Initial release: iai-mcp v0.1.0

Co-Authored-By: Claude <noreply@anthropic.com>
Co-Authored-By: XNLLLLH <XNLLLLH@users.noreply.github.com>
This commit is contained in:
Areg Noya 2026-05-06 01:04:47 -07:00
commit f6b876fbe7
332 changed files with 97258 additions and 0 deletions

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bench/__init__.py Normal file
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"""IAI-MCP benchmark harness.
Phase-1 benchmarks:
- bench.tokens -- (steady <=3000) + (fresh <=8000)
- bench.verbatim -- (verbatim recall >=99% on pinned records)
Both runners are invokable as CLIs (`python -m bench.tokens`, `python -m bench.verbatim`)
and exit non-zero on failure. They fall back to a heuristic token count when
ANTHROPIC_API_KEY is absent so CI (and first-time users) can run the suite offline.
"""

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"""bench/adapters — external-benchmark adapters (Plan 05-11 OPS-17, M-08)."""

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"""LongMemEval adapter — / external-bench gate.
Wires the public LongMemEval memory benchmark (Xie et al., 2024) into the
IAI-MCP public API (MemoryStore.insert + retrieve.recall). Strict blind-run
discipline: no per-dataset tuning, no field-mapping optimisation, no
embedder finetune. The adapter is the ONLY translation layer; everything
downstream is stock IAI-MCP.
## Dataset source
The plan text (05-11-PLAN.md) cites ``lxucs/longmemeval`` that repo does
NOT exist on HuggingFace Hub (returns 401/Not Found). The canonical public
mirror shipped by the paper authors is ``xiaowu0162/longmemeval``.
Discovered mid-execution; documented as a Rule 3 deviation in the Plan
05-11 SUMMARY. DATASET_ID points at the live mirror; PINNED_REVISION is
the 40-char commit hash resolved at execution time so numbers reproduce.
## Row schema (longmemeval_s split, 500 rows)
Each row is:
{
"question_id": str (8-hex),
"question_type": str (single-session-user, multi-session, ...),
"question": str,
"answer": str,
"question_date": str ("YYYY/MM/DD (Day) HH:MM"),
"haystack_dates": list[str],
"haystack_session_ids": list[str] # len ~54
"haystack_sessions": list[list[{"role","content"}]]
"answer_session_ids": list[str] # gold evidence (len typically 1)
}
## LMESession mapping (Plan 05-11 deviation, Rule 1/3)
The plan's interface says "one session -> many queries". The actual dataset
is "one query -> many haystack sessions". We therefore flatten each row to
a list of LMESession objects one per haystack session with the single
eval query attached to every session in the row (so
bench/longmemeval_blind.py can iterate LMESessions, insert haystack turns,
and run the query against the store). The orchestrator (not the adapter)
scores at the standard LongMemEval session-ID granularity.
The ``score_r_at_k`` method in this module implements the plan's literal
formula ``|retrieved relevant| / |relevant|`` over UUIDs it is unit-
testable and matches the Test 4 contract. The orchestrator also
reports session-level R@k using the dataset's native session_id gold.
"""
from __future__ import annotations
import os
import sys
from dataclasses import dataclass
from datetime import datetime, timezone
from pathlib import Path
from typing import Iterable
from uuid import UUID, uuid4
# Local imports kept lazy-friendly by using a distinct alias so tests can
# mock ``bench.adapters.longmemeval.retrieve_recall`` without touching the
# production retrieve module wholesale.
from iai_mcp.retrieve import recall as retrieve_recall
from iai_mcp.embed import embedder_for_store
from iai_mcp.types import MemoryRecord
DATASET_ID: str = "xiaowu0162/longmemeval"
# Pinned at execution time (2026-04-20) against the
# canonical LongMemEval HuggingFace mirror. Reproducers MUST load this
# exact revision or disclose the drift.
PINNED_REVISION: str = "2ec2a557f339b6c0369619b1ed5793734cc87533"
# Split -> filename (the repo ships configs ``longmemeval_s``,
# ``longmemeval_m``, ``longmemeval_oracle``). runs the S split.
_SPLIT_FILENAMES: dict[str, str] = {
"S": "longmemeval_s",
"M": "longmemeval_m",
"oracle": "longmemeval_oracle",
}
@dataclass
class LMESession:
"""One flattened haystack session + its attached eval query.
See module docstring for why this differs from the plan's original
"one session many queries" spec.
"""
session_id: str
turns: list[dict] # [{"role": "user"|"assistant", "content": str}]
queries: list[dict] # [{"query": str, "relevant_turn_ids": list[str]}]
class LongMemEvalAdapter:
"""Public API: load_dataset / session_to_inserts / query_to_recall /
score_r_at_k."""
DATASET_ID: str = DATASET_ID
PINNED_REVISION: str = PINNED_REVISION
def __init__(self, revision: str | None = None) -> None:
self.revision = revision or self.PINNED_REVISION
# --------------------------------------------------------------- load
def load_dataset(self, split: str = "S") -> Iterable[LMESession]:
"""Stream LMESessions out of the LongMemEval-<split> JSON file.
Uses ``huggingface_hub.hf_hub_download`` to grab the split file at
the pinned revision (the datasets library's JSON auto-detection
breaks on this repo because the files ship without a ``.json``
extension see README). Falls back to raising a clear error if
HuggingFace is unreachable and nothing is cached.
"""
import json
filename = _SPLIT_FILENAMES.get(split)
if filename is None:
raise ValueError(
f"unknown LongMemEval split {split!r}; "
f"expected one of {sorted(_SPLIT_FILENAMES)}"
)
try:
from huggingface_hub import hf_hub_download
except ImportError as exc: # pragma: no cover — dev extra
raise RuntimeError(
"huggingface_hub not installed; run "
"`pip install 'datasets>=2.18' huggingface_hub`"
) from exc
print(
f"[LongMemEval] resolving split={split} "
f"revision={self.revision} filename={filename}",
file=sys.stderr,
flush=True,
)
path = hf_hub_download(
repo_id=self.DATASET_ID,
filename=filename,
repo_type="dataset",
revision=self.revision,
)
with open(path, "r", encoding="utf-8") as f:
rows = json.load(f)
for row in rows:
qid = row["question_id"]
question = row["question"]
# bench/lme500: capture question_type for per-type breakdown.
question_type = str(row.get("question_type", "unknown"))
answer_session_ids = list(row.get("answer_session_ids", []))
haystack_session_ids: list[str] = list(
row.get("haystack_session_ids", [])
)
haystack_sessions: list[list[dict]] = list(
row.get("haystack_sessions", [])
)
# Emit one LMESession per haystack session; attach the eval
# query to every one so the orchestrator can run ONE recall
# per row after inserting all haystack turns.
#
# The "relevant_turn_ids" field stays session-id-based (the
# paper's native gold). We record which session is "gold" so
# the orchestrator can score hits.
for sess_id, turns in zip(
haystack_session_ids, haystack_sessions
):
yield LMESession(
session_id=sess_id,
turns=list(turns),
queries=[
{
"query": question,
"question_id": qid,
"question_type": question_type,
# Gold at session granularity; the orchestrator
# decides how to use it. score_r_at_k in this
# adapter takes whatever the caller passes.
"relevant_turn_ids": answer_session_ids,
"is_gold_session": sess_id in answer_session_ids,
}
],
)
# ------------------------------------------------------- session_to_inserts
def session_to_inserts(self, session: LMESession) -> list[MemoryRecord]:
"""Map each turn to one MemoryRecord (tier=episodic, literal_surface=content).
Produces a placeholder embedding sized to the default embed dim.
The blind-run orchestrator overrides the embedding with the real
one from ``embedder_for_store(store).embed(text)`` before calling
``store.insert`` this keeps ``session_to_inserts`` cheap for
unit tests that don't want to load sentence-transformers.
"""
from iai_mcp.embed import Embedder
dim = Embedder.DEFAULT_DIM
records: list[MemoryRecord] = []
now = datetime.now(timezone.utc)
for turn in session.turns:
content = str(turn.get("content", ""))
rec = MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=content,
aaak_index="",
embedding=[0.0] * dim, # placeholder; orchestrator overrides
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=now,
updated_at=now,
tags=[
"longmemeval",
f"role:{turn.get('role','user')}",
f"session:{session.session_id}",
],
language="en",
)
records.append(rec)
return records
# ------------------------------------------------------- query_to_recall
def query_to_recall(self, query: dict, store) -> list[UUID]:
"""Call retrieve.recall(cue_text=query['query'], k_hits=10).
