R7/RQ3: executor-wiring stone — offline selector DVs + calibration gate

Wire the RQ3 churn-resilience companion (severable follow-on; RQ3 frozen in its
own prereg) as SYNTHETIC/OFFLINE build + calibration only — no confirmatory
battery run.

- battery: enumerate_rq3_cells()/rq3_schedule() add selector in {static(control),
  random, agent} at 1house/bridge-off under pinned churn kp=30/steps=20, kept
  SEPARATE so the frozen 6-cell lead lattice stays byte-identical.
- executor: run_rq3_cell_run collects offline selector DVs (throughput-retention,
  drops/rebuilds, rebuild-interval gaps); added-latency is live-only (offline path
  records None, never fabricated); run_rq3_battery(live=False) hard-raises.
- analysis/rq3_calibration: DRY offline gate. Churn-bites (1589 drops/1576
  rebuilds) + rebuild-classifier calibration green with real teeth — churned(kp30)
  vs baseline(kp5) AUC 0.926 separable, baseline-vs-baseline null 0.518 blind.
  Classifier scored on the PER-RUN mean inter-rebuild gap (the confirmatory
  grouping unit); the frozen instrument (rebuild_interval_gaps,
  rebuild_classifier_auc) is untouched, no fit to confirmatory data.

HARD HOLD: no RQ3 confirmatory battery (live added-latency is operator+grid-gated).
Lead prereg SHA f22331a72e… untouched; containment intact (synthetic/offline, $0
local Ollama, frontier arm inert); worktree-only.

Tests: tests/test_sor_rq3_wiring.py 9 passed; full SOR suite 194 passed.

Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com>
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"""RQ3 companion instrument-validation gate (`rq3-companion-run-brief.md` §3-4).
DRY, SYNTHETIC-ONLY, OFFLINE calibration of the churn-resilient selector arm. It
replays the pinned churn schedule under each selector strategy via the pure
``run_selection`` (no engine, no traffic, no confirmatory record read) and reports
the RQ3 GO gates that BLOCK the confirmatory battery:
1. **Churn-bites gate** (§4). At the pinned ``kill_prob_pct = 30``, ``steps = 20``
the churn must actually bite — circuits genuinely lose hops and rebuild
(non-zero drops/rebuilds). If the drop rate were trivially zero, the
throughput-retention and rebuild-classifier tests would be degenerate → STOP.
2. **Rebuild-classifier calibration gate** (§3.3). Calibrated on labelled control
signals BEFORE the confirmatory cells: churned (``kp=30``) vs the LOW-CHURN
baseline (``kp=5``) must be separable on the rebuild-interval-gap signal
(AUC≈1), while baseline-vs-baseline must be indistinguishable (AUC≈0.5). Not
fit to confirmatory data.
3. **Agent-selector reproducibility** (§4). Same seed + churn history → byte-
identical selector decisions (the deterministic local heuristic arm here; the
Ollama confirmatory arm is reproducible via its committed decision-cache
replay, exercised in the unit tests — no network in this gate).
4. **Entropy calibration (inherited)** — Shannon plug-in of N equiprobable
senders is exactly log2(N).
HARD HOLD: the confirmatory RQ3 battery does not run until items 1 AND 2 are green
(brief §3-4); this module surfaces, it does not run the battery.
"""
from __future__ import annotations
import hashlib
import json
import math
import statistics
import sys
from typing import Dict, List
from cmd_chat.sor.analysis.detectors import shannon_entropy_bits
from cmd_chat.sor.analysis.metrics import rebuild_classifier_auc, throughput_retention
from cmd_chat.sor.battery import derive_seed, enumerate_rq3_cells
from cmd_chat.sor.churn import churn_schedule
from cmd_chat.sor.executor import _rq3_pool, rebuild_interval_gaps
from cmd_chat.sor.selector import run_selection
R_DRY = 30 # runs/regime for the dry calibration (matches §6 R)
POOL_SIZE = 8 # 1-house consenting-node pool (> hops, with churn headroom)
HOPS = 3
CHURN_KP = 30 # pinned confirmatory churn (run-brief §2(B))
CHURN_STEPS = 20 # pinned churn horizon
BASELINE_KP = 5 # LOW-CHURN baseline for the classifier (run-brief §3.3)
def _pool(size: int = POOL_SIZE) -> List[str]:
return [f"1house/node{ix:02d}" for ix in range(size)]
def _cal_seed(tag: str, i: int) -> int:
return int.from_bytes(hashlib.sha256(f"rq3-cal|{tag}|{i}".encode()).digest()[:8], "big")
def _replay(seed: int, kp: int, strategy: str = "static", *, steps: int = CHURN_STEPS,
pool_size: int = POOL_SIZE, hops: int = HOPS):
nodes = _pool(pool_size)
sched = churn_schedule(seed, nodes, steps, kill_prob_pct=kp)
return run_selection(seed, nodes, hops, sched, strategy=strategy)
# --- Item 1: churn-bites ---------------------------------------------------- #
def churn_bites_gate(r: int = R_DRY) -> Dict:
"""At the pinned kp=30/steps=20, confirm the churn bites across every RQ3 cell:
non-zero drops AND rebuilds, and a healthy fraction of runs that lose a hop."""
per_cell: List[Dict] = []
total_drops = 0
total_rebuilds = 0
for cell in enumerate_rq3_cells():
kp = int(cell.factors["churn_kill_prob_pct"])
steps = int(cell.factors["churn_steps"])
strategy = cell.factors["selector"]
drops = 0
rebuilds = 0
runs_with_drops = 0
retentions: List[float] = []
for ri in range(r):
seed = derive_seed(cell.cell_id, ri)
res = _replay(seed, kp, strategy=strategy, steps=steps)
drops += res.drops
rebuilds += len(res.rebuilds)
runs_with_drops += 1 if res.drops > 0 else 0
retentions.append(throughput_retention(res))
total_drops += drops
total_rebuilds += rebuilds
per_cell.append({
"cell_id": cell.cell_id,
"strategy": strategy,
"total_drops": drops,
"total_rebuilds": rebuilds,
"fraction_runs_with_drops": runs_with_drops / r,
"mean_throughput_retention": statistics.fmean(retentions),
})
bites = all(c["total_drops"] > 0 and c["total_rebuilds"] > 0
and c["fraction_runs_with_drops"] >= 0.5 for c in per_cell)
return {
"kill_prob_pct": CHURN_KP,
"steps": CHURN_STEPS,
"total_drops": total_drops,
"total_rebuilds": total_rebuilds,
"per_cell": per_cell,
"pass": bool(total_drops > 0 and total_rebuilds > 0 and bites),
}
# --- Item 2: rebuild-classifier calibration --------------------------------- #
def _per_run_gap_signal(tag: str, kp: int, r: int, strategy: str = "static") -> List[float]:
"""Per-run rebuild-interval signal: the MEAN inter-rebuild gap for each run
(the confirmatory grouping unit — cf. the RQ2-P3 gate, ``per-run``). Pooling
raw integer gaps across runs would flood the AUC with tied low integers and
conflate within- and between-run variation, depressing a genuine signal; per-
run aggregation is the correct unit and matches how the confirmatory battery
groups observations. The frozen instrument (``rebuild_interval_gaps``,
``rebuild_classifier_auc``) is untouched — this is harness grouping only.
Runs with <2 rebuilds yield no gap and are omitted (no fabricated interval)."""
signal: List[float] = []
for i in range(r):
res = _replay(_cal_seed(tag, i), kp, strategy=strategy)
gaps = rebuild_interval_gaps(res)
if gaps:
signal.append(statistics.fmean(gaps))
return signal
def rebuild_classifier_gate(r: int = R_DRY) -> Dict:
"""Churned (kp=30) vs low-churn baseline (kp=5) must be separable on the per-run
rebuild-interval-gap signal (AUC≈1); baseline-vs-baseline must not (AUC≈0.5).
Calibrated on labelled control signals, never fit to confirmatory cells."""
churned = _per_run_gap_signal("churned", CHURN_KP, r)
baseline = _per_run_gap_signal("baseline", BASELINE_KP, r)
# Two disjoint baseline halves for the null (same regime → indistinguishable).
base_a = _per_run_gap_signal("baseline-A", BASELINE_KP, r)
base_b = _per_run_gap_signal("baseline-B", BASELINE_KP, r)
auc_sep = rebuild_classifier_auc(churned, baseline)
auc_null = rebuild_classifier_auc(base_a, base_b)
separable = auc_sep >= 0.90
null_ok = abs(auc_null - 0.5) <= 0.15
return {
"churned_kill_prob_pct": CHURN_KP,
"baseline_kill_prob_pct": BASELINE_KP,
"grouping_unit": "per-run mean inter-rebuild gap",
"n_churned_runs": len(churned),
"n_baseline_runs": len(baseline),
"auc_churned_vs_baseline": auc_sep,
"auc_baseline_vs_baseline": auc_null,
"separable_churned_vs_baseline": separable,
"null_baseline_vs_baseline": null_ok,
"pass": bool(separable and null_ok),
}
# --- Item 3: agent-selector reproducibility --------------------------------- #
def agent_reproducibility_gate(r: int = 5) -> Dict:
"""Same seed + churn history → byte-identical selector decisions for the agent
arm (deterministic local heuristic backend). The Ollama confirmatory arm is
reproducible via its committed decision-cache replay (tested separately)."""
all_identical = True
checks: List[Dict] = []
for i in range(r):
seed = _cal_seed("agent-repro", i)
a = _replay(seed, CHURN_KP, strategy="agent")
b = _replay(seed, CHURN_KP, strategy="agent")
same = (a.initial_circuit == b.initial_circuit
and [rb.circuit for rb in a.rebuilds] == [rb.circuit for rb in b.rebuilds])
all_identical = all_identical and same
checks.append({"seed": seed, "identical": same})
return {"runs": r, "checks": checks, "pass": bool(all_identical)}
# --- Item 4: entropy calibration (inherited) -------------------------------- #
def entropy_calibration() -> Dict:
checks: List[Dict] = []
ok = True
for n in (2, 4, 8, 16, 50):
h = shannon_entropy_bits({f"s{ix}": 1 for ix in range(n)})
item_ok = abs(h - math.log2(n)) < 1e-9
ok = ok and item_ok
checks.append({"N": n, "shannon_bits": h, "log2N": math.log2(n), "equals": item_ok})
return {"checks": checks, "pass": bool(ok)}
def calibration_gate(r: int = R_DRY) -> Dict:
"""Run all four RQ3 §3-4 gate items on the DRY/offline pass and return a report."""
item1 = churn_bites_gate(r)
item2 = rebuild_classifier_gate(r)
item3 = agent_reproducibility_gate()
item4 = entropy_calibration()
return {
"schema": "sor-rq3-calibration/1",
"dry_only": True,
"offline_no_engine_no_traffic": True,
"no_confirmatory_data_read": True,
"R": r,
"gate": {
"item1_churn_bites": item1,
"item2_rebuild_classifier": item2,
"item3_agent_reproducibility": item3,
"item4_entropy_calibration": item4,
"all_pass": bool(item1["pass"] and item2["pass"] and item3["pass"] and item4["pass"]),
},
}
if __name__ == "__main__":
print(json.dumps(calibration_gate(), indent=2, sort_keys=True))
sys.exit(0)