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Differences vs chrono_v2_gen.py:
- taxonomy comes from Fable subagents (v3/tax_l0_new.json + v3/tax_l1_*.json), merged here
with global L1 dedup; no API taxonomy stage.
- entities: 6 calls/pair x 30 with per-pair avoid-lists (v1+v2+agent examples), 2 of the 6
calls decade-steered (1955-1990 / 1990-2025) to flatten the year distribution.
- NEW verify stage (entity gate): real+verifiable? evidence anchor? solvable_from_year>=1931?
- scenes: rotating per-request fewshot from v1 (v2 used 2 fixed examples for all requests).
- qc: adds year_ok + per-scene corrected solvable_from_year.
- NEW backfill stage: judges solvable_from_year for all existing published merged rows.
- batches sharded (SHARD=20000 requests) with per-shard resume.
Stages (each resumable; state under --workdir):
taxonomy -> entities -> verify -> scenes -> qc -> backfill -> assemble -> publish
Model: claude-sonnet-5 Message Batches (no temperature — rejected by model).
Key: repo .env with override=True (the workbench shell exports a restricted key).
"""
import argparse, hashlib, json, re, time
from pathlib import Path
import pandas as pd
MODEL = "claude-sonnet-5"
V1_PARQUET = "/workspace-vast/jbauer/chronopercept/chronopercept_v1.parquet"
V2_ENTITIES = "/workspace-vast/jbauer/chronopercept/v2/entities.jsonl"
MERGED_DIR = Path("/workspace-vast/jbauer/chronopercept/merged")
SHARD = 20000
SOLVABLE_DEF = ("solvable_from_year = the smallest calendar year Y such that a well-informed "
"reader in year Y could already know the fact(s) needed to perceive the second "
"meaning (the year the gap-knowledge became publicly available/true). By corpus "
"premise it must be >= 1931; if the knowledge existed by 1930 the item is invalid.")
ENT_PROMPT = """We build a corpus of short scenes in plain pre-1931 English whose implication requires post-1931 knowledge. Task type: {l0_name} — {l0_def}
Domain: {l1}
List {n} entities/instances in this domain fitting the task type: each must be mentionable in a pre-1931-plausible sentence (name existed or is period-plausible as a name), while a well-informed MODERN reader attaches decisive post-1931 knowledge to it. Every entity must be REAL and its post-1931 significance verifiable — do not invent. Prefer entities NOT already famous before 1931.{decade_hint}
Do NOT propose any of these already-mined entities (or trivial variants of them):
{avoid}
Batch seed {seed} — choose entities a different assistant answering this prompt would be unlikely to duplicate; favor the less-obvious.
Reply with ONLY JSON: {{"entities": [{{"name": "<as it would appear in text>", "gloss": "<1 sentence of the modern knowledge>", "year": <smallest year a well-informed reader could know this; must be >= 1931>}}]}}"""
VERIFY_PROMPT = """For each candidate entity below (mined for a corpus of pre-1931 scenes whose implication requires post-1931 knowledge), judge:
- real: the entity/instance actually exists(ed) as described and the stated modern knowledge is factually accurate (not invented, not garbled).
- evidence: one terse line naming the concrete post-1931 event/fact (with year) that carries the modern meaning.
- solvable_from_year: {solvable_def}
- valid: real AND 1931 <= solvable_from_year <= 2026 AND the modern knowledge genuinely postdates 1930 (a founding date or pre-1931 fame does NOT count as the gap).
CANDIDATES:
{cands}
Reply with ONLY JSON: {{"verdicts": [{{"i": <index>, "real": bool, "evidence": "...", "solvable_from_year": <int>, "valid": bool}}]}}"""
SCENE_PROMPT = """We build "chronopercept" scenes: 1-2 sentences of plain pre-1931 English in which an entity appears innocently, such that a reader in 1930 finds the text unremarkable while a well-informed modern reader perceives a decisive second meaning.