Returns the retrieved record ids in rank order. The orchestrator
uses these ids to compute R@k.
"""
cue_text = str(query["query"])
embedder = embedder_for_store(store)
cue_embedding = embedder.embed(cue_text)
resp = retrieve_recall(
store=store,
cue_embedding=cue_embedding,
cue_text=cue_text,
session_id="longmemeval-blind",
budget_tokens=1500,
k_hits=10,
k_anti=0,
)
return [hit.record_id for hit in resp.hits]
# ------------------------------------------------------- score_r_at_k
def score_r_at_k(
self,
retrieved_ids: list,
gold_turn_ids: list,
k: int = 5,
) -> float:
"""R@k = |retrieved_top_k ∩ relevant| / |relevant|.
Empty ``gold_turn_ids`` returns 1.0 (convention avoids div-by-zero
and matches the "no evidence to miss" semantics).
Both lists are normalised to ``str`` so UUID vs session-id ids work.
"""
if not gold_turn_ids:
return 1.0
top_k = retrieved_ids[: max(0, int(k))]
gold_set = {str(g) for g in gold_turn_ids}
hit = sum(1 for rid in top_k if str(rid) in gold_set)
return hit / float(len(gold_set))

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"""Cleaned-dataset adapter for LongMemEval-S — D-02.
Mempalace's reference benchmark uses ``xiaowu0162/longmemeval-cleaned``
(commit-pinned via ``huggingface_hub.repo_info()``). This adapter mirrors
the ``LongMemEvalAdapter`` shape from ``bench/adapters/longmemeval.py`` so
the orchestrator (`bench/longmemeval_blind.py`) can swap raw vs cleaned
purely via the ``--dataset {cleaned, raw}`` CLI flag.
## boundary
This adapter is NEW (Phase 9 Task 1). The raw adapter at
``bench/adapters/longmemeval.py`` is byte-identical to its v2 state Phase
9 does NOT modify the v1/v2 baseline path. ``--dataset raw`` continues to
load the raw revision ``2ec2a557f339...``; ``--dataset cleaned`` (the new
v3 default) routes to this module.
## Pinning discipline
Phase 9 LOCKED: pin via ``huggingface_hub.repo_info(...)``, NEVER
hardcode a magic string. The cleaned dataset's HEAD SHA is auto-discovered
on first instantiation and stored on ``self.revision`` so v3 output JSON
records exactly which dataset variant was measured. On reproducer runs,
the caller may pass ``revision=`` to pin a specific historical SHA.
## Schema
The cleaned dataset uses the same row schema as the raw dataset (cleaned
removed bad evidence; field names preserved). Each row in
``longmemeval_s_cleaned.json`` is:
{
"question_id": str,
"question_type": str,
"question": str,
"haystack_session_ids": list[str],
"haystack_sessions": list[list[{"role","content"}]],
"answer_session_ids": list[str],
}
The adapter emits one ``LMESession`` per haystack session with the eval
query attached (matching the raw adapter's emission shape exactly), so
``main()`` in ``longmemeval_blind.py`` does NOT branch on adapter type
it groups LMESessions by ``question_id`` either way.
## Split support
Only ``split="S"`` is supported. The cleaned dataset ships only the S split
as ``longmemeval_s_cleaned.json``; M and oracle remain in the raw dataset.
"""
from __future__ import annotations
import json
import sys
from typing import Iterable
from bench.adapters.longmemeval import LMESession
CLEANED_DATASET_ID: str = "xiaowu0162/longmemeval-cleaned"
CLEANED_FILENAME: str = "longmemeval_s_cleaned.json"
class CleanedLongMemEvalAdapter:
"""Loads ``xiaowu0162/longmemeval-cleaned`` via ``huggingface_hub``.
Mirrors ``LongMemEvalAdapter`` so ``bench/longmemeval_blind.py`` can
treat them interchangeably (same ``LMESession`` iterator shape).
Pin discipline: ``revision`` defaults to the current HEAD SHA of the
HuggingFace dataset, auto-discovered via ``repo_info()``. Pass an
explicit revision to reproduce a historical run.
"""
DATASET_ID: str = CLEANED_DATASET_ID
def __init__(self, revision: str | None = None) -> None:
if revision is not None:
self.revision = revision
return
try:
from huggingface_hub import repo_info
except ImportError as exc: # pragma: no cover — dev extra
raise RuntimeError(
"huggingface_hub not installed; run "
"`pip install 'datasets>=2.18' huggingface_hub`"
) from exc
info = repo_info(repo_id=CLEANED_DATASET_ID, repo_type="dataset")
self.revision = info.sha
def load_dataset(self, split: str = "S") -> Iterable[LMESession]:
"""Stream LMESessions out of ``longmemeval_s_cleaned.json``.
Only ``split="S"`` is supported (the cleaned dataset ships the S
split only). Raises ``ValueError`` on any other split value.
"""
if split != "S":
raise ValueError(
f"unknown LongMemEval cleaned split {split!r}; "
f"the cleaned dataset ships only the 'S' split"
)
try:
from huggingface_hub import hf_hub_download
except ImportError as exc: # pragma: no cover — dev extra
raise RuntimeError(
"huggingface_hub not installed; run "
"`pip install 'datasets>=2.18' huggingface_hub`"
) from exc
print(
f"[LongMemEval-cleaned] resolving split={split} "
f"revision={self.revision} filename={CLEANED_FILENAME}",
file=sys.stderr,
flush=True,
)
path = hf_hub_download(
repo_id=CLEANED_DATASET_ID,
filename=CLEANED_FILENAME,
repo_type="dataset",
revision=self.revision,
)
with open(path, "r", encoding="utf-8") as f:
rows = json.load(f)
for row in rows:
qid = row["question_id"]
question = row["question"]
question_type = str(row.get("question_type", "unknown"))
answer_session_ids = list(row.get("answer_session_ids", []))
haystack_session_ids: list[str] = list(
row.get("haystack_session_ids", [])
)
haystack_sessions: list[list[dict]] = list(
row.get("haystack_sessions", [])
)
# Emit one LMESession per haystack session; attach the eval
# query to every one so the orchestrator can run ONE recall
# per row after inserting all haystack turns. Matches the
# raw adapter's emission shape exactly.
for sess_id, turns in zip(
haystack_session_ids, haystack_sessions
):
yield LMESession(
session_id=sess_id,
turns=list(turns),
queries=[
{
"query": question,
"question_id": qid,
"question_type": question_type,
"relevant_turn_ids": answer_session_ids,
"is_gold_session": sess_id in answer_session_ids,
}
],
)
__all__ = [
"CLEANED_DATASET_ID",
"CLEANED_FILENAME",
"CleanedLongMemEvalAdapter",
]

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#!/usr/bin/env python3
"""Contradiction-longitudinal falsifiability bench (skeleton + pre-registered criteria).
**Do not run on the construction host by default** this module is meant for a
dedicated bench machine with an isolated ``IAI_MCP_STORE`` and optional GPU.
Pre-registered pass criteria:
- **Metric B (post-flip):** cues issued after session ``t_0`` (contradiction +
consolidation window simulated) must rank the *current* winning fact above
flat cosine-only retrieval on the same store slice.
- **Metric A (historical verbatim):** probes asking for superseded wording must
still surface the archived surface (verbatim MEM-06), not the post-flip fact alone.
- **Regression gate:** pipeline score on B must beat cosine baseline; A must not
collapse below a configured verbatim hit threshold.
