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Release FIRM-Video-Bench (part 2)
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"""Compute Metrics between model scores and human-labeled scores.
Ground truth is loaded from the point-wise sampled file, where each item
exposes top-level fields ``if_score`` / ``vq_score`` / ``wc_score`` keyed by
``video_name``.
"""
import argparse
import json
from pathlib import Path
SCRIPT_DIR = Path(__file__).resolve().parent
PROJECT_ROOT = SCRIPT_DIR.parent
DEFAULT_RESULTS_DIR = PROJECT_ROOT / "results"
DEFAULT_GT_FILE = PROJECT_ROOT / "data" / "firm-video-bench.json"
MODEL_FILES = {
"gemini-3.1-pro": "gemini31pro_scores.json",
"gpt5": "gpt5_scores.json",
"seed-2.0-lite": "seed20lite_scores.json",
"qwen3vl-8b": "qwen3vl8b_scores.json",
"qwen3vl-30b": "qwen3vl30ba3b_scores.json",
"qwen3vl-235b": "qwen3vl235ba22b_scores.json",
"internvl3-8b": "internvl3-8b_scores.json",
"internvl3-38b": "internvl3-38b_scores.json",
"firm-video-8b-qwen3vl": "firm-video-qwen3vl_scores.json",
"firm-video-8b-internvl3": "firm-video-internvl3_scores.json"
}
# model dimension -> ground-truth key in GT_FILE
DIM_MAP = {
"instruction_following": "if_score",
"visual_quality": "vq_score",
"world_consistency": "wc_score",
}
def load(path):
with open(path, "r", encoding="utf-8") as f:
return json.load(f)
def load_gt(path):
"""Return dict: video_name -> {if_score, vq_score, wc_score}."""
gt = {}
for item in load(path):
key = item.get("video_name")
if not key:
continue
gt[key] = {k: item.get(k) for k in DIM_MAP.values()}
return gt
def _std(abs_errors):
"""绝对误差 |pred - human| 的样本标准差(围绕 MAE 的波动,ddof=1)。"""
m = len(abs_errors)
if m <= 1:
return None
mean_err = sum(abs_errors) / m
return (sum((e - mean_err) ** 2 for e in abs_errors) / (m - 1)) ** 0.5
def _accuracy(abs_errors):
"""预测与 human GT 完全相等的比例。"""
if not abs_errors:
return None
return sum(1 for e in abs_errors if e == 0) / len(abs_errors)
def _relaxed_accuracy(abs_errors):
"""预测与 human GT 相差不超过 1 的比例。"""
if not abs_errors:
return None
return sum(1 for e in abs_errors if e <= 1) / len(abs_errors)
def _rankdata(values):
"""返回带 ties 平均秩(1-based)的秩数组。"""
order = sorted(range(len(values)), key=lambda i: values[i])
ranks = [0.0] * len(values)
i = 0
while i < len(values):
j = i
while j + 1 < len(values) and values[order[j + 1]] == values[order[i]]:
j += 1
avg_rank = (i + j) / 2.0 + 1.0
for k in range(i, j + 1):
ranks[order[k]] = avg_rank
i = j + 1
return ranks
def _spearman(pairs):
"""Spearman 秩相关系数(对秩做 Pearson,含 ties 处理)。pairs: [(pred, human)]。"""
n = len(pairs)
if n < 2:
return None
xs = [p for p, _ in pairs]
ys = [h for _, h in pairs]
rx = _rankdata(xs)
ry = _rankdata(ys)
mean_rx = sum(rx) / n
mean_ry = sum(ry) / n
cov = sum((a - mean_rx) * (b - mean_ry) for a, b in zip(rx, ry))
var_x = sum((a - mean_rx) ** 2 for a in rx)
var_y = sum((b - mean_ry) ** 2 for b in ry)
denom = (var_x * var_y) ** 0.5
if denom == 0:
return None
return cov / denom
def compute_mae(items, gt):
"""Return per-dimension (MAE, std, N), overall (MAE, std) and extra metrics.
