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# -*- coding: utf-8 -*-
"""
budget.py —— 逐秒打标 + 时长预算 + 可用片段(cutlist)
全流程只对时间轴动手:不裁画面、不改分辨率、不做逐帧曝光调整。
所有「变干净」都靠丢掉整段时间实现,留下来的每一帧都是原始像素。
打标优先级(同一秒只算一次,所以各类时长可直接相加):
损坏 › 传送窗口 › 卡住/空闲 › 低照度 › 干净
拍板过的决策(体检 → 交付两轮的最终值):
D1 卡住 只丢「连续 ≥2s」的卡住,不是全丢。短卡住会把连续素材劈成两半,
而「发了移动指令 + 画面不动」本身正是 world model 要学的碰撞。
D2 低照度 帧均值 < 6 丢掉(度量必须是 lum_scan 的 64x36 bicubic,换度量阈值就不是这个 6)
D5 传送 固定余量 [leg_end-1.0s, leg_start+1.5s]
切段:可用区间还要在下列位置断开,段内才允许切训练片段
· >1s 的日志采样空洞(对不上动作真值)
· 相邻采样位移 >20 m(未被 leg 事件覆盖的瞬移)
· 区域被整体排除(白模缺陷区)
产出 <out>/<session>/:
labels.npz 逐秒标签(0..5,见 LABELS)
segments.json 可用片段 [{seg_id, vt_lo, vt_hi, video_lo, video_hi, region, leg, ...}]
budget.json 时长预算表 + 各判据的命中统计
"""
from __future__ import annotations
import argparse
import json
import os
import numpy as np
LABELS = ["clean", "corrupt", "transition", "stuck", "dark", "idle"]
L_CLEAN, L_CORRUPT, L_TRANS, L_STUCK, L_DARK, L_IDLE = range(6)
# --- 判据常数 ---
TRANS_PRE = 1.0 # leg_end 前余量
TRANS_POST = 1.5 # leg_start 后余量
STUCK_WIN = 1.0 # 卡住判定窗口(秒)
STUCK_DIST = 0.5 # 窗口内位移阈值(米)
STUCK_MIN_RUN = 2.0 # D1:只丢连续 ≥2s 的卡住
DARK_THRESH = 6.0 # D2
JUMP_M = 20.0 # 瞬移断点
GAP_S = 1.0 # 日志空洞断点
CLIP_FPS = 16.0
CLIP_FRAMES = 81
CLIP_STRIDE = 84
MIN_SEG_S = CLIP_FRAMES / CLIP_FPS # 段短于一个 clip 就没用
# 白模缺陷区:目检确认整片无贴图,直接整区排除
EXCLUDE_REGIONS = {"phalenChurch", "MountainPassCaveB"}
# 视频尾部损坏:s1 被强杀时文件写了一半,最后约 16 s 取不出帧
VIDEO_END_CAP = {"20260821_190601_787": 124356.0}
def load_session(logs: str, sid: str):
d = os.path.join(logs, sid)
st = np.load(os.path.join(d, "state.npz"))
ip = np.load(os.path.join(d, "input.npz"))
lum = np.load(os.path.join(d, "lum.npz"))
with open(os.path.join(d, "events.json"), encoding="utf-8") as fh:
events = json.load(fh)
with open(os.path.join(d, "regions.json"), encoding="utf-8") as fh:
regions = json.load(fh)
# 只读 finalize_offsets.py 产出的权威映射;align.json / align_flow.json 是中间结果
align_p = os.path.join(d, "offsets.json")
align = json.load(open(align_p, encoding="utf-8")) if os.path.exists(align_p) else None
return st, ip, lum, events, regions, align
def offset_fn(align):
"""分段常数 offset:video_t = log_vt + offset(log_vt)。"""
if align is None:
return lambda vt: np.zeros_like(np.asarray(vt, np.float64))
segs = align["segments"]
los = np.array([s["vt_lo"] for s in segs], np.float64)
offs = np.array([s["offset"] for s in segs], np.float64)
def f(vt):
vt = np.asarray(vt, np.float64)
i = np.clip(np.searchsorted(los, vt, side="right") - 1, 0, len(offs) - 1)
return offs[i]
return f
def sorted_state(st):
o = np.argsort(st["vt"])
return {k: st[k][o] for k in st.files}
def rolling_disp(vt, x, z, win_s):
"""每个采样点在 ±win/2 窗口内的位移(米)。"""
n = vt.size
half = win_s / 2.0
lo = np.searchsorted(vt, vt - half, side="left")
hi = np.clip(np.searchsorted(vt, vt + half, side="right") - 1, 0, n - 1)
return np.hypot(x[hi] - x[lo], z[hi] - z[lo]), lo, hi
def runs_of(mask):
"""布尔数组 -> [(i0, i1)) 的 True 区间。"""
if mask.size == 0:
return []
d = np.diff(mask.astype(np.int8))
starts = list(np.flatnonzero(d == 1) + 1)
