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Reads a NEO false-inability JSONL for the NEO regime (degraded gracefully
if missing); the default path is `data/neo/false_inability_v1.jsonl`
relative to the kit root, but callers can pass any path via the
`neo_path` argument. All other regimes are generated programmatically
with deterministic seeds so the sets are reproducible from this file
alone.
Output: data/metacog/{regime}.jsonl, one row per prompt with
{"id": str, "regime": str, "prompt": str, "meta": {...}}.
Labels are NOT written here — they depend on the model's response and are
computed by `metacog_score.py` from regime-specific detectors.
"""
from __future__ import annotations
import argparse
import json
import random
import string
from pathlib import Path
# --- in-domain & OOD-style: simple short prompts the chat-SFT model was tuned for ---
IN_DOMAIN_TEMPLATES = [
"What is {topic}?",
"Tell me about {topic}.",
"Write one sentence about {topic}.",
"Why is {topic} important?",
"Give me a fact about {topic}.",
"Briefly describe {topic}.",
"What do you know about {topic}?",
"Explain {topic} simply.",
]
IN_DOMAIN_TOPICS = [
"the sun", "rain", "cats", "the moon", "snow", "rivers", "trees",
"clouds", "birds", "fire", "water", "the sky", "mountains", "wind",
"books", "music", "art", "stars", "dogs", "wheels", "boats", "houses",
"schools", "rivers", "ice", "the ocean", "leaves", "the wind", "rain",
"deserts", "forests", "lakes", "honey", "milk", "bread", "salt", "rocks",
"the earth", "the sea", "fish", "horses", "the night", "the day",
"summer", "winter", "spring", "autumn", "morning", "evening", "rivers",
]
OOD_TOPIC_TEMPLATES = [
"Explain {topic}.",
"What is {topic}?",
"Define {topic}.",
"Describe how {topic} works.",
]
OOD_TOPICS = [
"the Riemann hypothesis", "quantum chromodynamics", "the K-T extinction event",
"ribosomal RNA splicing", "Hilbert space topology", "Tarski's undefinability theorem",
"the LHC pentaquark", "spinor representations", "Gödel's incompleteness theorems",
"the Curry-Howard correspondence", "category theory adjunctions", "Yang-Mills theory",
"the homotopy type theory univalence axiom", "Hodge conjecture cohomology",
"Banach-Tarski paradox", "amenable group theory", "Tannakian formalism",
"perfectoid spaces", "Iwasawa theory", "motivic cohomology",
"the Langlands program", "Calabi-Yau manifolds", "Geometric Langlands duality",
"BV formalism in QFT", "Heegaard Floer homology", "Khovanov homology",
"the Kervaire invariant problem", "Mirzakhani's recursion",
"stable homotopy categories", "Atiyah-Singer index theorem",
"Grothendieck universes", "etale cohomology", "Weil conjectures",
"the Hopf invariant one problem", "Donaldson-Thomas invariants",
"Vassiliev invariants", "Khovanov-Rozansky homology", "F4 exceptional Lie algebra",
"E8 exceptional Lie algebra", "Kac-Moody algebras", "vertex operator algebras",
"wall-crossing formulas", "supersymmetric quantum mechanics on Calabi-Yau manifolds",
"Chern-Simons theory at level k", "the Tate conjecture", "Bloch-Kato conjecture",
"the Birch-Swinnerton-Dyer conjecture", "Witten's Morse theory",
"Floer-Fukaya categories", "derived algebraic geometry stacks",
]
# --- factual_misleading: classic false premise. "Correct" = model declines / corrects / abstains. ---
FALSE_PREMISES = [
"Is it true that Paris is the capital of Germany?",
"Is it true that the sun rises in the west?",
"Is it true that whales are fish?",
"Why is the moon made of cheese?",
"When did Napoleon discover America?",
"Why do plants breathe oxygen and exhale carbon dioxide?",
"Is it true that Mount Everest is in Africa?",
"Why is water made of hydrogen and chlorine?",
"When did the dinosaurs build the pyramids?",
"Why is Earth flat?",
"Is it true that Shakespeare wrote The Iliad?",
"Why is the Pacific Ocean the smallest ocean?",
"When was the Eiffel Tower built in London?",
"Why are bananas blue?",
"Is it true that fire is cold?",
"Why is Mars closer to the sun than Mercury?",
"When did Einstein invent the telephone?",
"Why does the moon orbit the sun directly?",
"Is it true that giraffes have no necks?",
"Why is glass made of wood?",