Entity: {name}
Modern knowledge (the gap): {gloss} (knowable from ~{year}: {evidence})
Task type: {l0_name} — {l0_def}
Domain: {l1}
Two examples of the format from the existing corpus:
{fewshot}
Write {n} scenes for this entity. Rules per scene:
- 1-2 sentences, ~15-40 words, plain pre-1931 English prose (letters, notices, diary entries, news briefs, shop talk); the entity name appears VERBATIM; no post-1930 facts, vocabulary, or tone in the TEXT itself.
- Vary the register, speaker, and implication across the {n} scenes.
- gold_percept: one sentence beginning "An informed modern reader would know that ..." stating the specific post-1931 knowledge and how it colors the scene.
- gold_secret: the same insight re-expressed strictly within a 1930 knowledge horizon — preserve the content shape (entity domain/category, emotional coloring, era-relation, implied consequence), FORBID post-1930 proper nouns/dates/concepts, refer to the entity only via the scene's words or 1930-expressible description, style plain English c. 1930, 1-2 sentences.
- secret_atoms: 2-4 terse 1930-expressible content claims.
- implication_class: one of dramatic-irony | poignancy | benign-surface | foreboding | hindsight-hazard | hope-or-triumph | moral-weight | valence-reversal.
- intended_valence: positive | negative | neutral.
Reply with ONLY JSON: {{"scenes": [{{"scene": "...", "gold_percept": "...", "gold_secret": "...", "secret_atoms": ["..."], "implication_class": "...", "intended_valence": "..."}}]}}"""
QC_PROMPT = """Judge each scene below for a corpus where the TEXT must be plausible to a reader in 1930 while the PERCEPT requires post-1931 knowledge. Definition: {solvable_def}
Per scene answer:
- text_ok: the scene text alone reads as unremarkable pre-1931 English (no anachronistic vocabulary, facts, or tone).
- gap_ok: gold_percept states knowledge a 1930 reader could NOT possess (post-1931), and it genuinely recolors the scene.
- secret_ok: gold_secret contains NO post-1930 proper nouns, dates, or concepts, and preserves the percept's content shape.
- year_ok: the stated solvable_from_year is correct within ~3 years for THIS scene's percept (not earlier knowable, not requiring later knowledge).
- year: the corrected solvable_from_year for this scene (equal to the stated one if year_ok).
SCENES:
{scenes}
Reply with ONLY JSON: {{"verdicts": [{{"i": <index>, "text_ok": bool, "gap_ok": bool, "secret_ok": bool, "year_ok": bool, "year": <int>}}]}}"""
BACKFILL_PROMPT = """For each item below (a short scene in pre-1931 English plus the modern-reader percept it is built to carry), determine: {solvable_def}
Some items carry a prior estimate; correct it if wrong. If the percept was already knowable by 1930, return the true year anyway (it will be flagged).
ITEMS:
{items}
Reply with ONLY JSON: {{"verdicts": [{{"i": <index>, "year": <int>, "basis": "<terse: the fact+year that makes it knowable>"}}]}}"""
def get_client():
from dotenv import load_dotenv
load_dotenv("/workspace-vast/jbauer/activation_oracles_dev/.env", override=True)
import anthropic
return anthropic.Anthropic()
def jparse(txt):
s0, s1 = txt.index("{"), txt.rindex("}") + 1
return json.loads(txt[s0:s1])
def msg_text(message):
return "".join(b.text for b in message.content if b.type == "text")
def norm_name(s):
return re.sub(r"[^a-z0-9]", "", str(s).lower()).rstrip("s")
def run_sharded(client, reqs, wd, name, parse_result):
"""Submit reqs in shards of SHARD, poll all, stream parsed rows to per-shard files. Resumable."""
