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| """Layout ablations of one checkpoint, every variant in one pass over the videos. | |
| Each video is decoded and encoded once, exactly as vbe/infer.py does (same frames, same | |
| encoder rows); the variants only change which frames are kept, how they are grouped, | |
| and what a compressed group becomes: | |
| coverage (long videos) a video with more 1 fps frames than the variant's cap keeps | |
| ``cap`` evenly spaced frames; every other video keeps the | |
| baseline layout | |
| rho<R> cap B // R, laid out by the baseline's hybrid rule: fewer frames, more | |
| of them raw. rho16 caps at the most frames whose adaptive tf-4 groups | |
| all fit (4 * B/64 - 1), i.e. pure qbase at 16 tokens/frame. rho32-128 | |
| then fill the budget: the greedy rule can overshoot by one 8-frame group | |
| (up to ~30% of B unused at 4096), so compressed groups go back to raw, | |
| most-changing first, while they still fit. | |
| rho32nf rho32 without that fill step (does the fill matter?) | |
| qtf<k> cap k * B/64 - 1 (k = 1: B/64), every frame compressed in adaptive | |
| tf-k groups: lighter compression (64 / k tokens per frame), no raw | |
| low64 cap B // 64, every frame raw at <= 64 rows (re-encoded) | |
| compressor (baseline plan, every compressed group swapped for ONE raw frame of | |
| <= 64 rows, the qbase's own K, in the raw-frame text format) | |
| sel_resize the group's middle frame re-encoded at the small grid | |
| sel_merge the group's middle frame's encoder rows area-pooled to that grid | |
| mean_merge the group's mean encoder rows area-pooled to that grid | |
| grouping (uniform cuts, same count N = T//tf + 1, instead of the adaptive segmenter) | |
| uni8 baseline coverage | |
| uni16 rho16 coverage | |
| compression order | |
| hivar the hybrid rule compresses the MOST-changing groups first (the baseline: | |
| the least-changing), change measured as Phase-3 training ranks raw | |
| segments (compressor._hybrid_raw_segments: a 1-frame group's change is | |
| its step from the previous frame); training sent the least-changing | |
| segments raw, so this is the order that matches it | |
| A (question, budget, variant) whose LLM input is identical to the baseline's (same | |
| frames, plan and raw grid, qbase rows) is not re-run: the baseline record is copied with | |
| ``reused: true``. Outputs: <out_root>/<variant>_b<B>/<benchmark>/shard*.jsonl, scored with | |
| ``python -m vbe.score``. | |
| """ | |
| import argparse | |
| import glob | |
| import json | |
| import math | |
| import os | |
| import time | |
| from collections import OrderedDict | |
| import numpy as np | |
| import torch | |
| import torch.nn.functional as F | |
| from torch.utils.data import DataLoader | |
| from videollama3.constants import DEFAULT_IMAGE_TOKEN | |
| from videollama3.model.compressor import adaptive_segment_count, adaptive_segment_lengths | |
| from vbe import budget as bd | |
| from vbe.benchmarks import DEFAULT_ROOT, build_prompt, extract_choice, load_benchmark | |
| from vbe.infer import BudgetedVideoLLM, Videos | |
| SMALL = 64 # rows of a selected / merged frame: the qbase's K | |
| BASE = dict(cap=None, layout="hybrid", tf=4, seg="adaptive", comp="qbase", raw_tokens=None) | |
| VARIANTS = { | |
| "rho16": dict(BASE, cap=("tf", 4)), | |
| "rho32": dict(BASE, cap=("rho", 32), fill=True), | |
| "rho32nf": dict(BASE, cap=("rho", 32)), | |