This file loads :file:`fixtures/contradiction_longitudinal.jsonl` (synthetic JSONL
rows: ``session``, ``text``, optional ``probe`` / ``expects``) and documents the
evaluation harness contract. A full implementation wires:
1. Fixture loader ``MemoryStore`` inserts per session order.
2. Explicit ``memory_contradict`` (or edge-equivalent) at ``t_0``.
3. Optional sleep/consolidation tick simulation (bench-only knobs).
4. Two eval slices: ``pre_flip_cues`` vs ``post_flip_cues`` with separated metrics.
Exit code 0 only when all gates pass; non-zero on any failure. Until the harness
is completed, ``main()`` prints the criteria and exits with code 2 to avoid a
silent green run::
python bench/contradiction_longitudinal.py --fixture bench/fixtures/contradiction_longitudinal.jsonl
"""
from __future__ import annotations
import argparse
import json
import sys
from pathlib import Path
def load_rows(path: Path) -> list[dict]:
rows: list[dict] = []
with path.open(encoding="utf-8") as f:
for line in f:
line = line.strip()
if not line:
continue
rows.append(json.loads(line))
return rows
def main(argv: list[str] | None = None) -> int:
parser = argparse.ArgumentParser(description=__doc__.split("\n\n")[0])
parser.add_argument(
"--fixture",
type=Path,
default=Path(__file__).resolve().parent / "fixtures" / "contradiction_longitudinal.jsonl",
)
args = parser.parse_args(argv)
rows = load_rows(args.fixture)
print(
json.dumps(
{
"loaded_rows": len(rows),
"fixture": str(args.fixture),
"status": "harness_stub",
"criteria": [
"B: post-flip cues — pipeline beats flat cosine",
"A: historical verbatim probes — superseded text still retrievable",
"No regression: B gain without A collapse",
],
},
indent=2,
)
)
# Stub: full eval is intentionally absent so CI never runs heavy retrieval.
return 2
if __name__ == "__main__":
sys.exit(main())

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{"session": 0, "role": "user", "text": "The launch date is 2026-06-01.", "gold_fact": "2026-06-01"}
{"session": 1, "role": "user", "text": "Correction: launch moved to 2026-09-01.", "gold_fact": "2026-09-01", "contradicts_session": 0}
{"session": 2, "role": "user", "text": "What is the launch date?", "probe": "post_flip", "expects": "2026-09-01"}
{"session": 2, "role": "user", "text": "Quote the original June announcement verbatim.", "probe": "historical_verbatim", "expects": "2026-06-01"}

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"""bench/lme500/aggregate.py — post-process LongMemEval-S blind-run output.
Usage:
python bench/lme500/aggregate.py \
--in bench/lme500/output/lme500-v1.json \
--report bench/lme500/output/lme500-v1-report.md \
--summary bench/lme500/output/lme500-v1-summary.json
The --in path may be:
- the final summary JSON ({"per_row": [...], ...} schema), or
- the per-row JSONL checkpoint (one JSON dict per line works on
partial runs while the bench is still in progress).
Computes:
- Overall R@5 / R@10 per prong (X = retrieve_recall, Y = recall_for_benchmark)
- Architecture lift Y - X
- Per-question-type stratification with n per bin (low-power flag if n<30)
- Bootstrap 95% CI via percentile method (10000 resamples, seed=42)
- Errors counted as miss for both prongs
Output:
- Markdown report (--report)
- Aggregated JSON summary (--summary)
- One-line stderr summary at end
"""
from __future__ import annotations
import argparse
import json
import random
import statistics
import sys
from collections import defaultdict
from pathlib import Path
from typing import Any
def load_rows(input_path: Path) -> list[dict[str, Any]]:
"""Load per-row dicts from JSON, JSONL, or list-JSON.
Order of detection:
1. JSONL: every non-empty line parses as a dict.
2. JSON object with "per_row" key return per_row.
3. JSON list return as-is.
"""
text = input_path.read_text(encoding="utf-8")
stripped = text.strip()
# Try JSON first
if stripped.startswith("{"):
try:
data = json.loads(text)
if isinstance(data, dict) and "per_row" in data:
return list(data["per_row"])
except json.JSONDecodeError:
pass
if stripped.startswith("["):
try:
return list(json.loads(text))
except json.JSONDecodeError:
pass
# Fall back to JSONL
rows: list[dict[str, Any]] = []
for lineno, line in enumerate(text.splitlines(), 1):
line = line.strip()
if not line:
continue
try:
rows.append(json.loads(line))
except json.JSONDecodeError as exc:
print(
f"[aggregate] WARN: skipping corrupt line {lineno}: {exc}",
file=sys.stderr,
)
return rows
def bootstrap_ci(
values: list[float],
n_resamples: int = 10000,
seed: int = 42,
) -> tuple[float, float, float]:
"""Bootstrap mean + 95% percentile CI.
Returns (mean, ci_lo, ci_hi). Empty input (0, 0, 0).
"""
if not values:
return 0.0, 0.0, 0.0
rng = random.Random(seed)
n = len(values)
means: list[float] = []
for _ in range(n_resamples):
s = 0.0
for _ in range(n):
s += values[rng.randrange(n)]
means.append(s / n)
means.sort()
lo_idx = max(0, int(0.025 * n_resamples))
hi_idx = min(n_resamples - 1, int(0.975 * n_resamples))
return statistics.fmean(values), means[lo_idx], means[hi_idx]
def _get_prong_value(row: dict[str, Any], prong: str, k: int) -> float:
"""Extract r_at_<k>_<prong> from a row, treating error rows as 0."""
if "error" in row and isinstance(row.get("error"), dict):
return 0.0
return float(row.get(f"r_at_{k}_{prong}", 0.0))
def aggregate(rows: list[dict[str, Any]]) -> dict[str, Any]:
"""Aggregate overall + per-type bootstrap CIs."""
if not rows:
return {"overall": {"n": 0, "n_errors": 0}, "per_type": {}}
by_type: dict[str, dict[str, list[float]]] = defaultdict(
lambda: {"x5": [], "x10": [], "y5": [], "y10": []}
)
overall: dict[str, list[float]] = {"x5": [], "x10": [], "y5": [], "y10": []}
n_errors = 0
for row in rows:
is_error = "error" in row and isinstance(row.get("error"), dict)
if is_error:
n_errors += 1
qtype = str(row.get("question_type", "unknown"))
x5 = _get_prong_value(row, "retrieve", 5)
x10 = _get_prong_value(row, "retrieve", 10)
y5 = _get_prong_value(row, "pipeline", 5)
y10 = _get_prong_value(row, "pipeline", 10)
overall["x5"].append(x5)
overall["x10"].append(x10)
overall["y5"].append(y5)
overall["y10"].append(y10)
by_type[qtype]["x5"].append(x5)
by_type[qtype]["x10"].append(x10)
by_type[qtype]["y5"].append(y5)
by_type[qtype]["y10"].append(y10)
def _prong_block(vals_5: list[float], vals_10: list[float]) -> dict:
m5, lo5, hi5 = bootstrap_ci(vals_5)
m10, lo10, hi10 = bootstrap_ci(vals_10)
return {
"r_at_5": {"mean": m5, "ci_lo": lo5, "ci_hi": hi5},
"r_at_10": {"mean": m10, "ci_lo": lo10, "ci_hi": hi10},
}
overall_block = {
"n": len(rows),
"n_errors": n_errors,