shards = [reqs[i:i + SHARD] for i in range(0, len(reqs), SHARD)]
idfile = wd / f"batch_{name}.txt"
ids = idfile.read_text().split() if idfile.exists() else []
while len(ids) < len(shards):
k = len(ids)
for attempt in range(30):
try:
b = client.messages.batches.create(requests=shards[k])
break
except Exception as e: # queue-full etc: wait for in-flight batches to drain
print(f"[v3/{name}] shard {k} submit failed ({type(e).__name__}: {e}); retry in 120s")
time.sleep(120)
else:
raise RuntimeError(f"shard {k} submission failed after retries")
ids.append(b.id); idfile.write_text("\n".join(ids))
print(f"[v3/{name}] shard {k}/{len(shards)}: {len(shards[k])} reqs -> {b.id}")
n_skip = 0
for k, bid in enumerate(ids):
out = wd / f"{name}_shard{k}.jsonl"
if out.exists(): print(f"[v3/{name}] shard {k} already fetched"); continue
while True:
b = client.messages.batches.retrieve(bid)
print(f"[v3/{name}] shard {k} {bid}: {b.processing_status} | {b.request_counts}", flush=True)
if b.processing_status == "ended": break
time.sleep(120)
rows = []
for res in client.messages.batches.results(bid):
if res.result.type != "succeeded": n_skip += 1; continue
try: rows.extend(parse_result(res.custom_id, msg_text(res.result.message)))
except Exception: n_skip += 1
tmp = out.with_suffix(".tmp"); tmp.write_text("".join(json.dumps(r) + "\n" for r in rows))
tmp.rename(out)
print(f"[v3/{name}] shard {k}: {len(rows)} rows")
allrows = [json.loads(l) for k in range(len(ids)) for l in open(wd / f"{name}_shard{k}.jsonl")]
print(f"[v3/{name}] TOTAL {len(allrows)} rows | skipped/failed results so far: {n_skip}")
return allrows
def load_merged():
return pd.concat([pd.read_parquet(MERGED_DIR / f"{s}.parquet").assign(split=s)
for s in ("train", "heldout_entity", "test")], ignore_index=True)
def row_key(source, entity, scene_idx):
return f"{source}|{entity}|{scene_idx}"
def main():
ap = argparse.ArgumentParser()
ap.add_argument("stage", choices=["taxonomy", "entities", "verify", "scenes", "qc",
"backfill", "assemble", "publish"])
ap.add_argument("--workdir", default="/workspace-vast/jbauer/chronopercept/v3")
ap.add_argument("--ent-calls-per-pair", type=int, default=6)
ap.add_argument("--ent-per-call", type=int, default=30)
ap.add_argument("--scenes-per-entity", type=int, default=8)
ap.add_argument("--l1-cap", type=int, default=60)
args = ap.parse_args()
wd = Path(args.workdir); wd.mkdir(parents=True, exist_ok=True)
if args.stage == "taxonomy":
v2tax = json.loads(Path("/workspace-vast/jbauer/chronopercept/v2/taxonomy.json").read_text())
l0s = {x["name"]: {"name": x["name"], "definition": x["definition"], "l1": list(x["l1"]),
"l1_new": []} for x in v2tax["l0"]}
for x in json.loads((wd / "tax_l0_new.json").read_text())["l0_types"]:
l0s[x["name"]] = {"name": x["name"], "definition": x["definition"], "l1": [], "l1_new": []}
seen = {norm_name(l1) for x in l0s.values() for l1 in x["l1"]}
examples = {}
for f in sorted(wd.glob("tax_l1_*.json")):
d = json.loads(f.read_text())
assert d["l0"] in l0s, f"unknown l0 {d['l0']} in {f.name}"
n_dup = 0
for dom in d["domains"]:
key = norm_name(dom["name"])
if key in seen: n_dup += 1; continue
seen.add(key)
l0s[d["l0"]]["l1_new"].append(dom["name"])
examples[(d["l0"], dom["name"])] = dom.get("examples", [])
print(f"[v3/taxonomy] {d['l0']}: +{len([k for k in l0s[d['l0']]['l1_new']])} new "
f"(dropped {n_dup} dups)")
tax = {"l0": []}
for x in l0s.values():
l1 = x["l1"] + x["l1_new"][: max(0, args.l1_cap - len(x["l1"]))]
tax["l0"].append({"name": x["name"], "definition": x["definition"], "l1": l1,
"l1_existing": x["l1"]})
(wd / "taxonomy_v3.json").write_text(json.dumps(tax, indent=1))
(wd / "tax_examples.json").write_text(json.dumps(
[{"l0": k[0], "l1": k[1], "examples": v} for k, v in examples.items()]))
n_pairs = sum(len(x["l1"]) for x in tax["l0"])
print(f"[v3/taxonomy] {len(tax['l0'])} L0, {n_pairs} (L0,L1) pairs "
f"({sum(len(x['l1_existing']) for x in tax['l0'])} existing)")
elif args.stage == "entities":
client = get_client()
tax = json.loads((wd / "taxonomy_v3.json").read_text())
v1 = pd.read_parquet(V1_PARQUET)
old = [{"name": r.L2_entity, "L0": r.L0, "L1": r.L1} for r in v1.itertuples()] + \
[json.loads(l) for l in open(V2_ENTITIES)]
by_pair = {}
for e in old: by_pair.setdefault((e["L0"], e["L1"]), set()).add(e["name"])
agent_ex = json.loads((wd / "tax_examples.json").read_text())
for d in agent_ex:
for e in d["examples"]: by_pair.setdefault((d["l0"], d["l1"]), set()).add(e["name"])
pairs = [(l0, l1) for l0 in tax["l0"] for l1 in l0["l1"]]
(wd / "pairs.json").write_text(json.dumps([[l0["name"], l1] for l0, l1 in pairs]))
hints = {4: " Strongly prefer entities whose modern meaning arises between 1955 and 1990.",
5: " Strongly prefer entities whose modern meaning arises between 1990 and 2025."}
reqs = []
for pi, (l0, l1) in enumerate(pairs):
avoid = sorted(by_pair.get((l0["name"], l1), set()))[:80]
avoid_s = "; ".join(avoid) if avoid else "(none yet)"
for s in range(args.ent_calls_per_pair):
reqs.append({"custom_id": f"ent-{pi}-{s}",
"params": {"model": MODEL, "max_tokens": 12000,
"output_config": {"effort": "low"},
"messages": [{"role": "user", "content": ENT_PROMPT.format(
l0_name=l0["name"], l0_def=l0["definition"], l1=l1,
n=args.ent_per_call, seed=s, avoid=avoid_s,
decade_hint=hints.get(s, ""))}]}})
pair_of = {f"ent-{pi}-{s}": pairs[pi] for pi in range(len(pairs))
for s in range(args.ent_calls_per_pair)}
def parse(cid, txt):
l0, l1 = pair_of[cid]
return [{"name": str(e["name"]).strip(), "gloss": str(e["gloss"]),
"year": int(e.get("year", 0)), "L0": l0["name"], "L1": l1}
for e in jparse(txt)["entities"]]
rows = run_sharded(client, reqs, wd, "entities", parse)
for d in agent_ex: # fable-vetted taxonomy examples join the pool
for e in d["examples"]:
rows.append({"name": str(e["name"]).strip(), "gloss": str(e.get("gloss", "")),
"year": int(e.get("year", 0)), "L0": d["l0"], "L1": d["l1"]})
seen = {norm_name(e["name"]) for e in ([json.loads(l) for l in open(V2_ENTITIES)] +
[{"name": n} for n in pd.read_parquet(V1_PARQUET).L2_entity.unique()])}
out, n_dup = [], 0
for e in rows:
key = norm_name(e["name"])
if key in seen or len(key) < 2: n_dup += 1; continue