| "rho64": dict(BASE, cap=("rho", 64), fill=True), | |
| "rho128": dict(BASE, cap=("rho", 128), fill=True), | |
| "rho256": dict(BASE, cap=("rho", 256)), | |
| "qtf2": dict(BASE, cap=("tf", 2), layout="qbase", tf=2), | |
| "qtf1": dict(BASE, cap=("tf", 1), layout="qbase", tf=1), | |
| "low64": dict(BASE, cap=("rho", 64), raw_tokens=SMALL), | |
| "sel_resize": dict(BASE, comp="sel_resize"), | |
| "sel_merge": dict(BASE, comp="sel_merge"), | |
| "mean_merge": dict(BASE, comp="mean_merge"), | |
| "uni8": dict(BASE, seg="uniform"), | |
| "uni16": dict(BASE, cap=("tf", 4), seg="uniform"), | |
| "hivar": dict(BASE, order="hivar"), | |
| "base": BASE, # the baseline itself (equivalence check, with --no_reuse) | |
| } | |
| def parse_args(): | |
| p = argparse.ArgumentParser() | |
| p.add_argument("--model_path", required=True) | |
| p.add_argument("--raw_max_tokens", type=int, default=256, help="baseline raw-frame cap (Phase-3 protocol)") | |
| p.add_argument("--benchmark", required=True, choices=["videomme", "mlvu", "longvideobench"]) | |
| p.add_argument("--data_root", default=DEFAULT_ROOT) | |
| p.add_argument("--out_root", required=True, help="results go to <out_root>/<variant>_b<B>/<benchmark>/") | |
| p.add_argument("--baseline_run", required=True, | |
| help="results/<run> prefix of the baseline (<run>_b<B>/<benchmark>/*.jsonl), for reuse") | |
| p.add_argument("--jobs", required=True, | |
| help="variant:budget[:budget...] separated by commas, e.g. rho32:4096:16384,sel_merge:1024") | |
| p.add_argument("--no_reuse", action="store_true", help="run every job, even when identical to the baseline") | |
| p.add_argument("--shard_id", type=int, default=0) | |
| p.add_argument("--num_shards", type=int, default=1) | |
| p.add_argument("--encoder_chunk_frames", type=int, default=128) | |
| p.add_argument("--max_new_tokens", type=int, default=16) | |
| p.add_argument("--num_workers", type=int, default=6) | |
| p.add_argument("--limit", type=int, default=0, help="only the first N videos of this shard (debug)") | |
| return p.parse_args() | |
| # ----------------------------------------------------------------------------- planning | |
| def frame_cap(v, budget): | |
| """Most frames a long video keeps under variant ``v`` (None: the baseline's B/8).""" | |
| if v["cap"] is None: | |
| return None | |
| kind, x = v["cap"] | |
| m = budget // bd.K | |
| if kind == "rho": | |
| return budget // x | |
| return x * m - 1 if x > 1 else m # most T with adaptive_segment_count(T, x) <= B/K | |
| def frame_indices(n_decoded, budget, v): | |
| """(indices into the decoded frames, capped?) for variant ``v`` at ``budget``.""" | |
| cap = frame_cap(v, budget) | |
| if cap is None or n_decoded <= cap: | |
| return bd.subsample(n_decoded, budget), False | |
| return np.linspace(0, n_decoded - 1, cap, dtype=int).tolist(), True | |
| def segment(per_frame, tf, seg): | |
| T = int(per_frame.shape[0]) | |
| n = adaptive_segment_count(T, tf, bd.FORCE_EVERY) | |
| if seg == "adaptive": | |
| return adaptive_segment_lengths(per_frame, tf, bd.FORCE_EVERY, 0.0, None, n_segments=n) | |
| bounds = np.round(np.linspace(0, T, n + 1)).astype(int) | |
| return [int(x) for x in np.diff(bounds)] | |
| def group_variation(per_frame, lens): | |
| """bd.plan_groups' per-group variation (1-frame groups: +inf).""" | |
| f = F.normalize(per_frame.float(), dim=-1) | |
| diff = (1.0 - (f[1:] * f[:-1]).sum(-1)).tolist() | |
| var, s = [], 0 | |
| for L in lens: | |