ends = list(np.flatnonzero(d == -1) + 1)
if mask[0]:
starts.insert(0, 0)
if mask[-1]:
ends.append(mask.size)
return list(zip(starts, ends))
def teleport_windows(events):
ends = [e for e in events if e.get("ev") == "roam_leg_end"]
starts = sorted((e for e in events if e.get("ev") == "roam_leg_start"),
key=lambda e: e["vt"])
svt = np.array([s["vt"] for s in starts], np.float64)
out = []
for e in ends:
ve = float(e["vt"])
j = np.searchsorted(svt, ve, side="left")
vs = float(svt[j]) if j < svt.size else ve + 10.0
if vs - ve > 120.0:
vs = ve + 10.0 # 异常长的窗口,按典型长度保守切
out.append((ve, vs))
return out
def leg_of(events, vt):
"""每个采样点属于哪个 leg(roam_leg_start 之后、对应 roam_leg_end 之前)。"""
starts = sorted(((float(e["vt"]), int(e.get("leg", -1)))
for e in events if e.get("ev") == "roam_leg_start"), key=lambda t: t[0])
if not starts:
return np.full(vt.size, -1, np.int32)
svt = np.array([s[0] for s in starts], np.float64)
sid = np.array([s[1] for s in starts], np.int32)
i = np.clip(np.searchsorted(svt, vt, side="right") - 1, 0, sid.size - 1)
out = sid[i]
out[vt < svt[0]] = -1
return out
def main():
ap = argparse.ArgumentParser(description="逐秒打标 + 可用片段")
ap.add_argument("--logs", default="/data/zhiyangdeng/data_eybx/logs")
ap.add_argument("--sessions", nargs="*", default=None)
ap.add_argument("--dark", type=float, default=DARK_THRESH)
args = ap.parse_args()
sessions = args.sessions or sorted(
d for d in os.listdir(args.logs) if os.path.isdir(os.path.join(args.logs, d)))
for sid in sessions:
print(f"== {sid}")
st, ip, lum, events, regions, align = load_session(args.logs, sid)
st = sorted_state(st)
vt, x, z, rg = st["vt"], st["x"].astype(np.float64), st["z"].astype(np.float64), st["rg"]
n = vt.size
off = offset_fn(align)
vid_t = vt + off(vt) # 每个采样点对应的视频时间
fps = float(lum["fps"])
mean = lum["mean"]
nfr = mean.size
vend = VIDEO_END_CAP.get(sid, nfr / fps)
# 输入按时间最近邻对到状态采样
ivt = ip["vt"]; o = np.argsort(ivt)
ivt, mag = ivt[o], ip["mag"][o].astype(np.float64)
j = np.clip(np.searchsorted(ivt, vt), 0, ivt.size - 1)
j2 = np.clip(j - 1, 0, ivt.size - 1)
pick = np.where(np.abs(ivt[j] - vt) <= np.abs(ivt[j2] - vt), j, j2)
mv_mag = mag[pick]
mv_ok = np.abs(ivt[pick] - vt) < 0.5 # 对不上输入的采样点不判 stuck/idle
# 每个采样点代表的时长
step = np.clip(np.diff(vt, append=vt[-1]), 0, 1.0)
# ---- 判据 ----
lab = np.full(n, L_CLEAN, np.int8)
# 损坏:日志空洞(>1s 无采样)本身不占时长,但视频尾损坏要整段剔除
corrupt = vid_t >= vend
# 区域整体排除(白模缺陷区)
excl_idx = {i for i, r in enumerate(regions) if r in EXCLUDE_REGIONS}
excluded = np.isin(rg, list(excl_idx)) if excl_idx else np.zeros(n, bool)
corrupt_true = corrupt.copy()
corrupt |= excluded
# 传送窗口(在视频时间轴上判定)
trans = np.zeros(n, bool)
for a, b in teleport_windows(events):
va = a + float(off(np.array([a]))[0]) - TRANS_PRE
vb = b + float(off(np.array([b]))[0]) + TRANS_POST
trans |= (vid_t >= va) & (vid_t <= vb)
# 卡住 / 空闲
disp, _, _ = rolling_disp(vt, x, z, STUCK_WIN)
stuck_raw = mv_ok & (mv_mag > 0.0) & (disp < STUCK_DIST)
idle = mv_ok & (mv_mag <= 0.0)
# D1:只保留连续 ≥2s 的卡住
stuck = np.zeros(n, bool)
for i0, i1 in runs_of(stuck_raw):
