"""Consolidate every OASIS run into one Parquet dataset indexed by run_id and step. Each simulation currently lives as .db + .metadata.json + _chats.jsonl. Step is NOT stored in the database; it lives only in the chat sidecar, one row per agent activation. Validated on every run: the agent's k-th status='ok' activation corresponds to its k-th action in `trace` ordered by time, so step is recovered EXACTLY (not inferred). Runs where that alignment fails are still emitted, with step = NULL and a flag, rather than silently guessed. Impressions are normalised. In the raw databases each `trace.refresh` event embeds the full text of all 20 slate posts, which is ~48% of every file (17.9 MB of a 37.6 MB run). Here an impression is just (run_id, step, viewer_agent_id, post_id); post text is stored once in `posts`. That is a ~150x reduction on the largest table. Tables written (one Parquet file each): runs run_id, experiment_type, model_default, n_agents, n_initial, steps, join_step, created_at, source_path, step_alignment_ok, step_coverage agents run_id, agent_id, user_id, model, persona, join_step posts run_id, post_id, agent_id, model, step, created_at, content comments run_id, comment_id, post_id, agent_id, model, step, created_at, content, is_cross_model impressions run_id, step, viewer_agent_id, post_id, slot (0-based position in the 20-slot slate) actions run_id, agent_id, step, action, created_at """ import sqlite3, glob, os, re, json, argparse, collections import pandas as pd ROOT = os.environ.get("OASIS_ROOT", ".") # directory holding runs/ (and attractor_rl/eval_runs*/) def agent_models(meta_path): try: j = json.load(open(meta_path)) except Exception: return None, {} am = j.get("agent_model_map") or {} out = {} for k, v in am.items(): try: k = int(k) except Exception: pass if isinstance(v, dict): out[k] = (v.get("model", "").split("/")[-1], v.get("join_step")) else: out[k] = (str(v).split("/")[-1], None) return j, out def steps_for(db, u2a): """Two per-agent step sequences from the chat sidecar, in file order: ok -- steps of status='ok' activations (incl. step 0). The k-th one is the agent's k-th ACTION (post or comment) in time order. ref -- steps of every activation with step > 0, any status. The k-th one is the agent's k-th `refresh` row in trace: exhausted activations still refresh, and the step-0 intro post is written without a refresh. Returns (ok, ref) or None if there is no sidecar.""" ch = db.replace(".db", "_chats.jsonl") if not os.path.exists(ch): return None ok = collections.defaultdict(list); ref = collections.defaultdict(list) try: for line in open(ch): try: d = json.loads(line) except Exception: continue ag = d.get("agent_id"); st = d.get("step") if d.get("status") == "ok": ok[ag].append(st) try: if int(st) > 0: ref[ag].append(st) except Exception: pass except Exception: return None return ok, ref def main(): ap = argparse.ArgumentParser() ap.add_argument("--out", default="divdata") ap.add_argument("--limit", type=int, default=0) a = ap.parse_args() os.makedirs(a.out, exist_ok=True) dbs = sorted(glob.glob(os.path.join(ROOT, "runs/**/*.db"), recursive=True)) + \ sorted(glob.glob(os.path.join(ROOT, "attractor_rl/eval_runs*/**/*.db"), recursive=True)) if a.limit: dbs = dbs[:a.limit] R, A, P, C, I, X = [], [], [], [], [], [] aligned = misaligned = skipped = 0 for idx, db in enumerate(dbs): if os.path.exists(db.replace(".db", "_checkpoint.json")): skipped += 1; continue meta_p = db.replace(".db", ".metadata.json") if not os.path.exists(meta_p): skipped += 1; continue meta, am = agent_models(meta_p) if not am: skipped += 1; continue run_id = os.path.relpath(db, ROOT)[:-3].replace("/", "__") try: c = sqlite3.connect(db) users = list(c.execute("SELECT user_id, agent_id, user_name FROM user")) u2a = {u: ag for u, ag, _ in users} a2u = {ag: u for u, ag, _ in users} persona = {ag: nm for _, ag, nm in users} _sq = steps_for(db, u2a) seq, rseq = (_sq if _sq else (None, None)) trace = list(c.execute( "SELECT user_id, action, created_at FROM trace " "WHERE action IN ('create_post','create_comment') ORDER BY