| var.append(sum(diff[s:s + L - 1]) / (L - 1) if L > 1 else math.inf) | |
| s += L | |
| return var | |
| def training_change(per_frame, lens): | |
| """Per-group change as Phase-3 training ranks raw segments | |
| (compressor.TransformerDecoderFlatCompressor._hybrid_raw_segments).""" | |
| f = F.normalize(per_frame.float(), dim=-1) | |
| diff = (1.0 - (f[1:] * f[:-1]).sum(-1)).tolist() | |
| change, s = [], 0 | |
| for L in lens: | |
| change.append(sum(diff[s:s + L - 1]) / (L - 1) if L >= 2 else (diff[s - 1] if s >= 1 else diff[0])) | |
| s += L | |
| return change | |
| def fill(plan, per_frame, raw_hw, budget): | |
| """Spend what the greedy rule left of the budget on raw frames, most-changing | |
| compressed group first: a whole group goes back raw when it fits, else its first k | |
| frames do (k raw frames + a compressed group of the rest).""" | |
| if plan.mode != "hybrid": | |
| return plan | |
| var = group_variation(per_frame, plan.seg_lens) | |
| raw_k = {} # compressed group -> frames sent raw | |
| cost = plan.vision_tokens | |
| for j in sorted(plan.compressed, key=lambda j: (-var[j], plan.seg_lens[j], j)): | |
| L = plan.seg_lens[j] | |
| if cost + L * raw_hw - bd.K <= budget: | |
| raw_k[j] = L | |
| cost += L * raw_hw - bd.K | |
| elif L > 1 and (budget - cost) // raw_hw >= 1: | |
| raw_k[j] = min(L - 1, (budget - cost) // raw_hw) | |
| cost += raw_k[j] * raw_hw | |
| lens, comp = [], set() | |
| for j, L in enumerate(plan.seg_lens): | |
| k = raw_k.get(j, 0) if j in plan.compressed else L | |
| if k: | |
| lens.append(k) | |
| if L - k: | |
| comp.add(len(lens)) | |
| lens.append(L - k) | |
| assert cost <= budget and sum(lens) == sum(plan.seg_lens) | |
| return bd.Plan("hybrid", lens, comp, cost) | |
| def plan_variant(per_frame, hw, raw_hw, budget, v): | |
| """bd.plan_groups with the variant's layout / cut; identical to it for the baseline.""" | |
| plan = _plan_variant(per_frame, hw, raw_hw, budget, v) | |
| return fill(plan, per_frame, raw_hw, budget) if v.get("fill") else plan | |
| def _plan_variant(per_frame, hw, raw_hw, budget, v): | |
| T = int(per_frame.shape[0]) | |
| if v["layout"] == "qbase": | |
| lens = segment(per_frame, v["tf"], v["seg"]) | |
| assert len(lens) * bd.K <= budget, (len(lens), budget) | |
| return bd.Plan("qbase", lens, set(range(len(lens))), len(lens) * bd.K) | |
| if v["seg"] == "adaptive" and v.get("order") is None: | |
| return bd.plan_groups(per_frame, hw, budget, raw_hw=raw_hw) | |
| # the hybrid rule of bd.plan_groups (rules 2-4) on the variant's cut / order | |
| if T * raw_hw <= budget: | |
| return bd.Plan("raw", [1] * T, set(), T * raw_hw) | |
| lens = segment(per_frame, v["tf"], v["seg"]) | |
| if len(lens) * bd.K > budget: | |
| return bd.plan_groups(per_frame, hw, budget, raw_hw=raw_hw) # forced8: already uniform | |
| if v.get("order") == "hivar": | |
| change = training_change(per_frame, lens) | |
| order = sorted(range(len(lens)), key=lambda j: (-change[j], -lens[j], j)) | |
| else: | |
| var = group_variation(per_frame, lens) | |
| order = sorted(range(len(lens)), key=lambda j: (var[j], -lens[j], j)) | |
| cost, comp = T * raw_hw, set() | |
| for j in order: | |
| if cost <= budget: | |
| break | |
| comp.add(j) | |
| cost -= lens[j] * raw_hw - bd.K | |
| assert cost <= budget, (cost, budget) | |
| return bd.Plan("hybrid", lens, comp, cost) | |
| # ----------------------------------------------------------------------------- LLM input | |
