch_report_path = (
Path(args.batch_report).expanduser().resolve()
if args.batch_report
else output_dir / "batch_summary.json"
)
write_batch_summary(batch_report_path, summary_report)
print("\nBatch run completed")
print(f"Batch summary: {batch_report_path}")
print(f"Passed: {passed}, Failed: {failed}, Total: {len(selected_modules)}")
return 0 if failed == 0 else 1
top_module = _pick_top_module(modules, args.top, instantiated)
print(f"Selected top module: {top_module.name}")
print(f"Top module file: {top_module.file_path}")
tb_path, vcd_path = generate_testbench(
top_module=top_module,
output_dir=output_dir,
cycles=cycles,
period_ns=period,
reset_cycles=reset_cycles,
)
print(f"Generated testbench: {tb_path}")
sim_out, sim_stdout = run_simulation(
verilog_files,
tb_path,
output_dir,
tb_module_name=tb_path.stem,
)
sim_log = output_dir / "sim_output.log"
sim_log.write_text(sim_stdout, encoding="utf-8")
print("Simulation completed successfully")
print(f"Simulation binary: {sim_out}")
print(f"Waveform: {vcd_path}")
print(f"Simulation log: {sim_log}")
print(f"Open waveform with: gtkwave {vcd_path}")
return 0
if __name__ == "__main__":
try:
raise SystemExit(main())
except ChipVerifyError as exc:
print(f"{LOG_PREFIX} ERROR: {exc}", file=sys.stderr)
raise SystemExit(2) from exc

8
one_click_verify.sh Executable file
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@@ -0,0 +1,8 @@
#!/usr/bin/env bash
set -euo pipefail
# 解析当前脚本所在目录,确保从任意路径调用都能找到 Python 主脚本。
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
# 透传全部命令行参数给一键验证入口。
python3 "$SCRIPT_DIR/one_click_verify.py" "$@"

1940
slwchipverify.py Normal file

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