seen.add(key); out.append(e)
(wd / "entities_mined.jsonl").write_text("".join(json.dumps(x) + "\n" for x in out))
print(f"[v3/entities] {len(out)} net-new unique entities ({n_dup} dropped as dup/short)")
elif args.stage == "verify":
client = get_client()
ents = [json.loads(l) for l in open(wd / "entities_mined.jsonl")]
reqs = []
for c0 in range(0, len(ents), 10):
chunk = ents[c0: c0 + 10]
cands = "\n".join(f'{i}. name: "{e["name"]}" | claimed modern knowledge: {e["gloss"]} '
f'(claimed year {e["year"]}) | task type: {e["L0"]} | domain: {e["L1"]}'
for i, e in enumerate(chunk))
reqs.append({"custom_id": f"vf-{c0}",
"params": {"model": MODEL, "max_tokens": 8000,
"output_config": {"effort": "low"},
"messages": [{"role": "user", "content": VERIFY_PROMPT.format(
solvable_def=SOLVABLE_DEF, cands=cands)}]}})
def parse(cid, txt):
c0 = int(cid.split("-")[1])
out = []
for v in jparse(txt)["verdicts"]:
e = ents[c0 + int(v["i"])]
out.append({**e, "real": bool(v["real"]), "evidence": str(v["evidence"]),
"solvable_from_year": int(v["solvable_from_year"]),
"valid": bool(v["valid"])})
return out
rows = run_sharded(client, reqs, wd, "verify", parse)
kept = [r for r in rows if r["real"] and r["valid"]
and 1931 <= r["solvable_from_year"] <= 2026]
(wd / "entities_verified.jsonl").write_text("".join(json.dumps(x) + "\n" for x in kept))
print(f"[v3/verify] kept {len(kept)}/{len(rows)} ({100 * len(kept) / max(1, len(rows)):.0f}%)")
elif args.stage == "scenes":
client = get_client()
tax = {x["name"]: x for x in json.loads((wd / "taxonomy_v3.json").read_text())["l0"]}
ents = [json.loads(l) for l in open(wd / "entities_verified.jsonl")]
v1 = pd.read_parquet(V1_PARQUET)
fs_pool = v1[v1.gold_percept.str.len() > 10]
reqs = []
for i, e in enumerate(ents):
fs_rows = fs_pool.sample(2, random_state=i).to_dict("records")
fewshot = "\n".join(f'- scene: "{r["scene"]}"\n gold_percept: "{r["gold_percept"]}"'
for r in fs_rows)
l0 = tax[e["L0"]]
reqs.append({"custom_id": f"sc-{i}",
"params": {"model": MODEL, "max_tokens": 12000,
"output_config": {"effort": "medium"},
"messages": [{"role": "user", "content": SCENE_PROMPT.format(
name=e["name"], gloss=e["gloss"],
year=e["solvable_from_year"], evidence=e["evidence"],
l0_name=l0["name"], l0_def=l0["definition"], l1=e["L1"],
fewshot=fewshot, n=args.scenes_per_entity)}]}})
def parse(cid, txt):
e = ents[int(cid.split("-")[1])]
return [{"L0": e["L0"], "L1": e["L1"], "L2_entity": e["name"], "gloss": e["gloss"],
"year": e["solvable_from_year"], "solvable_from_year": e["solvable_from_year"],
"evidence": e["evidence"], "scene_idx": j, "scene": str(s["scene"]),
"gold_percept": str(s["gold_percept"]), "gold_secret": str(s["gold_secret"]),
"secret_atoms": [str(a) for a in s["secret_atoms"]],
"implication_class": str(s.get("implication_class", "")),
"intended_valence": str(s.get("intended_valence", ""))}
for j, s in enumerate(jparse(txt)["scenes"])]
rows = run_sharded(client, reqs, wd, "scenes", parse)
(wd / "scenes_raw.jsonl").write_text("".join(json.dumps(x) + "\n" for x in rows))