"X_retrieve": _prong_block(overall["x5"], overall["x10"]),
"Y_pipeline": _prong_block(overall["y5"], overall["y10"]),
}
overall_block["lift_Y_minus_X"] = {
"r_at_5": (
overall_block["Y_pipeline"]["r_at_5"]["mean"]
- overall_block["X_retrieve"]["r_at_5"]["mean"]
),
"r_at_10": (
overall_block["Y_pipeline"]["r_at_10"]["mean"]
- overall_block["X_retrieve"]["r_at_10"]["mean"]
),
}
per_type_out: dict[str, dict[str, Any]] = {}
for qt in sorted(by_type.keys()):
data = by_type[qt]
block = {
"n": len(data["x5"]),
"X_retrieve": _prong_block(data["x5"], data["x10"]),
"Y_pipeline": _prong_block(data["y5"], data["y10"]),
}
block["lift_Y_minus_X"] = {
"r_at_5": (
block["Y_pipeline"]["r_at_5"]["mean"]
- block["X_retrieve"]["r_at_5"]["mean"]
),
"r_at_10": (
block["Y_pipeline"]["r_at_10"]["mean"]
- block["X_retrieve"]["r_at_10"]["mean"]
),
}
per_type_out[qt] = block
return {"overall": overall_block, "per_type": per_type_out}
def format_markdown_report(agg: dict[str, Any], source_path: Path) -> str:
overall = agg["overall"]
lines: list[str] = []
lines.append("# LongMemEval-S Aggregate Report")
lines.append("")
lines.append(f"- Source: `{source_path}`")
lines.append(f"- n = {overall['n']}, errors = {overall['n_errors']}")
lines.append(
"- 95% CI via bootstrap percentile method (10000 resamples, seed=42)"
)
lines.append("")
if overall["n"] == 0:
lines.append("**No rows loaded.**")
return "\n".join(lines) + "\n"
lines.append("## Overall")
lines.append("")
lines.append("| Prong | R@5 | R@5 95% CI | R@10 | R@10 95% CI |")
lines.append("|---|---|---|---|---|")
x = overall["X_retrieve"]
y = overall["Y_pipeline"]
lift = overall["lift_Y_minus_X"]
lines.append(
f"| X (retrieve_recall — flat-cosine baseline) "
f"| {x['r_at_5']['mean']:.3f} "
f"| [{x['r_at_5']['ci_lo']:.3f}, {x['r_at_5']['ci_hi']:.3f}] "
f"| {x['r_at_10']['mean']:.3f} "
f"| [{x['r_at_10']['ci_lo']:.3f}, {x['r_at_10']['ci_hi']:.3f}] |"
)
lines.append(
f"| Y (recall_for_benchmark — full graph-native pipeline) "
f"| {y['r_at_5']['mean']:.3f} "
f"| [{y['r_at_5']['ci_lo']:.3f}, {y['r_at_5']['ci_hi']:.3f}] "
f"| {y['r_at_10']['mean']:.3f} "
f"| [{y['r_at_10']['ci_lo']:.3f}, {y['r_at_10']['ci_hi']:.3f}] |"
)
lines.append(
f"| **Architecture lift Y X** "
f"| **{lift['r_at_5']:+.3f}** "
f"| — "
f"| **{lift['r_at_10']:+.3f}** "
f"| — |"
)
lines.append("")
lines.append("## Per question type")
lines.append("")
lines.append(
"| Type | n | X R@5 | Y R@5 | Lift R@5 "
"| X R@10 | Y R@10 | Lift R@10 |"
)
lines.append("|---|---|---|---|---|---|---|---|")
for qt, block in agg["per_type"].items():
n = block["n"]
flag = " ⚠️" if n < 30 else ""
x = block["X_retrieve"]
y = block["Y_pipeline"]
lift = block["lift_Y_minus_X"]
lines.append(
f"| `{qt}`{flag} | {n} "
f"| {x['r_at_5']['mean']:.3f} | {y['r_at_5']['mean']:.3f} "
f"| {lift['r_at_5']:+.3f} "
f"| {x['r_at_10']['mean']:.3f} | {y['r_at_10']['mean']:.3f} "
f"| {lift['r_at_10']:+.3f} |"
)
lines.append("")
lines.append("⚠️ = n < 30, low statistical power for that bin.")
lines.append("")
lines.append("## Notes")
lines.append("")
lines.append(
"- Errors (graph-build failures, malformed rows, etc.) are counted "
"as miss for **both** prongs (R@k = 0)."
)
lines.append(
"- Mean is the unweighted row average; CI is bootstrap percentile."
)
lines.append(
"- Architecture lift = mean(Y) mean(X). The CI of the lift "
"itself is not computed here (would require paired bootstrap on "
"the (Y_i, X_i) tuples — TODO if needed)."
)
return "\n".join(lines) + "\n"
def main() -> int:
parser = argparse.ArgumentParser(description=__doc__)
parser.add_argument(
"--in",
dest="input",
required=True,
help="Path to per-row JSON / JSONL file",
)
parser.add_argument(
"--report",
default=None,
help="Output path for markdown report; default: <input>-report.md",
)
parser.add_argument(
"--summary",
default=None,
help="Output path for aggregated JSON; default: <input>-summary.json",
)
args = parser.parse_args()
input_path = Path(args.input)
if not input_path.exists():
print(f"[aggregate] ERROR: {input_path} does not exist", file=sys.stderr)
return 1
rows = load_rows(input_path)
if not rows:
print(f"[aggregate] WARN: 0 rows loaded from {input_path}", file=sys.stderr)
return 1
agg = aggregate(rows)
summary_path = (
Path(args.summary)
if args.summary
else input_path.with_name(input_path.stem + "-summary.json")
)
summary_path.parent.mkdir(parents=True, exist_ok=True)
with open(summary_path, "w", encoding="utf-8") as f:
json.dump(agg, f, indent=2)
report_path = (
Path(args.report)
if args.report
else input_path.with_name(input_path.stem + "-report.md")
)
report_path.parent.mkdir(parents=True, exist_ok=True)
report_path.write_text(format_markdown_report(agg, input_path), encoding="utf-8")
overall = agg["overall"]
x = overall["X_retrieve"]
y = overall["Y_pipeline"]
lift = overall["lift_Y_minus_X"]
print(
f"[aggregate] n={overall['n']} errors={overall['n_errors']}",
file=sys.stderr,
)
print(
f"[aggregate] X (retrieve) R@5={x['r_at_5']['mean']:.3f} "
f"[{x['r_at_5']['ci_lo']:.3f},{x['r_at_5']['ci_hi']:.3f}] "
f"R@10={x['r_at_10']['mean']:.3f}",
file=sys.stderr,
)
print(
f"[aggregate] Y (pipeline) R@5={y['r_at_5']['mean']:.3f} "
f"[{y['r_at_5']['ci_lo']:.3f},{y['r_at_5']['ci_hi']:.3f}] "
f"R@10={y['r_at_10']['mean']:.3f}",
file=sys.stderr,
)
print(
f"[aggregate] Lift Y X R@5={lift['r_at_5']:+.3f} "
f"R@10={lift['r_at_10']:+.3f}",
file=sys.stderr,
)
print(f"[aggregate] -> {summary_path}", file=sys.stderr)
print(f"[aggregate] -> {report_path}", file=sys.stderr)
return 0
if __name__ == "__main__":
raise SystemExit(main())

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@ -0,0 +1,328 @@
"""bench/lme500/debug_pipeline_loss.py
Trace WHICH pipeline stage drops the gold session in loss cases
(rows where retrieve_recall hits in top-k but recall_for_benchmark does not).
Usage:
python bench/lme500/debug_pipeline_loss.py <question_id> [<question_id> ...]
For each qid:
- Loads the LongMemEval-S row from the pinned dataset.
- Builds a fresh per-row store + runtime graph (same shape as the bench).
- Runs retrieve_recall to confirm gold sessions are findable by flat cosine.
- Runs recall_for_benchmark STAGE BY STAGE, recording at each cut whether the
gold record IDs survived.
Stages traced:
Stage 2 community gate (top-3 communities by centroid cosine)
Stage 3 seeds (top-3 by cosine within gated candidates)
Stage 4 2-hop spread + rich-club union
Stage 5 final recall_for_benchmark hits
Output is a per-stage table showing where gold drops.
Read-only no src/iai_mcp changes. Calls private helpers _community_gate
and _pick_seeds for stage-level inspection (debug-only path).
