rafmacalaba/data-use-annotate
0
1#!/usr/bin/env python32"""Build the annotation queue from the gliner config of3rafmacalaba/datause-ner, with camp2 Luna verdicts mapped onto every4entity span and scores from the singlepass bundle5(rafmacalaba/gliner-datause-catchall-singlepass).6 7gliner rows: tokenized_text + ner (catch-all DATA_MENTION token spans)8+ spans[] traceability (key, luna_label, text, source). Join is positional:9ner[i] <-> spans[i] (keys are sequential per passage; verified).10 11ctx = ' '.join(tokenized_text); char offsets are computed on that grid, so12they are exact by construction. Per mention:13 luna camp2 verdict, 1=keep / 0=drop14 head_score probe_score from the singlepass infer head (MPS)15 extractor_score GLiNER proposer score @0.1 matched on the inference grid16 band keep/confusion/drop via probe_labels.decide17 18Sampling: round-robin over origins, multi-mention passages first, span19budget --limit (default 520).20 21 uv run python human_labeling/build_gliner_queue.py [--limit 520] [--batch 8]22"""23 24import argparse25import json26import sys27from collections import defaultdict28from pathlib import Path29 30HERE = Path(__file__).resolve().parent31REPO = HERE.parent32sys.path.insert(0, str(REPO))33 34MIRROR = REPO / "hf_datause_ner"35OUT = HERE / "queue_gliner.json"36 37 38def token_char_offsets(tokens: list[str]) -> list[int]:39 offs, c = [], 040 for t in tokens:41 offs.append(c)42 c += len(t) + 143 return offs44 45 46def load_passages() -> list[dict]:47 rows = []48 for split in ("train", "val", "holdout"):49 for line in (MIRROR / f"gliner_{split}.jsonl").read_text().splitlines():50 if line.strip():51 r = json.loads(line)52 r["split"] = split53 rows.append(r)54 return rows55 56 57def main() -> None:58 ap = argparse.ArgumentParser()59 ap.add_argument("--model", default="rafmacalaba/gliner-datause-catchall-singlepass")60 ap.add_argument("--limit", type=int, default=520, help="span budget")61 ap.add_argument("--batch", type=int, default=8)62 a = ap.parse_args()63 64 import torch65 import torch.utils.data66 from training.singlepass_infer import default_device, load_bundle67 from training.probe_features_infer import char_to_infer_word68 from probe_labels import decide69 70 passages = load_passages()71 by_origin: dict[str, list[dict]] = defaultdict(list)72 for p in passages:73 if len(p.get("ner", [])) == len(p.get("spans", [])) and p["ner"]:74 by_origin[p["origin"]].append(p)75 origins = sorted(by_origin)76 for o in origins:77 by_origin[o].sort(key=lambda p: -min(len(p["ner"]), 2))78 ordered: list[dict] = []79 i = 080 while any(by_origin[o] for o in origins):81 o = origins[i % len(origins)]82 if by_origin[o]:83 ordered.append(by_origin[o].pop(0))84 i += 185 86 chosen, n_spans = [], 087 for p in ordered:88 if n_spans >= a.limit:89 break90 # dedupe identical spans (upstream extractor proposed the same span91 # twice under separate keys; 173 groups corpus-wide, 22 with92 # CONFLICTING luna verdicts). First key wins; conflicting duplicates93 # flag the survivor as luna_split for the UI.94 first, ner_u, spans_u = {}, [], []95 for i, (ner, s) in enumerate(zip(p["ner"], p["spans"])):96 k = (ner[0], ner[1])97 if k not in first:98 first[k] = len(spans_u)99 ner_u.append(ner)100 spans_u.append(dict(s))101 elif spans_u[first[k]].get("luna_label") != s.get("luna_label"):102 spans_u[first[k]]["luna_split"] = True103 q = dict(p, ner=ner_u, spans=spans_u)104 chosen.append(q)105 n_spans += len(ner_u)106 device = default_device()107 print(f"device={device} model={a.model} passages={len(chosen)} spans={n_spans}",108 flush=True)109 model, head, bundle = load_bundle(110 "rafmacalaba/gliner-datause-mentions-catch-all", a.model, device)111 thresholds = bundle.get("thresholds") or {}112 radius = bundle["radius"]113 114 INFER_LABELS = ["DATA_MENTION"]115 texts, char_maps = [], []116 for p in chosen:117 toks = p["tokenized_text"]118 texts.append(" ".join(toks))119 char_maps.append(token_char_offsets(toks))120 prepared = model.prepare_batch(texts, INFER_LABELS)121 collator = model.create_collator()122 123 def collate_fn(batch):124 return model.collate_batch(batch, prepared["entity_types"], collator)125 126 loader = torch.utils.data.DataLoader(127 prepared["input_x"], batch_size=a.batch, shuffle=False,128 collate_fn=collate_fn)129 130 v2o = prepared["valid_to_orig_idx"]131 n_probe = n_ext = n_skip = 0132 items: list[dict] = []133 134 def flush(p, ctx, char_offs, probes, extractors):135 mentions = []136 for i, (ner, s, probe, ext) in enumerate(137 zip(p["ner"], p["spans"], probes, extractors)):138 t0, t1 = ner[0], ner[1]139 start = char_offs[t0]140 end = char_offs[t1] + len(p["tokenized_text"][t1])141 mentions.append({142 "key": s["key"], "surface": " ".join(p["tokenized_text"][t0:t1 + 1]),143 "start": start, "end": end,144 "luna": s.get("luna_label"), "luna_split": s.get("luna_split", False),145 "head_score": probe, "extractor_score": ext,146 "band": decide(probe, p["origin"], thresholds),147 })148 bands = {m["band"] for m in mentions}149 pband = ("unscored" if "unscored" in bands else150 "confusion" if "confusion" in bands else151 "mixed" if len(bands) > 1 else bands.pop())152 items.append({153 "queue": "gliner", "origin": p["origin"], "split": p["split"],154 "ctx": ctx, "n": len(mentions), "band": pband,155 "mentions": mentions, "scored_by": a.model,156 })157 158 row = 0159 with torch.no_grad():160 for batch in loader:161 out = model.run_batch(batch, threshold=0.1, move_to_device=True)162 W = out.words_embedding.detach().float()163 mask = (out.mask.detach().cpu()164 if getattr(out, "mask", None) is not None else None)165 decoded = model.decode_batch(out, batch, threshold=0.1,166 flat_ner=True, multi_label=False)167 B = W.shape[0]168 for bi in range(B):169 vi = row + bi170 oi = v2o[vi]171 p = chosen[oi]172 if oi not in set(v2o): # unreachable; v2o IS the valid map173 continue174 w = W[bi].to(device)175 L = int(mask[bi].sum()) if mask is not None else w.shape[0]176 starts = prepared["start_token_map"][vi]177 proposals = [(int(sp.start), int(sp.end), float(sp.score))178 for sp in decoded[bi]]179 probes, extractors = [], []180 for ner in p["ner"]:181 # token grid -> char grid -> inference word grid182 t0, t1 = ner[0], ner[1]183 char_offs = char_maps[oi]184 cs = char_offs[t0]185 ce = char_offs[t1] + len(p["tokenized_text"][t1])186 g0, g1 = char_to_infer_word(starts, cs, ce)187 probe = ext = None188 if g1 < L and g0 < L:189 idx = torch.arange(g0, g1 + 1, device=device)190 parts = [w[g0], w[g1], w[idx].mean(dim=0)]191 if radius > 0:192 w0, w1 = max(0, g0 - radius), min(g1 + radius, L - 1)193 parts.append(w[w0:w1 + 1].mean(dim=0))194 probe = float(torch.sigmoid(195 head(torch.cat(parts).unsqueeze(0))).item())196 n_probe += 1197 hit = [sc for (ps, pe, sc) in proposals198 if ps == g0 and pe == g1]199 if hit:200 ext = hit[0]201 n_ext += 1202 probes.append(probe)203 extractors.append(ext)204 flush(p, texts[oi], char_maps[oi], probes, extractors)205 row += B206 207 OUT.write_text("\n".join(json.dumps(it) for it in items) + "\n")208 from collections import Counter209 bands = Counter(m["band"] for it in items for m in it["mentions"])210 lu = Counter(m["luna"] for it in items for m in it["mentions"])211 print(f"queue: passages={len(items)} spans={sum(it['n'] for it in items)} "212 f"probe_scored={n_probe} extractor_matched={n_ext} "213 f"unscored={n_skip} bands={dict(bands)} luna={dict(lu)} -> {OUT}",214 flush=True)215 216 217if __name__ == "__main__":218 main()