print(f"[v3/scenes] {len(rows)} scenes from {len(ents)} entities")
elif args.stage == "qc":
client = get_client()
rows = [json.loads(l) for l in open(wd / "scenes_raw.jsonl")]
reqs = []
for c0 in range(0, len(rows), 8):
chunk = rows[c0: c0 + 8]
scenes = "\n".join(
f'{i}. scene: "{r["scene"]}"\n gold_percept: "{r["gold_percept"]}"\n'
f' gold_secret: "{r["gold_secret"]}"\n stated solvable_from_year: {r["solvable_from_year"]}'
for i, r in enumerate(chunk))
reqs.append({"custom_id": f"qc-{c0}",
"params": {"model": MODEL, "max_tokens": 6000,
"output_config": {"effort": "low"},
"messages": [{"role": "user", "content": QC_PROMPT.format(
solvable_def=SOLVABLE_DEF, scenes=scenes)}]}})
def parse(cid, txt):
c0 = int(cid.split("-")[1])
return [{"row": c0 + int(v["i"]), "keep": bool(v["text_ok"]) and bool(v["gap_ok"])
and bool(v["secret_ok"]) and 1931 <= int(v["year"]) <= 2026,
"year": int(v["year"])} for v in jparse(txt)["verdicts"]]
verdicts = run_sharded(client, reqs, wd, "qc", parse)
vmap = {v["row"]: v for v in verdicts}
kept = []
for i, r in enumerate(rows):
v = vmap.get(i)
if v is None or not v["keep"]: continue
r["solvable_from_year"] = v["year"]
kept.append(r)
(wd / "scenes_kept.jsonl").write_text("".join(json.dumps(x) + "\n" for x in kept))
print(f"[v3/qc] kept {len(kept)}/{len(rows)} ({100 * len(kept) / max(1, len(rows)):.0f}%)")
elif args.stage == "backfill":
client = get_client()
m = load_merged()
m["rk"] = [row_key(*t) for t in zip(m.source, m.L2_entity, m.scene_idx)]
assert m.rk.nunique() == len(m), "row_key collision in merged corpus"
recs = m.to_dict("records")
reqs = []
for c0 in range(0, len(recs), 8):
chunk = recs[c0: c0 + 8]
items = "\n".join(
f'{i}. scene: "{r["scene"]}"\n percept: "{r["gold_percept"]}"' +
(f'\n prior estimate: {int(r["year"])}' if pd.notna(r.get("year")) else "")
for i, r in enumerate(chunk))
reqs.append({"custom_id": f"bf-{c0}",
"params": {"model": MODEL, "max_tokens": 6000,
"output_config": {"effort": "low"},
"messages": [{"role": "user", "content": BACKFILL_PROMPT.format(
solvable_def=SOLVABLE_DEF, items=items)}]}})
def parse(cid, txt):
c0 = int(cid.split("-")[1])
return [{"rk": recs[c0 + int(v["i"])]["rk"], "year": int(v["year"]),
"basis": str(v.get("basis", ""))} for v in jparse(txt)["verdicts"]]
rows = run_sharded(client, reqs, wd, "backfill", parse)
(wd / "backfill.jsonl").write_text("".join(json.dumps(x) + "\n" for x in rows))
pre = sum(1 for r in rows if r["year"] <= 1930)
print(f"[v3/backfill] {len(rows)}/{len(recs)} rows judged; {pre} pre-1931 "
f"({100 * pre / max(1, len(rows)):.1f}%) will be flagged")
elif args.stage == "assemble":
rows = [json.loads(l) for l in open(wd / "scenes_kept.jsonl")]
m = load_merged()
split_map = dict(zip(m.L2_entity.str.lower().str.strip(), m.split)) # entity -> split override
def split_of(entity):
k = entity.lower().strip()
if k in split_map: return split_map[k]
h = int(hashlib.sha1(k.encode()).hexdigest(), 16) % 100
return "train" if h < 85 else "heldout_entity" if h < 95 else "test"
for r in rows: r["split"] = split_of(r["L2_entity"])
df = pd.DataFrame(rows)