extra 部分返回 per-dimension 的 (accuracy, relaxed_accuracy, spearman),
overall 仅返回 (accuracy, relaxed_accuracy)。
"""
diffs = {dim: [] for dim in DIM_MAP}
pairs = {dim: [] for dim in DIM_MAP}
missing = 0
for item in items:
key = item.get("video_name")
human_scores = gt.get(key)
if human_scores is None:
missing += 1
continue
dims = {
d["dimension"]: d.get("score")
for d in item.get("scoring", {}).get("dimensions", [])
}
for model_dim, gt_key in DIM_MAP.items():
human = human_scores.get(gt_key)
pred = dims.get(model_dim)
if human is None or pred is None:
missing += 1
continue
try:
pv = float(pred)
hv = float(human)
except (TypeError, ValueError):
missing += 1
continue
diffs[model_dim].append(abs(pv - hv))
pairs[model_dim].append((pv, hv))
per_dim = {
dim: (sum(v) / len(v) if v else None, _std(v), len(v))
for dim, v in diffs.items()
}
all_diffs = [x for v in diffs.values() for x in v]
overall = sum(all_diffs) / len(all_diffs) if all_diffs else None
overall_std = _std(all_diffs)
per_dim_extra = {
dim: (_accuracy(diffs[dim]), _relaxed_accuracy(diffs[dim]), _spearman(pairs[dim]))
for dim in DIM_MAP
}
overall_extra = (
_accuracy(all_diffs),
_relaxed_accuracy(all_diffs),
)
return per_dim, overall, overall_std, per_dim_extra, overall_extra, missing, len(items)
def parse_args():
parser = argparse.ArgumentParser(
description="Compute metrics between model scores and human-labeled scores."
)
parser.add_argument(
"--gt_file",
type=str,
default=str(DEFAULT_GT_FILE),
help="Ground-truth JSON file with if_score/vq_score/wc_score fields.",
)
parser.add_argument(
"--results_dir",
type=str,
default=str(DEFAULT_RESULTS_DIR),
help="Directory containing model score JSON files.",
)
return parser.parse_args()
def main():
args = parse_args()
gt_file = Path(args.gt_file).expanduser()
results_dir = Path(args.results_dir).expanduser()
if not gt_file.exists():
print(f"GT file not found: {gt_file}")
return
gt = load_gt(gt_file)
print(f"Loaded {len(gt)} GT entries from {gt_file}")
fmt = lambda x: f"{x:.4f}" if x is not None else " N/A "
header = (
f"{'Model':<12} {'N':>4} "
f"{'IF':>10} {'IF_std':>10} "
f"{'PQ':>10} {'PQ_std':>10} "
f"{'WC':>10} {'WC_std':>10} "
f"{'Overall':>10} {'Ovr_std':>10} {'missing':>8}"
)
print(header)
print("-" * len(header))
# 收集每个模型的额外指标
extra_rows = []
for name, fname in MODEL_FILES.items():
path = results_dir / fname
if not path.exists():
print(f"{name}: file not found: {path}")
continue
items = load(path)
(per_dim, overall, overall_std, per_dim_extra,
overall_extra, missing, n) = compute_mae(items, gt)
if_mae, if_std, _ = per_dim["instruction_following"]
vq_mae, vq_std, _ = per_dim["visual_quality"]
wc_mae, wc_std, _ = per_dim["world_consistency"]
print(
f"{name:<12} {n:>4} "
f"{fmt(if_mae):>10} {fmt(if_std):>10} "
f"{fmt(vq_mae):>10} {fmt(vq_std):>10} "
f"{fmt(wc_mae):>10} {fmt(wc_std):>10} "
f"{fmt(overall):>10} {fmt(overall_std):>10} {missing:>8}"
)
extra_rows.append((name, per_dim_extra, overall_extra))
# ---- 额外指标:accuracy / relaxed accuracy / spearman ----
if extra_rows:
print("\n== Extra metrics: Accuracy(=) / Relaxed(|d|<=1) / Spearman ==")
extra_header = (
f"{'Model':<12} "
f"{'IF_acc':>8} {'IF_racc':>8} {'IF_spr':>8} "
f"{'PQ_acc':>8} {'PQ_racc':>8} {'PQ_spr':>8} "
f"{'WC_acc':>8} {'WC_racc':>8} {'WC_spr':>8} "
f"{'Ovr_acc':>8} {'Ovr_racc':>8}"
)
print(extra_header)
print("-" * len(extra_header))
for name, per_dim_extra, overall_extra in extra_rows:
if_acc, if_racc, if_spr = per_dim_extra["instruction_following"]
vq_acc, vq_racc, vq_spr = per_dim_extra["visual_quality"]
wc_acc, wc_racc, wc_spr = per_dim_extra["world_consistency"]
ovr_acc, ovr_racc = overall_extra
print(
f"{name:<12} "
f"{fmt(if_acc):>8} {fmt(if_racc):>8} {fmt(if_spr):>8} "
f"{fmt(vq_acc):>8} {fmt(vq_racc):>8} {fmt(vq_spr):>8} "
f"{fmt(wc_acc):>8} {fmt(wc_racc):>8} {fmt(wc_spr):>8} "
f"{fmt(ovr_acc):>8} {fmt(ovr_racc):>8}"
)
print("\nDimension mapping: instruction_following<->if_score, "
"perceptual quality (PQ; input: visual_quality<->vq_score), "
"world_coherence<->wc_score")
print("std = 模型打分绝对误差|pred - human|的样本标准差(ddof=1)")
print("acc = 完全相等准确率; racc = 相差<=1准确率; spr = Spearman秩相关系数")
if __name__ == "__main__":
main()