| def build(llm, frames, ts, tok, enc, frame_idx, plan, raw_grid, comp): | |
| """vbe.infer.BudgetedVideoLLM.build_video for a given plan; ``comp`` says what a | |
| compressed group becomes (qbase: K rows in compression tokens, else one small raw | |
| frame). Bit-identical to build_video for the baseline (checked by --no_reuse runs).""" | |
| T = len(ts) | |
| feats, (hh, ww) = enc | |
| hw = hh * ww | |
| raw_hw = raw_grid[0] * raw_grid[1] | |
| C = feats.shape[-1] | |
| starts = np.cumsum([0] + plan.seg_lens[:-1]).tolist() | |
| group_rows = {} # compressed group j -> its LLM rows | |
| small = llm.hybrid_raw.raw_frame_grid(hh, ww, SMALL) | |
| if plan.compressed and comp == "qbase": | |
| qb = llm.inner.token_compressor | |
| cu = torch.tensor([0] + list(np.cumsum([L * hw for L in plan.seg_lens])), device=feats.device) | |
| saved = qb.adaptive_segmentation | |
| qb.adaptive_segmentation = False | |
| try: | |
| rows = qb(feats, cu, [(hh, ww)] * len(plan.seg_lens)) | |
| finally: | |
| qb.adaptive_segmentation = saved | |
| rows = llm.inner.mm_projector(rows) | |
| group_rows = {j: rows[j * bd.K:(j + 1) * bd.K] for j in plan.compressed} | |
| elif plan.compressed: | |
| comp_js = sorted(plan.compressed) | |
| mid = [starts[j] + (plan.seg_lens[j] - 1) // 2 for j in comp_js] | |
| if comp == "sel_resize": | |
| src = [frame_idx[f] for f in mid] if frame_idx is not None else mid | |
| x = llm.reencode(frames[src], tok, small) | |
| else: | |
| grid = feats.view(T, hh, ww, C) | |
| if comp == "sel_merge": | |
| x = grid[torch.tensor(mid, device=feats.device)].float() | |
| else: # mean_merge | |
| x = torch.stack([grid[starts[j]:starts[j] + plan.seg_lens[j]].float().mean(0) for j in comp_js]) | |
| x = F.adaptive_avg_pool2d(x.permute(0, 3, 1, 2), small).permute(0, 2, 3, 1) | |
| x = x.reshape(-1, C).to(feats.dtype) | |
| x = llm.proj_orig(x) | |
| n = small[0] * small[1] | |
| group_rows = {j: x[i * n:(i + 1) * n] for i, j in enumerate(comp_js)} | |
| raw_idx = [f for j, (s0, L) in enumerate(zip(starts, plan.seg_lens)) if j not in plan.compressed | |
| for f in range(s0, s0 + L)] | |
| raw_rows = None | |
| if raw_idx: | |
| if raw_grid == (hh, ww): | |
| sel = feats.view(T, hw, -1)[torch.tensor(raw_idx, device=feats.device)].reshape(-1, C) | |
| else: | |
| src = raw_idx if frame_idx is None else [frame_idx[f] for f in raw_idx] | |
| sel = llm.reencode(frames[src], tok, raw_grid) | |
| raw_rows = llm.proj_orig(sel) | |
| sec = [int(round(t)) for t in ts] | |
| rows, counts, text, r = [], [], [], 0 | |
| n_blocks = sum(1 if j in plan.compressed else L for j, L in enumerate(plan.seg_lens)) | |
| b = 0 | |
| for j, (s, L) in enumerate(zip(starts, plan.seg_lens)): | |
| if j in plan.compressed: | |
| b += 1 | |
| end = "\n" if b == n_blocks else "" | |
| if comp == "qbase": | |
| text.append(f"Time:{sec[s]}s-{sec[s + L - 1]}s:{llm.cs}{DEFAULT_IMAGE_TOKEN}{llm.ce}" + end) | |
| else: | |
| m = s + (L - 1) // 2 | |
| text.append(f"Time {round(ts[m], 1)}s:{DEFAULT_IMAGE_TOKEN}" + (end or ",")) | |
| rows.append(group_rows[j]); counts.append(group_rows[j].shape[0]) | |
| else: | |
| for f in range(s, s + L): | |
| b += 1 | |
| text.append(f"Time {round(ts[f], 1)}s:{DEFAULT_IMAGE_TOKEN}" + ("\n" if b == n_blocks else ",")) | |
| rows.append(raw_rows[r * raw_hw:(r + 1) * raw_hw]); counts.append(raw_hw) | |
| r += 1 | |
| stats = dict(mode=plan.mode, hw=hw, raw_hw=raw_hw, n_groups=len(plan.seg_lens), | |
| n_compressed=len(plan.compressed), n_raw_frames=plan.n_raw_frames, vision_tokens=sum(counts)) | |