if vt[i1 - 1] - vt[i0] >= STUCK_MIN_RUN:
stuck[i0:i1] = True
# 低照度(D2)
fi = np.clip(np.round(vid_t * fps).astype(np.int64), 0, nfr - 1)
lum_at = mean[fi]
dark = lum_at < args.dark
# 优先级覆盖
lab[dark] = L_DARK
lab[idle] = L_IDLE
lab[stuck] = L_STUCK
lab[trans] = L_TRANS
lab[corrupt] = L_CORRUPT
hours = {LABELS[k]: float(step[lab == k].sum()) / 3600 for k in range(6)}
h_true = float(step[corrupt_true].sum()) / 3600
h_excl = float(step[excluded & ~corrupt_true].sum()) / 3600
tot = sum(hours.values())
print(f" 时长预算(合计 {tot:.2f} h)")
for k in ("clean", "corrupt", "transition", "stuck", "dark", "idle"):
note = f" (真损坏 {h_true:.2f} + 白模缺陷区 {h_excl:.2f})" if k == "corrupt" else ""
print(f" {k:<11} {hours[k]:6.2f} h {100*hours[k]/tot:5.1f}%{note}")
# ---- 可用片段 ----
usable = lab == L_CLEAN
# 断点:日志空洞 / 瞬移 / leg 变化
dvt = np.diff(vt, prepend=vt[0])
jump = np.hypot(np.diff(x, prepend=x[0]), np.diff(z, prepend=z[0]))
brk = (dvt > GAP_S) | (jump > JUMP_M)
legs = leg_of(events, vt)
brk |= np.diff(legs, prepend=legs[0]) != 0
# 注意:区域变化【不】断段。交付规格里 clip 允许跨场景,只记录每个 cell 的
# 场景纯度(preview 里的「最低 cell 纯度 0.75」= 该 cell 4 帧里 3 帧同场景)。
# 在这里断段会把连续素材切碎,clip 数会少一成多。
n_jump = int((jump > JUMP_M).sum())
n_gap = int((dvt > GAP_S).sum())
segs = []
for i0, i1 in runs_of(usable):
cut = [i0] + [i for i in range(i0 + 1, i1) if brk[i]] + [i1]
for a, b in zip(cut[:-1], cut[1:]):
if b - a < 2:
continue
dur_v = float(vid_t[b - 1] - vid_t[a])
if dur_v < MIN_SEG_S:
continue
segs.append(dict(
i0=int(a), i1=int(b),
vt_lo=float(vt[a]), vt_hi=float(vt[b - 1]),
video_lo=float(vid_t[a]), video_hi=float(vid_t[b - 1]),
dur_s=dur_v, leg=int(legs[a]), region=regions[int(rg[a])],
n_clips=max(0, int((dur_v * CLIP_FPS - CLIP_FRAMES) // CLIP_STRIDE) + 1),
mean_lum=float(lum_at[a:b].mean()),
))
segs.sort(key=lambda s: s["video_lo"])
for k, s in enumerate(segs):
s["seg_id"] = k + 1
n_clips = sum(s["n_clips"] for s in segs)
seg_h = sum(s["dur_s"] for s in segs) / 3600
print(f" 可用片段 {len(segs)} 段 · {seg_h:.2f} h · 可切 {n_clips:,} 个 clip "
f"(81 帧 @16fps, 步长 84)")
print(f" 断点来源:日志空洞 {n_gap} · 瞬移>20m {n_jump}")
d = os.path.join(args.logs, sid)
np.savez_compressed(os.path.join(d, "labels.npz"), vt=vt, video_t=vid_t,
label=lab, lum=lum_at.astype(np.float32),
mv_mag=mv_mag.astype(np.float32), disp=disp.astype(np.float32),
step=step.astype(np.float32), leg=legs, rg=rg)
with open(os.path.join(d, "segments.json"), "w", encoding="utf-8") as fh:
json.dump(segs, fh, ensure_ascii=False)
with open(os.path.join(d, "budget.json"), "w", encoding="utf-8") as fh:
json.dump(dict(session=sid, hours=hours, total_h=tot,
dark_thresh=args.dark, stuck_min_run=STUCK_MIN_RUN,
trans_margin=[TRANS_PRE, TRANS_POST],
excluded_regions=sorted(EXCLUDE_REGIONS),
video_end_cap=vend,
corrupt_true_h=h_true, excluded_region_h=h_excl,
n_segments=len(segs), segment_hours=seg_h, n_clips=n_clips,
breaks=dict(log_gap=n_gap, jump=n_jump)), fh,
ensure_ascii=False, indent=1)
print("DONE")
if __name__ == "__main__":
main()
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