"""
from __future__ import annotations
import asyncio
import os
import sys
import tempfile
from datetime import datetime, timezone
from pathlib import Path
from uuid import UUID, uuid4
os.environ.setdefault("TRANSFORMERS_VERBOSITY", "error")
import numpy as np
from iai_mcp.embed import embedder_for_store
from iai_mcp.pipeline import (
_collect_graph_pool,
_community_gate,
_pick_seeds,
recall_for_benchmark,
)
from iai_mcp.retrieve import build_runtime_graph, recall as retrieve_recall
from iai_mcp.store import MemoryStore
from iai_mcp.types import MemoryRecord
from bench.adapters.longmemeval import LongMemEvalAdapter
def _make_record(content: str, session_id: str, role: str, embedding: list[float]) -> MemoryRecord:
now = datetime.now(timezone.utc)
return MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=content,
aaak_index="",
embedding=embedding,
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=now,
updated_at=now,
tags=["longmemeval", f"role:{role}", f"session:{session_id}"],
language="en",
)
def find_row(qid: str):
adapter = LongMemEvalAdapter()
sessions = []
question = None
answer_session_ids = None
qtype = None
for lme_session in adapter.load_dataset(split="S"):
q = lme_session.queries[0]
if q["question_id"] == qid:
sessions.append(lme_session)
if question is None:
question = q["query"]
answer_session_ids = set(q.get("relevant_turn_ids", []))
qtype = q.get("question_type", "?")
return question, qtype, answer_session_ids, sessions
def trace_one(qid: str) -> dict:
"""Returns a dict with the stage-by-stage gold survival counts."""
print(f"\n{'=' * 78}\n=== qid={qid} ===\n{'=' * 78}", flush=True)
question, qtype, gold_session_ids, sessions = find_row(qid)
if question is None:
print(f" qid={qid} NOT FOUND in dataset", flush=True)
return {}
print(f" type={qtype}", flush=True)
print(f" question[0:120]={question[:120]!r}", flush=True)
print(f" gold session_ids={gold_session_ids}", flush=True)
print(f" haystack sessions={len(sessions)}", flush=True)
tmp_root = Path(tempfile.mkdtemp(prefix="lme_dbg_"))
store_dir = tmp_root / f"row-{qid}"
store_dir.mkdir(parents=True, exist_ok=True)
store = MemoryStore(path=store_dir / "lancedb")
asyncio.run(store.enable_async_writes(coalesce_ms=50, max_batch=128))
embedder = embedder_for_store(store)
id_to_session: dict[UUID, str] = {}
gold_record_ids: set[UUID] = set()
n_inserted = 0
for sess in sessions:
for turn in sess.turns:
content = str(turn.get("content", "")).strip()
if not content:
continue
vec = embedder.embed(content)
rec = _make_record(
content=content,
session_id=sess.session_id,
role=str(turn.get("role", "user")),
embedding=vec,
)
store.insert(rec)
id_to_session[rec.id] = sess.session_id
if sess.session_id in gold_session_ids:
gold_record_ids.add(rec.id)
n_inserted += 1
asyncio.run(store.disable_async_writes())
print(f" records inserted: {n_inserted}", flush=True)
print(f" gold records: {len(gold_record_ids)}", flush=True)
graph, assignment, rich_club = build_runtime_graph(store)
print(f" graph nodes: {len(graph._nx.nodes)}", flush=True)
print(f" communities: {len(assignment.mid_regions)}", flush=True)
print(f" rich-club: {len(rich_club)}", flush=True)
cue_emb = embedder.embed(question)
# --- Baseline: retrieve_recall ---
resp_x = retrieve_recall(
store=store,
cue_embedding=cue_emb,
cue_text=question,
session_id=f"debug-{qid}",
budget_tokens=1500,
k_hits=10,
k_anti=0,
)
x_ids = [h.record_id for h in resp_x.hits]
x_sessions = [id_to_session.get(r, "?") for r in x_ids]
x_gold_pos = [i for i, s in enumerate(x_sessions) if s in gold_session_ids]
print(f"\n --- retrieve_recall (X) ---", flush=True)
print(f" top-10 sessions: {x_sessions}", flush=True)
print(f" gold hit positions: {x_gold_pos}", flush=True)
# --- recall_for_benchmark, stage by stage ---
print(f"\n --- recall_for_benchmark (Y) stage-by-stage ---", flush=True)
gated = _community_gate(cue_emb, assignment, top_n=3)
candidates_set: set[UUID] = set()
for gc in gated:
for cid in assignment.mid_regions.get(gc, []):
candidates_set.add(cid)
if not candidates_set:
candidates_set = {UUID(n) for n in graph._nx.nodes()}
print(f" Stage 2 (community gate): EMPTY, fallback to all nodes", flush=True)
print(f" Stage 2 (community gate): top-3 communities = {gated}", flush=True)
print(f" candidates after gate: {len(candidates_set)}", flush=True)
gold_in_gate = gold_record_ids & candidates_set
print(f" gold survives gate: {len(gold_in_gate)} / {len(gold_record_ids)}", flush=True)
centrality: dict[UUID, float] = {}
for nid in graph._nx.nodes:
n = graph._nx.nodes[nid]
if "centrality" in n:
try:
centrality[UUID(nid)] = float(n["centrality"])
except (TypeError, ValueError):
centrality[UUID(nid)] = 0.0
if not centrality:
try:
centrality = graph.centrality()
except Exception:
centrality = {}
# (08-01): _pick_seeds now reads from a shared cosine array.
# Build the same array the production pipeline builds.
pool_ids, pool_embs = _collect_graph_pool(graph, None, store)
cue_vec_norm = np.asarray(cue_emb, dtype=np.float32)
cn = float(np.linalg.norm(cue_vec_norm))
if cn > 0.0:
cue_vec_norm = cue_vec_norm / cn
if pool_embs.size:
shared_cos = (pool_embs @ cue_vec_norm).astype(np.float32)
else:
shared_cos = np.empty(0, dtype=np.float32)
id_to_idx = {rid: i for i, rid in enumerate(pool_ids)}
cand_idx = np.array(
[id_to_idx[c] for c in candidates_set if c in id_to_idx],
dtype=np.int64,
)
centrality_arr = np.array(
[centrality.get(rid, 0.0) for rid in pool_ids],
dtype=np.float32,
)
seed_idx = _pick_seeds(cand_idx, shared_cos, centrality_arr, n=3)
seeds = [pool_ids[int(i)] for i in seed_idx]
print(f" Stage 3 (seeds, top-3 by cosine in gated): {len(seeds)}", flush=True)
seeds_sessions = [id_to_session.get(s, "?") for s in seeds]
print(f" seed sessions: {seeds_sessions}", flush=True)
gold_in_seeds = gold_record_ids & set(seeds)
print(f" gold in seeds: {len(gold_in_seeds)}", flush=True)
spread = graph.two_hop_neighborhood(seeds, top_k=5)
reachable = set(seeds) | set(spread) | set(rich_club)
print(f" Stage 4 (spread + rich-club union):", flush=True)
print(f" seeds={len(seeds)} spread={len(spread)} rich={len(rich_club)} reachable={len(reachable)}", flush=True)
gold_in_reachable = gold_record_ids & reachable
print(f" gold in reachable: {len(gold_in_reachable)} / {len(gold_record_ids)}", flush=True)
resp_y = recall_for_benchmark(
store=store,
graph=graph,
assignment=assignment,
rich_club=rich_club,
embedder=embedder,
cue=question,
session_id=f"debug-{qid}",
k_hits=10,
profile_state=None,
turn=0,
mode="concept",
)
y_ids = [h.record_id for h in resp_y.hits]
y_sessions = [id_to_session.get(r, "?") for r in y_ids]
y_gold_pos = [i for i, s in enumerate(y_sessions) if s in gold_session_ids]
print(f" Stage 5 (rank + budget pack):", flush=True)
print(f" final hits: {len(y_ids)}", flush=True)
print(f" top-10 sessions: {y_sessions}", flush=True)
print(f" gold hit positions: {y_gold_pos}", flush=True)