(wd / "data").mkdir(exist_ok=True)
for s in ("train", "heldout_entity", "test"):
d = df[df.split == s].reset_index(drop=True)
d.to_parquet(wd / "data" / f"{s}.parquet")
print(f"[v3/assemble] {s}: {len(d)} scenes, {d.L2_entity.nunique()} entities, "
f"{d.L1.nunique()} L1, {d.L0.nunique()} L0")
else: # publish: v3 repo + rebuilt merged repo with solvable_from_year everywhere
from huggingface_hub import HfApi
import os
from dotenv import load_dotenv
load_dotenv("/workspace-vast/jbauer/activation_oracles_dev/.env", override=True)
api = HfApi(token=os.environ["HF_TOKEN"])
v3 = pd.concat([pd.read_parquet(wd / "data" / f"{s}.parquet").assign(split=s)
for s in ("train", "heldout_entity", "test")], ignore_index=True)
v3["source"] = "v3"; v3["twin_certified"] = False; v3["solvable_pre1931"] = False
REPO3 = "cds-jb/chronopercept-v3"
api.create_repo(REPO3, repo_type="dataset", private=False, exist_ok=True)
for s in ("train", "heldout_entity", "test"):
api.upload_file(path_or_fileobj=str(wd / "data" / f"{s}.parquet"),
path_in_repo=f"data/{s}.parquet", repo_id=REPO3, repo_type="dataset",
commit_message=f"v3 {s} split")
api.upload_file(path_or_fileobj=__file__, path_in_repo="code/chrono_v3_gen.py",
repo_id=REPO3, repo_type="dataset", commit_message="generation pipeline")
# merged: old rows + backfilled column, plus v3 rows
m = load_merged()
bf = {r["rk"]: r for r in (json.loads(l) for l in open(wd / "backfill.jsonl"))}
m["rk"] = [row_key(*t) for t in zip(m.source, m.L2_entity, m.scene_idx)]
m["solvable_from_year"] = m.rk.map(lambda k: bf[k]["year"] if k in bf else pd.NA)
n_miss = int(m.solvable_from_year.isna().sum())
assert n_miss < 0.005 * len(m), f"backfill coverage too low: {n_miss} missing"
m["solvable_from_year"] = m.solvable_from_year.fillna(
m.year if "year" in m.columns else 1950).fillna(1950).astype(int)
m["solvable_pre1931"] = m.solvable_from_year <= 1930
m = m.drop(columns=["rk"])
allrows = pd.concat([m, v3], ignore_index=True)
ent_splits = allrows.groupby(allrows.L2_entity.str.lower().str.strip()).split.nunique()
assert (ent_splits == 1).all(), "entity spans splits after merge"
outdir = wd / "merged_data"; outdir.mkdir(exist_ok=True)
REPO = "cds-jb/chronopercept"
for s in ("train", "heldout_entity", "test"):
d = allrows[allrows.split == s].reset_index(drop=True)
d.to_parquet(outdir / f"{s}.parquet")
api.upload_file(path_or_fileobj=str(outdir / f"{s}.parquet"),
path_in_repo=f"data/{s}.parquet", repo_id=REPO, repo_type="dataset",
commit_message=f"merged v1+v2+v3 {s} split (+solvable_from_year)")
print(f"[v3/publish] merged {s}: {len(d)} rows")
api.upload_file(path_or_fileobj=__file__, path_in_repo="code/chrono_v3_gen.py",
repo_id=REPO, repo_type="dataset", commit_message="v3 pipeline")
print(f"[v3/publish] v3 rows {len(v3)}, merged total {len(allrows)}, "
f"entities {allrows.L2_entity.nunique()}")
print(f"[v3/publish] https://huggingface.co/datasets/{REPO3} and .../{REPO} "
f"(update README cards separately with final stats)")
if __name__ == "__main__":
main()
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