created_at, rowid")) per_agent_actions = collections.defaultdict(list) for uid, act, ts in trace: ag = u2a.get(uid) if ag is not None: per_agent_actions[ag].append((act, ts)) # PER-AGENT alignment. An agent's k-th successful activation is its k-th # action in time order, so when the two counts agree the step is EXACT. A # single stray action (seen in ~half the older sweeps: one agent off by one, # e.g. 380 activations vs 379 actions) must not discard the other 19 agents, # so alignment is decided per agent and unalignable agents get step = NULL. step_of = {} n_ok = n_tot = 0 for ag, acts in per_agent_actions.items(): s_ag = (seq or {}).get(ag, []) n_tot += len(acts) if len(s_ag) == len(acts): n_ok += len(acts) for i, _ in enumerate(acts): step_of[(ag, i)] = s_ag[i] ok = n_tot > 0 and n_ok == n_tot aligned += ok; misaligned += (not ok) cover = (n_ok / n_tot) if n_tot else 0.0 for ag, (model, js) in am.items(): A.append(dict(run_id=run_id, agent_id=ag, user_id=a2u.get(ag), model=model, persona=persona.get(ag), join_step=js)) # Posts and comments are merged into ONE time-ordered stream per agent before # indexing. (An earlier version indexed all posts, then all comments, which # mis-assigned step for every agent that had both -- see BUILD_LOG.) events = [("post", pid, None, uid, ts, content) for pid, uid, ts, content in c.execute( "SELECT post_id, user_id, created_at, content FROM post")] + \ [("comment", cid, pid, uid, ts, content) for cid, pid, uid, ts, content in c.execute( "SELECT comment_id, post_id, user_id, created_at, content FROM comment")] events.sort(key=lambda e: (e[4], e[1])) seen = collections.Counter() owner, ownmodel = {}, {} for kind, _id, pid, uid, ts, content in events: ag = u2a.get(uid); m = am.get(ag, ("", None))[0] if ag is not None else None st = step_of.get((ag, seen[ag])) seen[ag] += 1 if kind == "post": owner[_id] = ag; ownmodel[_id] = m P.append(dict(run_id=run_id, post_id=_id, agent_id=ag, model=m, step=st, created_at=ts, content=content)) else: om = ownmodel.get(pid) C.append(dict(run_id=run_id, comment_id=_id, post_id=pid, agent_id=ag, model=m, step=st, created_at=ts, content=content, is_cross_model=(bool(om and m and om != m) if om and m else None))) # impressions: normalised out of trace.refresh ref = list(c.execute("SELECT user_id, created_at, info FROM trace WHERE action='refresh' ORDER BY created_at, rowid")) nref = collections.Counter(u2a.get(uid) for uid, _, _ in ref) rseen = collections.Counter() for uid, ts, info in ref: ag = u2a.get(uid) try: d = json.loads(info) except Exception: continue st = None r_ag = (rseq or {}).get(ag, []) k = rseen[ag] if len(r_ag) == nref[ag] and k < len(r_ag): st = r_ag[k] rseen[ag] += 1 for slot, p in enumerate(d.get("posts", []) or []): pid = p.get("post_id") if pid is not None: I.append(dict(run_id=run_id, step=st, viewer_agent_id=ag, post_id=pid, slot=slot)) aseen = collections.Counter() for uid, act, ts in trace: ag = u2a.get(uid) X.append(dict(run_id=run_id, agent_id=ag, step=step_of.get((ag, aseen[ag])), action=act, created_at=ts)) aseen[ag] += 1 c.close() R.append(dict(run_id=run_id, experiment_type=(meta or {}).get("experiment_type"), model_default=(meta or {}).get("model_default"), n_agents=(meta or {}).get("n_agents"), n_initial=(meta or {}).get("n_initial"), steps=(meta or {}).get("steps"), join_step=(meta or {}).get("join_step"), created_at=(meta or {}).get("created_at"), source_path=os.path.relpath(db, ROOT), step_alignment_ok=bool(ok), step_coverage=round(cover, 4))) except Exception: skipped += 1 continue if (idx + 1) % 100 == 0: print(f" ...{idx+1}/{len(dbs)} runs={len(R)} posts={len(P)} comments={len(C)} impressions={len(I)}", flush=True) print(f"\n runs kept={len(R)} skipped={skipped} step-aligned={aligned} misaligned={misaligned}") for name, rows in (("runs", R), ("agents", A), ("posts", P), ("comments", C), ("impressions", I), ("actions", X)): df = pd.DataFrame(rows) p = os.path.join(a.out, f"{name}.parquet") df.to_parquet(p, index=False, compression="zstd") print(f" {name:12s} {len(df):9d} rows {os.path.getsize(p)/1e6:8.1f} MB") if __name__ == "__main__": main()