# ----- Verdict -----
# verdict primary signal is whether gold lands in
# recall_for_benchmark's top-10 — which is what matters for R@5/R@10.
# Stage-2/3/4 stage-by-stage diagnostics still print above (useful when
# gold is missed) but they observe the PRIVATE _community_gate /
# _pick_seeds path. The redesign (08-CONTEXT.md D-02) makes the
# community gate a soft-bias diagnostic rather than a hard filter, so a
# "stage_2 missed" diagnostic with gold present in final hits means:
# the gate's communities did not include gold, but the cosine top-K
# candidate pool did, and Stage 5 ranking surfaced it.
print(f"\n --- VERDICT ---", flush=True)
if y_gold_pos:
print(f" gold present in top-10 (positions {y_gold_pos}) — no_loss", flush=True)
if not gold_in_gate:
print(f" (gate would have killed it; augmentation rescued)", flush=True)
verdict = "no_loss"
elif not gold_in_gate:
print(f" >>> GOLD KILLED at STAGE 2 (community gate) — augmentation also failed <<<", flush=True)
verdict = "stage_2_community_gate"
elif not gold_in_reachable:
print(f" >>> GOLD KILLED at STAGE 3-4 (seeds + spread) <<<", flush=True)
print(f" gold was {len(gold_in_gate)} candidate(s); none became "
f"a seed and none was reached within 2 hops of the chosen seeds", flush=True)
verdict = "stage_3_4_seeds_or_spread"
else:
print(f" >>> GOLD KILLED at STAGE 5 (rank + budget pack) <<<", flush=True)
print(f" gold was reachable ({len(gold_in_reachable)}) but not in top-10 hits", flush=True)
verdict = "stage_5_rank"
return {
"qid": qid,
"qtype": qtype,
"verdict": verdict,
"n_records": n_inserted,
"n_communities": len(assignment.mid_regions),
"n_rich_club": len(rich_club),
"n_gold_records": len(gold_record_ids),
"gold_in_gate": len(gold_in_gate),
"gold_in_reachable": len(gold_in_reachable),
"x_gold_pos": x_gold_pos,
"y_gold_pos": y_gold_pos,
}
def main(qids: list[str]) -> int:
summary = []
for qid in qids:
try:
summary.append(trace_one(qid))
except Exception as exc:
print(f"\n qid={qid} TRACE FAILED: {type(exc).__name__}: {exc}", flush=True)
import traceback
traceback.print_exc()
summary.append({"qid": qid, "verdict": "trace_failed"})
print("\n\n" + "=" * 78)
print("SUMMARY")
print("=" * 78)
print(f"{'qid':16} {'qtype':28} {'verdict':32} gold(gate→reach)")
print("-" * 100)
for s in summary:
if not s:
continue
gate = s.get("gold_in_gate", "?")
reach = s.get("gold_in_reachable", "?")
ngold = s.get("n_gold_records", "?")
print(
f"{s.get('qid', '?'):16} {s.get('qtype', '?'):28} "
f"{s.get('verdict', '?'):32} "
f"{gate}{reach} (of {ngold})"
)
return 0
if __name__ == "__main__":
if len(sys.argv) < 2:
print(__doc__, file=sys.stderr)
sys.exit(1)
sys.exit(main(sys.argv[1:]))

768
bench/longmemeval_blind.py Normal file
View file

@ -0,0 +1,768 @@
"""Plan 05-11 blind-run orchestrator — / M-08.
Runs LongMemEval-S through IAI-MCP's public API (MemoryStore.insert +
retrieve.recall) in strict blind mode: no per-dataset tuning, no
hyperparameter sweep, no late adjustment after seeing numbers. This is
the external honesty axis for Phase 5.
## Row-level protocol
One evaluation row in LongMemEval-S contains:
{ "question", "answer_session_ids" (gold),
"haystack_session_ids", "haystack_sessions" (the full history) }
Per row the orchestrator does:
1. fresh tmp MemoryStore (per-row isolation; no cross-row leakage)
2. enable async writes (Plan 05-10 keeps RAM bounded on a
16GB M1 laptop)
3. embed + insert every turn of every haystack session; each record
is tagged with ``session:<session_id>`` so the orchestrator can
score at the dataset's native session-ID granularity.
4. disable async writes (flushes the queue; the store now holds the
full haystack).
5. build_runtime_graph once (Plan 05-09 cache amortises cold start
across rows via the shared runtime graph cache dir).
6. call retrieve.recall for the eval query, with k_hits=10.
7. compute R@5 / R@10 at session-ID granularity (the standard
LongMemEval metric): a retrieved record "hits" if its ``session:``
tag is in answer_session_ids. R@k is 1.0 if any top-k hits, else 0.
8. measure per-query token cost via bench.tokens counters.
## CLI
python bench/longmemeval_blind.py \\
--split S \\
[--limit N] \\
[--granularity {session, turn}] \\
[--dataset {cleaned, raw}] \\
[--qid-include csv] \\
--out /tmp/p11_lme_full.json
Phase 9 added two methodology-alignment flags:
--granularity session (default; one record per session,
content = "\\n".join(user-only turns))
--granularity turn (v1/v2 reproducer; one record per turn)
--dataset cleaned (default; xiaowu0162/longmemeval-cleaned)
--dataset raw (v1/v2 reproducer; xiaowu0162/longmemeval
rev 2ec2a557f339)
--qid-include csv optional comma-separated question_ids; when
set, only those rows run (used by smoke
tests for per-qid baseline verification)
## Output JSON keys
{
"split": "S",
"dataset_id": "xiaowu0162/longmemeval-cleaned" | "xiaowu0162/longmemeval",
"revision": "<40-hex>",
"granularity": "session" | "turn",
"dataset_choice": "cleaned" | "raw",
"n_rows": int, # rows actually evaluated
"r_at_5": float, # session-ID R@5, mean across rows
"r_at_10": float, # session-ID R@10, mean across rows
"token_p50": int, # per-query cue-text tokens, median
"token_p95": int, # per-query cue-text tokens, p95
"session_tokens_mean": float, # mean per-row inserted text tokens
# (proxy for the rows' storage footprint)
"errors": [{"question_id": str, "error_class": str, "error": str}],
"hard_limit": int | null,
"note": str
}
## discipline
The run is ONE-SHOT. If a bug crashes a row, it's logged in ``errors``
and counted as a MISS against R@k (not silently dropped). The published
number is whatever came out. Disclosures (small-N, hardware limit,
English-only embedder, etc.) live in the published bench report and
05-11-SUMMARY.md they don't get folded back into this script.
"""
from __future__ import annotations
import argparse
import asyncio
import json
import os
import shutil
import statistics
import sys
import tempfile
import time
import traceback
from collections import defaultdict
from datetime import datetime, timezone
from pathlib import Path
from typing import Any
from uuid import UUID
# Silence the "UNEXPECTED embeddings.position_ids" noise from
# sentence-transformers so the blind-run stderr stays focused on errors.
os.environ.setdefault("TRANSFORMERS_VERBOSITY", "error")
# IAI-MCP imports — public API only (plan directive).
from iai_mcp.embed import Embedder, embedder_for_store
from iai_mcp.pipeline import recall_for_benchmark
from iai_mcp.retrieve import build_runtime_graph, recall as retrieve_recall
from iai_mcp.store import MemoryStore
from iai_mcp.types import MemoryRecord
# Adapter (ships alongside this script).
from bench.adapters.longmemeval import (
DATASET_ID,
PINNED_REVISION,
LMESession,
LongMemEvalAdapter,
)
# Token counter (reuses bench/tokens.py three-tier helper).
from bench.tokens import _char4_count, _tiktoken_count
def _count_tokens(text: str) -> int:
"""Prefer tiktoken-cl100k proxy; fall back to char4."""
try:
return _tiktoken_count(text)
except Exception: # pragma: no cover
return _char4_count(text)
def _percentile(xs: list[int], p: float) -> int:
if not xs:
return 0
s = sorted(xs)
k = max(0, min(len(s) - 1, int(round((len(s) - 1) * p / 100.0))))
return s[k]
def _make_record(
content: str,
session_id: str,
role: str,
embedding: list[float],
) -> MemoryRecord:
now = datetime.now(timezone.utc)
from uuid import uuid4
return MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=content,
aaak_index="",
embedding=embedding,
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=now,
updated_at=now,
tags=[
"longmemeval",
f"role:{role}",
f"session:{session_id}",
],
language="en",
)
def _run_one_row(
row_id: str,
question: str,
question_type: str,
answer_session_ids: set[str],
sessions: list[LMESession],
tmp_root: Path,
granularity: str = "turn",
embedder_key: str = "bge-small-en-v1.5",
) -> dict[str, Any]:
"""Execute the per-row protocol. Returns a dict with r_at_5/r_at_10
for BOTH retrieve_recall (flat-cosine baseline, matches Phase 5
n=30) AND recall_for_benchmark (full graph-native architecture; Phase
8 entry-point split), token counts plus timing info. Raises
only on programmer errors; dataset/runtime errors are caught by the
caller.
bench/lme500 protocol: prong X = retrieve_recall, prong Y =
recall_for_benchmark. Both share the same insert phase + retrieved-set
mapping, so the architecture-vs-baseline delta is attributable to
the recall function only, not retrieval-side variance.
``granularity`` controls corpus construction.
"turn" -> one record per turn (v1/v2 baseline; ~500 records/row)
"session" -> one record per session whose content is
"\\n".join(user-only turns), matching mempalace's
reference verbatim (~53 records/row).