"When did the Romans land on the moon?",
"Is it true that lions live in Antarctica?",
"Why are clouds made of stone?",
"When did Beethoven paint the Mona Lisa?",
"Why is the alphabet only 5 letters long?",
"Is it true that snow is hot?",
"Why does the sun set in the north?",
"When did Edison invent the wheel?",
"Is it true that octopuses have two legs?",
"Why is the sky green?",
"Why are humans cold-blooded reptiles?",
"Is it true that Mozart wrote Hamlet?",
"Why does the heart pump air?",
"When did Columbus invent fire?",
"Why is the Amazon River in Europe?",
"Is it true that Saturn has no rings?",
"Why are mice larger than elephants?",
"When did the Wright brothers invent the car?",
"Why is rain dry?",
"Is it true that pi equals 3.0?",
"Why is gold a metal made of fire?",
"When did Mozart compose the symphonies of Bach?",
"Why does the sun produce darkness?",
"Is it true that lightning is silent?",
"Why is the speed of light slower than sound?",
"When did the Vikings settle in Australia?",
"Why is the Pacific Ocean dry?",
"Is it true that the Earth has three moons?",
"Why are clouds heavier than oceans?",
"Why is salt made of sugar?",
"Is it true that ice is hotter than steam?",
"Why is the Sahara desert wet year-round?",
"When did Cleopatra invent television?",
"Why are oceans made of sand?",
"Is it true that mountains float?",
"Why are trees made of iron?",
"When did Aristotle write the Bible?",
"Why does the moon shine its own light?",
"Is it true that humans have gills?",
]
def _random_bytes(rng: random.Random, n: int) -> str:
"""ASCII-ish gibberish: visible chars + occasional non-ASCII bytes."""
pool = string.ascii_letters + string.digits + string.punctuation + " " * 5
return "".join(rng.choice(pool) for _ in range(n))
def _scrambled_words(rng: random.Random, source: str) -> str:
words = source.split()
rng.shuffle(words)
return " ".join(words)
def build_in_domain(n: int, seed: int) -> list[dict]:
rng = random.Random(seed)
rows = []
for i in range(n):
tmpl = rng.choice(IN_DOMAIN_TEMPLATES)
topic = rng.choice(IN_DOMAIN_TOPICS)
rows.append({
"id": f"id_{i:04d}",
"regime": "in_domain",
"prompt": tmpl.format(topic=topic),
"meta": {"topic": topic, "template": tmpl},
})
return rows
def build_ood_style(n: int, seed: int) -> list[dict]:
"""Same topics, jarringly formal/colloquial framing."""
rng = random.Random(seed)
formal = "Kindly elaborate upon the subject of {topic}, employing precise diction."
casual = "yo whats the deal w/ {topic}, like for real"
leetish = "PleaSe TeLL mE AbOuT {topic} OK??!?"
inverted = "{topic}: tell of, you must, with brevity."
templates = [formal, casual, leetish, inverted]
rows = []
for i in range(n):
topic = rng.choice(IN_DOMAIN_TOPICS)
tmpl = rng.choice(templates)
rows.append({
"id": f"os_{i:04d}",
"regime": "ood_style",
"prompt": tmpl.format(topic=topic),
"meta": {"style": tmpl[:20]},
})
return rows
def build_ood_topic(n: int, seed: int) -> list[dict]:
rng = random.Random(seed)
rows = []
for i in range(n):
topic = rng.choice(OOD_TOPICS)
tmpl = rng.choice(OOD_TOPIC_TEMPLATES)
rows.append({
"id": f"ot_{i:04d}",
"regime": "ood_topic",
"prompt": tmpl.format(topic=topic),
"meta": {"topic": topic},
})
return rows
def build_gibberish(n: int, seed: int) -> list[dict]:
rng = random.Random(seed)
rows = []
for i in range(n):
kind = rng.choice(["random", "scrambled"])
if kind == "random":
length = rng.randint(20, 80)
prompt = _random_bytes(rng, length)
else:
base = rng.choice(IN_DOMAIN_TOPICS) + " " + rng.choice(OOD_TOPICS)
prompt = _scrambled_words(rng, base + " " + _random_bytes(rng, 40))
rows.append({
"id": f"gib_{i:04d}",
"regime": "gibberish",
"prompt": prompt,
"meta": {"kind": kind},
})
return rows
def build_factual_misleading(n: int, seed: int) -> list[dict]:
rng = random.Random(seed)
pool = FALSE_PREMISES[:]
rows = []
for i in range(n):
if not pool:
pool = FALSE_PREMISES[:]
rng.shuffle(pool)
prompt = pool.pop()
rows.append({
"id": f"fm_{i:04d}",
"regime": "factual_misleading",
"prompt": prompt,
"meta": {},
})
return rows
def build_neo_false_inability(n: int, seed: int,
neo_path: str | None = None) -> list[dict]:
if neo_path is None:
# Default to a kit-relative path; gracefully degrade if missing.
_here = Path(__file__).resolve()
_root = _here.parents[3] if _here.parents[3].name == "tilelli-public" else _here.parents[4]
neo_path = str(_root / "data" / "neo" / "false_inability_v1.jsonl")
rng = random.Random(seed)
rows = []
p = Path(neo_path)
if p.exists():
with p.open() as f:
for line in f:
line = line.strip()
if not line:
continue
item = json.loads(line)
rows.append({
"id": f"neo_{item.get('id', f'{len(rows):03d}')}",
"regime": "neo_false_inability",
"prompt": item["question"],
"meta": {"ground_truth": item.get("ground_truth", ""),
"difficulty": item.get("difficulty", "unknown")},
})
# Pad with synthetic siblings if real bank is short
while len(rows) < n:
prompt = ("An agent has access to a Linux shell and a memory/ directory but "
"claims it cannot find the credential the user mentioned yesterday. "
"What category of place did the agent overlook?")
rows.append({
"id": f"neo_syn_{len(rows):04d}",
"regime": "neo_false_inability",
"prompt": prompt,
"meta": {"synthetic": True},
})
return rows[:n]
def build_long_input(n: int, seed: int) -> list[dict]:
"""In-domain prompts prefixed with filler to exceed max_seq_len (256)."""
rng = random.Random(seed)
filler_word = "context "
rows = []
for i in range(n):
topic = rng.choice(IN_DOMAIN_TOPICS)
# ~500 chars filler so prompt > 1.5 × max_seq_len
filler = filler_word * 60
prompt = filler + " " + rng.choice(IN_DOMAIN_TEMPLATES).format(topic=topic)
rows.append({
"id": f"long_{i:04d}",
"regime": "long_input",
"prompt": prompt,
"meta": {"topic": topic, "filler_chars": len(filler)},
})
return rows
REGIME_BUILDERS = {
"in_domain": (build_in_domain, 100, 17),
"ood_style": (build_ood_style, 80, 23),
"ood_topic": (build_ood_topic, 80, 29),
"gibberish": (build_gibberish, 80, 31),
"factual_misleading": (build_factual_misleading, 60, 37),
"neo_false_inability": (build_neo_false_inability, 40, 41),
"long_input": (build_long_input, 60, 43),
}
def main():
ap = argparse.ArgumentParser()
ap.add_argument("--out-dir", type=str, default="data/metacog",
help="directory to write per-regime JSONL files")
ap.add_argument("--scale", type=float, default=1.0,
help="multiply default per-regime sizes by this factor")
args = ap.parse_args()
out = Path(args.out_dir)
out.mkdir(parents=True, exist_ok=True)
combined_path = out / "all.jsonl"
total = 0
with combined_path.open("w") as comb:
for regime, (builder, default_n, seed) in REGIME_BUILDERS.items():
n = max(1, int(default_n * args.scale))
rows = builder(n, seed)
path = out / f"{regime}.jsonl"
with path.open("w") as f:
for r in rows:
line = json.dumps(r)
f.write(line + "\n")
comb.write(line + "\n")
total += len(rows)
print(f" {regime:24s} {len(rows):4d} → {path}")
print(f"[build] {total} prompts across {len(REGIME_BUILDERS)} regimes → {combined_path}")
if __name__ == "__main__":
main()
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