| return dict(rows=torch.cat(rows), counts=counts, text="".join(text), stats=stats) | |
| # ----------------------------------------------------------------------------- main | |
| def parse_jobs(s): | |
| jobs = [] | |
| for item in s.split(","): | |
| name, *budgets = item.split(":") | |
| assert name in VARIANTS, f"unknown variant {name}" | |
| jobs += [(name, int(b)) for b in budgets] | |
| return jobs | |
| def load_baseline(prefix, bench, budgets): | |
| out = {} | |
| for b in budgets: | |
| recs = {} | |
| for f in sorted(glob.glob(f"{prefix}_b{b}/{bench}/*.jsonl")): | |
| for line in open(f): | |
| if line.strip(): | |
| r = json.loads(line) | |
| recs[r["qid"]] = r | |
| out[b] = recs | |
| return out | |
| def main(): | |
| args = parse_args() | |
| jobs = parse_jobs(args.jobs) | |
| budgets = sorted({b for _, b in jobs}) | |
| outputs = {(v, b): os.path.join(args.out_root, f"{v}_b{b}", args.benchmark, | |
| f"shard{args.shard_id}of{args.num_shards}.jsonl") for v, b in jobs} | |
| base_recs = load_baseline(args.baseline_run, args.benchmark, budgets) | |
| samples = load_benchmark(args.benchmark, args.data_root) | |
| done = {} | |
| for job, path in outputs.items(): | |
| done[job] = {json.loads(l)["qid"] for l in open(path) if l.strip()} if os.path.exists(path) else set() | |
| groups = OrderedDict() | |
| for s in samples: | |
| groups.setdefault(s["video"], []).append(s) | |
| groups = sorted(groups.items())[args.shard_id::args.num_shards] | |
| if args.limit: | |
| groups = groups[: args.limit] | |
| todo = [(vid, {job: [s for s in ss if s["qid"] not in done[job]] for job in jobs}) for vid, ss in groups] | |
| todo = [(vid, {job: q for job, q in per.items() if q}) for vid, per in todo] | |
| todo = [(vid, per) for vid, per in todo if per] | |
| n_q = sum(len(q) for _, per in todo for q in per.values()) | |
| print(f"[ablate {args.benchmark} shard {args.shard_id}/{args.num_shards}] {len(jobs)} jobs: {len(todo)} videos / " | |
| f"{n_q} (question, job) pairs to go", flush=True) | |
| if not todo: | |
| return | |
| llm = BudgetedVideoLLM(args.model_path, "", budgets[-1], args.encoder_chunk_frames, "phase3", args.raw_max_tokens) | |
| # the baseline's decode: frames for the largest budget (B/8 of it); every job takes a subset | |
| loader = DataLoader(Videos(todo, 16384), batch_size=None, shuffle=False, | |
| num_workers=args.num_workers, prefetch_factor=1 if args.num_workers else None) | |
| fouts = {} | |
| for job, path in outputs.items(): | |
| os.makedirs(os.path.dirname(path), exist_ok=True) | |
| fouts[job] = open(path, "a") | |
| t0, n_done, n_reused = time.time(), 0, 0 | |
| tm = dict(wait=0.0, encode=0.0, build=0.0, answer=0.0) | |
| t_last = time.time() | |
| for item in loader: | |
| tm["wait"] += time.time() - t_last | |
| per = item["samples"] | |
| frames, ts, info, err = item.get("frames"), item.get("ts"), item.get("info"), item["error"] | |
| enc_cache = {} | |
| def features(idx, b): | |
| tok = bd.frame_tokens(*info["native_hw"], b, len(idx)) | |
| if tok not in enc_cache: | |
| t1 = time.time() | |
| enc_cache[tok] = llm.encode(frames, tok) | |
| torch.cuda.synchronize() | |
| tm["encode"] += time.time() - t1 | |
| feats, grid = enc_cache[tok] | |
| hw = grid[0] * grid[1] | |
| sel = torch.tensor(idx, device=feats.device) | |
| return tok, (feats.view(len(ts), hw, -1)[sel].reshape(-1, feats.shape[-1]), grid) | |