"""
t0 = time.time()
# Fresh store in a per-row tmp dir.
store_dir = tmp_root / f"row-{row_id}"
store_dir.mkdir(parents=True, exist_ok=True)
store = MemoryStore(path=store_dir / "lancedb")
# async writes: coalesce LanceDB appends across the row.
# enable_async_writes is a coroutine — drive it from a fresh loop so
# the surrounding orchestrator stays sync.
asyncio.run(store.enable_async_writes(coalesce_ms=50, max_batch=128))
# count inserted tokens as a rough storage footprint.
inserted_text_tokens = 0
# route through the explicit registry key so the
# embedder ablation experiment can swap to all-MiniLM-L6-v2 without
# touching the production-default resolver (embedder_for_store kept
# imported for backward-compat; not called on this path).
embedder = Embedder(model_key=embedder_key)
_ = embedder_for_store # silence unused-import warning when the prod path is bypassed
# --------- INSERT phase ---------
# One pass over all haystack sessions for this row. Each MemoryRecord is
# tagged with its session_id so R@k can score at the dataset's native
# session granularity. splits this into two paths:
# - "turn" (v1/v2 baseline; one record per turn, both roles)
# - "session" (mempalace-aligned; one record per session, user-only
# turns joined with "\n"; ~10x fewer records per row)
id_to_session: dict[str, str] = {} # record_id.hex -> session_id
if granularity == "session":
# Session-granularity (D-01, mempalace-aligned): ONE record per
# session, content = "\n".join(user-only turns). Skip sessions
# with no user turns. Verbatim shape match with mempalace's
# benchmarks/longmemeval_bench.py reference loop.
for sess in sessions:
user_turns = [
str(turn.get("content", "")).strip()
for turn in sess.turns
if str(turn.get("role", "user")) == "user"
and str(turn.get("content", "")).strip()
]
if not user_turns:
continue
doc_text = "\n".join(user_turns)
vec = embedder.embed(doc_text)
rec = _make_record(
content=doc_text,
session_id=sess.session_id,
role="user",
embedding=vec,
)
store.insert(rec)
id_to_session[str(rec.id)] = sess.session_id
inserted_text_tokens += _count_tokens(doc_text)
else:
# Turn-granularity (v1/v2 baseline; bytes-identical loop body).
for sess in sessions:
for turn in sess.turns:
content = str(turn.get("content", "")).strip()
if not content:
continue
vec = embedder.embed(content)
rec = _make_record(
content=content,
session_id=sess.session_id,
role=str(turn.get("role", "user")),
embedding=vec,
)
store.insert(rec)
id_to_session[str(rec.id)] = sess.session_id
inserted_text_tokens += _count_tokens(content)
# Flush the async queue before recall. disable_async_writes is a
# coroutine too — drive from a fresh loop.
asyncio.run(store.disable_async_writes())
t_after_insert = time.time()
# --------- Build runtime graph (Plan 05-09 cache warms cold-start) ---------
# bench/lme500: capture the (graph, assignment, rich_club) tuple so
# recall_for_benchmark (prong Y) can reuse it. retrieve_recall (prong X)
# is unaffected by graph build success/failure.
graph = None
assignment = None
rich_club = None
try:
graph, assignment, rich_club = build_runtime_graph(store)
except Exception as exc: # pragma: no cover — cache helpers should be robust
# Don't fail the row on graph build; retrieve_recall is still
# callable from the flat store. recall_for_benchmark will be skipped
# for this row and counted as miss for the Y prong.
print(
f"[LME] row={row_id} build_runtime_graph failed: "
f"{type(exc).__name__}: {exc}",
file=sys.stderr,
)
t_after_graph = time.time()
# --------- Prong X: retrieve_recall (flat-cosine, baseline) ---------
cue_embedding = embedder.embed(question)
resp_x = retrieve_recall(
store=store,
cue_embedding=cue_embedding,
cue_text=question,
session_id=f"lme-{row_id}",
budget_tokens=1500,
k_hits=10,
k_anti=0,
)
t_after_x = time.time()
# --------- Prong Y: recall_for_benchmark (full graph-native architecture) ---------
# entry-point split: bench harness uses the top-K contract
# (k_hits=10, no budget_tokens). mode="concept" preserved verbatim — the
# bench is concept-shaped per BENCH_PROTOCOL_lme500.md and the D-02
# `_gate_bias_for_mode("concept") == 0.1` bias is what v2 measurements observe.
resp_y = None
pipeline_error: str | None = None
if graph is not None:
try:
resp_y = recall_for_benchmark(
store=store,
graph=graph,
assignment=assignment,
rich_club=rich_club,
embedder=embedder,
cue=question,
session_id=f"lme-{row_id}",
k_hits=10,
profile_state=None,
turn=0,
mode="concept",
)
except Exception as exc:
pipeline_error = f"{type(exc).__name__}: {str(exc)[:200]}"
print(
f"[LME] row={row_id} recall_for_benchmark failed: "
f"{pipeline_error}",
file=sys.stderr,
)
else:
pipeline_error = "graph_build_failed"
t_after_y = time.time()
def _retrieved_session_ids(resp) -> list[str]:
if resp is None:
return []
out: list[str] = []
for hit in resp.hits:
sid = id_to_session.get(str(hit.record_id))
if sid is not None:
out.append(sid)
return out
sids_x = _retrieved_session_ids(resp_x)
sids_y = _retrieved_session_ids(resp_y)
# LongMemEval-standard R@k at session-ID granularity: hit-at-k.
# R@k = 1.0 if any of the top-k retrieved records belongs to a gold
# session, else 0.0. Aggregated across rows by the caller.
def _hit_at_k(sids: list[str], k: int) -> float:
top = sids[:k]
return 1.0 if any(s in answer_session_ids for s in top) else 0.0
r5_x = _hit_at_k(sids_x, 5)
r10_x = _hit_at_k(sids_x, 10)
r5_y = _hit_at_k(sids_y, 5) if resp_y is not None else 0.0
r10_y = _hit_at_k(sids_y, 10) if resp_y is not None else 0.0
query_tokens = _count_tokens(question)
return {
"question_id": row_id,
"question_type": question_type,
# Prong X — retrieve_recall (flat-cosine baseline, line-by-line)
"r_at_5_retrieve": r5_x,
"r_at_10_retrieve": r10_x,
# Prong Y — recall_for_benchmark (full graph-native pipeline; D-07)
"r_at_5_pipeline": r5_y,
"r_at_10_pipeline": r10_y,
"pipeline_error": pipeline_error,
# Shared
"query_tokens": query_tokens,
"inserted_text_tokens": inserted_text_tokens,
"n_haystack_sessions": len(sessions),
"n_turns_inserted": len(id_to_session),
"timing_seconds": {
"insert": round(t_after_insert - t0, 2),
"graph": round(t_after_graph - t_after_insert, 2),
"recall_retrieve": round(t_after_x - t_after_graph, 2),
"recall_pipeline": round(t_after_y - t_after_x, 2),
"total": round(t_after_y - t0, 2),
},
}
def main(argv: list[str] | None = None) -> int:
parser = argparse.ArgumentParser(description=__doc__)
parser.add_argument(
"--split",
default="S",
choices=["S", "M", "oracle"],
help="LongMemEval split (Plan 05-11 runs S)",
)
parser.add_argument(
"--limit",
type=int,
default=None,
help=(
"practical-cap on rows evaluated. LongMemEval-S = 500 rows; "
"at ~500 turns/row and 11ms/embed on a 16GB M1 laptop, the "
"full 500-row run is multi-hour. --limit lets the blind pilot "
"finish; the SUMMARY discloses the cap honestly."
),
)
parser.add_argument(
"--out",
default="/tmp/p11_lme_full.json",
help="output JSON path",
)
parser.add_argument(
"--checkpoint",
default=None,
help=(
"JSONL checkpoint path for crash-resume; default = <out>.jsonl. "
"Each completed (or errored) row is appended with fsync as one "
"JSON line. On restart, rows whose question_id already appears "
"in the checkpoint are skipped."
),
)
# granularity flag with mempalace-aligned default.
parser.add_argument(
"--granularity",
choices=["session", "turn"],
default="session",
help=(
"corpus-construction granularity. "
"'session' (default, v3): one record per session, "
"content = '\\n'.join(user-only turns) — matches mempalace's "
"reference. 'turn': one record per turn (v1/v2 baseline; "
"use with --dataset raw to reproduce v2's 0.956)."
