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gpt-5.4-nano | RAG on

13_rtllm_arithmetic / task_16 | fixed_point_adder

benchmarkrtllm
task_idrtllm/13_rtllm_arithmetic/task_16
samples_total10
final_success_samples10
final_success_rate_samples100.0%
functional_pass_rate_samples100.0%
synth_pass_rate_samples100.0%
source_runsrun_20260426_070416_680227_376b99

Что показывает эта страница

Здесь перечислены все реальные попытки этой модели на одной задаче. По каждой попытке можно увидеть, до какой стадии она дошла, где именно сломалась и какое сообщение об ошибке вернулось из syntax, functional или synthesis.

Samples

sample run extract_ok syntax_ok functional_ok openlane_ok final_success failure_stage failure_reason details
sample_1 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_1
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_a_gt_abs_b = (abs_a > abs_b);
    wire abs_b_gt_abs_a = (abs_b > abs_a);

    wire [N-1:0] diff_a_b = abs_a - abs_b; // valid when abs_a >= abs_b
    wire [N-1:0] diff_b_a = abs_b - abs_a; // valid when abs_b >= abs_a

    wire [N-1:0] neg_diff_a_b = ~diff_a_b + {{(N-1){1'b0}},1'b1};
    wire [N-1:0] neg_diff_b_a = ~diff_b_a + {{(N-1){1'b0}},1'b1};

    always @* begin
        if (sign_a == sign_b) begin
            // Absolute value addition, sign preserved from inputs
            res = abs_a + abs_b;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_2 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_2
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_a_gt_abs_b = (abs_a > abs_b);

    always @* begin
        if (sign_a == sign_b) begin
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            if (abs_a_gt_abs_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0;
            end else if (abs_b > abs_a) begin
                res = abs_b - abs_a;
                res[N-1] = 1'b1;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_3 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_3
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_same_sign = (sign_a == sign_b);

    wire a_ge_b = (a >= b);

    always @* begin
        if (abs_same_sign) begin
            res[N-1] = sign_a;
            res[N-2:0] = abs_a[N-2:0] + abs_b[N-2:0];
        end else begin
            if (a_ge_b) begin
                res = a - b;
            end else begin
                res = b - a;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_4 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_4
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_a_gt_abs_b = (abs_a > abs_b);

    always @* begin
        if (sign_a == sign_b) begin
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            if (abs_a_gt_abs_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0;
            end else if (abs_b > abs_a) begin
                res = abs_b - abs_a;
                res[N-1] = 1'b1;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_5 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_5
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire a_gt_b = (abs_a > abs_b);
    wire b_gt_a = (abs_b > abs_a);

    always @* begin
        if (sign_a == sign_b) begin
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            if (a_gt_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0;
            end else if (b_gt_a) begin
                res = abs_b - abs_a;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_6 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_6
generated.v preview
module fixed_point_adder
  #(parameter integer Q = 8,
    parameter integer N = 16)
(
  input  [N-1:0] a,
  input  [N-1:0] b,
  output [N-1:0] c
);

  reg [N-1:0] res;

  wire sign_a = a[N-1];
  wire sign_b = b[N-1];

  wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
  wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

  wire abs_a_gt_abs_b = (abs_a > abs_b);

  always @* begin
    if (sign_a == sign_b) begin
      res = abs_a + abs_b;
      res[N-1] = sign_a;
    end else begin
      if (abs_a_gt_abs_b) begin
        res = abs_a - abs_b;
        res[N-1] = 1'b0;
      end else if (abs_b > abs_a) begin
        res = abs_b - abs_a;
        res[N-1] = 1'b1;
      end else begin
        res = {N{1'b0}};
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_7 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_7
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire [N-1:0] abs_add = abs_a + abs_b;

    wire [N-1:0] abs_diff_a = abs_a - abs_b; // valid when abs_a >= abs_b
    wire [N-1:0] abs_diff_b = abs_b - abs_a; // valid when abs_b >= abs_a

    wire abs_a_ge_abs_b = (abs_a >= abs_b);

    always @* begin
        if (sign_a == sign_b) begin
            // Absolute value addition
            res = abs_add;
            res[N-1] = sign_a;
        end else begin
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_8 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_8
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  wire [N-1:0] a,
    input  wire [N-1:0] b,
    output reg  [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire a_ge_b = (abs_a >= abs_b);

    always @* begin
        if (sign_a == sign_b) begin
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            if (a_ge_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0;
            end else begin
                res = abs_b - abs_a;
                if (res == {N{1'b0}})
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_9 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_9
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_a_gt_abs_b = (abs_a > abs_b);
    wire abs_b_gt_abs_a = (abs_b > abs_a);

    always @* begin
        if (sign_a == sign_b) begin
            // Absolute value addition; sign matches inputs
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            // Absolute value subtraction; larger magnitude wins
            if (abs_a_gt_abs_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0; // positive
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}
sample_10 run_20260426_070416_680227_376b99 ok ok ok ok ok success Full pipeline success
Open details
sample_dir: E:\Work\MIEM\VKR\Analyse\data\model_dataset\models\gpt-5-4-nano\rag_on\benchmarks\rtllm\tasks\rtllm__13_rtllm_arithmetic__task_16\samples\run_20260426_070416_680227_376b99__sample_10
generated.v preview
module fixed_point_adder
#(
    parameter integer Q = 8,
    parameter integer N = 16
)
(
    input  [N-1:0] a,
    input  [N-1:0] b,
    output [N-1:0] c
);

    reg [N-1:0] res;

    wire sign_a = a[N-1];
    wire sign_b = b[N-1];

    wire [N-1:0] abs_a = sign_a ? (~a + {{(N-1){1'b0}},1'b1}) : a;
    wire [N-1:0] abs_b = sign_b ? (~b + {{(N-1){1'b0}},1'b1}) : b;

    wire abs_a_gt_abs_b = (abs_a > abs_b);

    always @* begin
        if (sign_a == sign_b) begin
            res = abs_a + abs_b;
            res[N-1] = sign_a;
        end else begin
            if (abs_a_gt_abs_b) begin
                res = abs_a - abs_b;
                res[N-1] = 1'b0;
            end else if (abs_b > abs_a) begin
                res = abs_b - abs_a;
                res[N-1] = 1'b1;
...
functional details
[stdout]
=========== Your Design Passed ===========
/workspace/banchmarks/rtllm/13_rtllm_arithmetic/task_16/tb.v:55: $finish called at 1000000 (1ps)
synthesis details
[error]
None
outcome
{
  "llm_ok": true,
  "extract_ok": true,
  "syntax_ok": true,
  "functional_ok": true,
  "openlane_ok": true,
  "syntax_required": true,
  "functional_required": true,
  "openlane_required": true,
  "final_success": true,
  "success": true
}