| for job in sorted(per, key=lambda j: (j[1], j[0])): | |
| vname, b = job | |
| v = VARIANTS[vname] | |
| qs = per[job] | |
| video, err_b, binfo, reuse = None, err, None, False | |
| if err is None: | |
| try: | |
| idx, capped = frame_indices(len(ts), b, v) | |
| eff = v if (capped or v["cap"] is None) else BASE # short videos keep the baseline layout | |
| reuse = eff is BASE and not args.no_reuse | |
| if not reuse: | |
| tok, enc = features(idx, b) | |
| t1 = time.time() | |
| grid = enc[1] | |
| raw_grid = llm.hybrid_raw.raw_frame_grid(*grid, eff["raw_tokens"] or args.raw_max_tokens) | |
| base_grid = llm.hybrid_raw.raw_frame_grid(*grid, args.raw_max_tokens) | |
| per_frame = enc[0].view(len(idx), grid[0] * grid[1], -1).float().mean(1) | |
| hw = grid[0] * grid[1] | |
| plan = plan_variant(per_frame, hw, raw_grid[0] * raw_grid[1], b, eff) | |
| if not args.no_reuse and not capped and raw_grid == base_grid: | |
| bplan = bd.plan_groups(per_frame, hw, b, raw_hw=base_grid[0] * base_grid[1]) | |
| reuse = (plan.seg_lens == bplan.seg_lens and plan.compressed == bplan.compressed | |
| and (eff["comp"] == "qbase" or not plan.compressed)) | |
| if not reuse: | |
| video = build(llm, frames, [ts[k] for k in idx], tok, enc, idx, plan, raw_grid, | |
| eff["comp"]) | |
| torch.cuda.synchronize() | |
| fps = min(bd.FPS, len(idx) / max(info["duration"], 1e-6)) | |
| binfo = dict(info, n_frames=len(idx), fps=round(fps, 4), | |
| fps_ok=fps >= bd.MIN_FPS - 1e-6, capped=capped) | |
| tm["build"] += time.time() - t1 | |
| except torch.cuda.OutOfMemoryError as e: | |
| err_b = repr(e) | |
| torch.cuda.empty_cache() | |
| if reuse and all(s["qid"] in base_recs[b] for s in qs): | |
| for s in qs: | |
| rec = dict(base_recs[b][s["qid"]], variant=vname, reused=True) | |
| fouts[job].write(json.dumps(rec, ensure_ascii=False) + "\n") | |
| fouts[job].flush() | |
| n_done += len(qs); n_reused += len(qs) | |
| continue | |
| assert not reuse, f"baseline records missing for {item['video']} at {b}" | |
| answers = [] | |
| if err_b is None: | |
| try: | |
| t1 = time.time() | |
| answers = llm.answer_many(video, [build_prompt(args.benchmark, s) for s in qs], | |
| args.max_new_tokens) | |
| tm["answer"] += time.time() - t1 | |
| except torch.cuda.OutOfMemoryError as e: | |
| torch.cuda.empty_cache() | |
| err_b = repr(e) | |
| for k, s in enumerate(qs): | |
| rec = dict(qid=s["qid"], video=os.path.basename(s["video"]), answer=s["answer"], meta=s["meta"], | |
| variant=vname, reused=False) | |
| if err_b is not None: | |
| rec.update(pred="", response="", error=err_b) | |
| else: | |
| resp, seq_len = answers[k] | |
| rec.update(pred=extract_choice(args.benchmark, resp, s["options"]), response=resp, | |
| seq_len=seq_len, video_info=binfo, **video["stats"]) | |
| fouts[job].write(json.dumps(rec, ensure_ascii=False) + "\n") | |
| fouts[job].flush() | |
| n_done += len(qs) | |
| del video | |
| del enc_cache | |
| torch.cuda.empty_cache() | |
| el = time.time() - t0 | |
| print(f" {n_done}/{n_q} pairs ({n_reused} reused), {el / 60:.1f} min, " | |
| f"eta {(n_q - n_done) * el / max(n_done, 1) / 60:.0f} min | " | |
| + " ".join(f"{k} {v / el:.0%}" for k, v in tm.items()), flush=True) | |
| t_last = time.time() | |
| for f in fouts.values(): | |
| f.close() | |
| print(f"[ablate {args.benchmark} shard {args.shard_id}] done: {n_done} pairs ({n_reused} reused) " | |
| f"in {(time.time() - t0) / 60:.1f} min", flush=True) | |
| if __name__ == "__main__": | |
| main() | |