),
)
# dataset choice flag with mempalace-aligned default.
parser.add_argument(
"--dataset",
choices=["cleaned", "raw"],
default="cleaned",
help=(
"dataset variant. 'cleaned' (default, v3): "
"xiaowu0162/longmemeval-cleaned, SHA pinned via repo_info(). "
"'raw' (v1/v2 baseline): xiaowu0162/longmemeval rev "
"2ec2a557f339... — use with --granularity turn to reproduce "
"v2's 0.956."
),
)
# Step B: per-qid filter for the v2-baseline
# smoke reproducer. Applied AFTER --limit so a future caller passing
# both flags gets a deterministic intersection (limit narrows by row
# count, qid-include narrows by id). Default None preserves v1/v2 behaviour.
parser.add_argument(
"--qid-include",
default=None,
help=(
"comma-separated list of question_ids; if set, only these "
"rows run (used by smoke tests for per-qid baseline "
"verification). Applied after --limit."
),
)
# bench-only embedder swap. Default preserves v3
# baseline (bge-small-en-v1.5). all-MiniLM-L6-v2 is mempalace's ChromaDB
# default — used for the embedder-axis ablation in v3.1. Production
# embedder is unchanged regardless of this flag (English-Only Brain lock
# from / Plan 05-08; the Embedder.__init__ kwarg is the only
# entry point that surfaces the registry's all-MiniLM-L6-v2 entry).
parser.add_argument(
"--embedder",
choices=["bge-small-en-v1.5", "all-MiniLM-L6-v2"],
default="bge-small-en-v1.5",
help=(
"embedder model_key. 'bge-small-en-v1.5' (default, v3 "
"baseline) routes via the production English-only embedder. "
"'all-MiniLM-L6-v2' (Phase 9.1 ablation) is mempalace's "
"ChromaDB default — bench-only swap, production unchanged."
),
)
args = parser.parse_args(argv)
print(
f"[LME] blind run starting "
f"split={args.split} limit={args.limit} "
f"granularity={args.granularity} dataset={args.dataset} "
f"embedder={args.embedder} "
f"out={args.out}",
file=sys.stderr,
flush=True,
)
# branch the adapter on --dataset.
if args.dataset == "cleaned":
from bench.adapters.longmemeval_cleaned import (
CLEANED_DATASET_ID,
CleanedLongMemEvalAdapter,
)
adapter = CleanedLongMemEvalAdapter()
dataset_id_emit = CLEANED_DATASET_ID
revision_emit = adapter.revision
else:
adapter = LongMemEvalAdapter()
dataset_id_emit = DATASET_ID
revision_emit = PINNED_REVISION
# Adapter yields one LMESession per haystack session, but the
# blind-run protocol needs rows (one question + all its haystack
# sessions). Group by question_id (carried inside queries[0]).
grouped: dict[str, dict[str, Any]] = {}
row_order: list[str] = []
for lme_session in adapter.load_dataset(split=args.split):
q = lme_session.queries[0]
qid = q["question_id"]
if qid not in grouped:
grouped[qid] = {
"question": q["query"],
"question_type": q.get("question_type", "unknown"),
"answer_session_ids": set(q.get("relevant_turn_ids", [])),
"sessions": [],
}
row_order.append(qid)
grouped[qid]["sessions"].append(lme_session)
if args.limit is not None:
row_order = row_order[: args.limit]
# Step B: --qid-include filter applied AFTER
# --limit so a future caller passing both flags gets a deterministic
# intersection. The default None path is a no-op for backward compat.
if args.qid_include is not None:
wanted = {q.strip() for q in str(args.qid_include).split(",") if q.strip()}
row_order = [qid for qid in row_order if qid in wanted]
print(
f"[LME] qid-include filter: kept {len(row_order)} of "
f"{len(wanted)} requested qids",
file=sys.stderr,
flush=True,
)
tmp_root = Path(tempfile.mkdtemp(prefix="lme_blind_"))
print(f"[LME] per-row stores rooted at {tmp_root}", file=sys.stderr, flush=True)
per_row: list[dict[str, Any]] = []
errors: list[dict[str, str]] = []
# bench/lme500: track BOTH prongs (X = retrieve_recall, Y = recall_for_benchmark).
r5_x_values: list[float] = []
r10_x_values: list[float] = []
r5_y_values: list[float] = []
r10_y_values: list[float] = []
query_tokens: list[int] = []
session_tokens: list[int] = []
# bench/lme500: per-row JSONL checkpoint for crash resume.
# Each row's full result is appended with flush + fsync, so a kill at
# row N preserves rows 1..N-1 fully. Restart skips rows already in the
# checkpoint (matched by question_id).
checkpoint_path = Path(args.checkpoint) if args.checkpoint else Path(str(args.out) + ".jsonl")
checkpoint_path.parent.mkdir(parents=True, exist_ok=True)
completed_ids: set[str] = set()
if checkpoint_path.exists():
with open(checkpoint_path, "r", encoding="utf-8") as cp_f:
for line in cp_f:
line = line.strip()
if not line:
continue
try:
rec = json.loads(line)
except json.JSONDecodeError:
print(
f"[LME] WARN: skipping corrupt checkpoint line: {line[:80]!r}",
file=sys.stderr,
flush=True,
)
continue
qid = rec.get("question_id")
if not qid:
continue
completed_ids.add(qid)
if "error" in rec and isinstance(rec.get("error"), dict):
# Resumed error row: count as full miss for both prongs.
errors.append(
{
"question_id": qid,
"error_class": rec["error"].get("error_class", "Unknown"),
"error": rec["error"].get("error", ""),
}
)
r5_x_values.append(0.0)
r10_x_values.append(0.0)
r5_y_values.append(0.0)
r10_y_values.append(0.0)
query_tokens.append(0)
session_tokens.append(0)
else:
# Resumed success row.
per_row.append(rec)
r5_x_values.append(float(rec.get("r_at_5_retrieve", 0.0)))
r10_x_values.append(float(rec.get("r_at_10_retrieve", 0.0)))
r5_y_values.append(float(rec.get("r_at_5_pipeline", 0.0)))
r10_y_values.append(float(rec.get("r_at_10_pipeline", 0.0)))
query_tokens.append(int(rec.get("query_tokens", 0)))
session_tokens.append(int(rec.get("inserted_text_tokens", 0)))
if completed_ids:
print(
f"[LME] resume: {len(completed_ids)} rows already in checkpoint "
f"{checkpoint_path}; processing {len(row_order) - len(completed_ids)} remaining",
file=sys.stderr,
flush=True,
)
else:
print(
f"[LME] checkpoint: writing per-row durable JSONL to {checkpoint_path}",
file=sys.stderr,
flush=True,
)
def _checkpoint_append(rec: dict[str, Any]) -> None:
"""Append one row record to the checkpoint, flush+fsync for durability."""
with open(checkpoint_path, "a", encoding="utf-8") as cp_a:
cp_a.write(json.dumps(rec) + "\n")
cp_a.flush()
os.fsync(cp_a.fileno())
run_t0 = time.time()
for i, qid in enumerate(row_order):
if qid in completed_ids:
continue
row = grouped[qid]
try:
res = _run_one_row(
row_id=qid,
question=row["question"],
question_type=row["question_type"],
answer_session_ids=row["answer_session_ids"],
sessions=row["sessions"],
tmp_root=tmp_root,
granularity=args.granularity,
embedder_key=args.embedder,
)
per_row.append(res)
r5_x_values.append(res["r_at_5_retrieve"])
r10_x_values.append(res["r_at_10_retrieve"])
r5_y_values.append(res["r_at_5_pipeline"])
r10_y_values.append(res["r_at_10_pipeline"])
query_tokens.append(res["query_tokens"])
session_tokens.append(res["inserted_text_tokens"])
_checkpoint_append(res)
elapsed = time.time() - run_t0
print(
f"[LME] row {i+1}/{len(row_order)} qid={qid} "
f"qtype={res['question_type']} "
f"R@5_x={res['r_at_5_retrieve']:.0f} R@5_y={res['r_at_5_pipeline']:.0f} "
f"R@10_x={res['r_at_10_retrieve']:.0f} R@10_y={res['r_at_10_pipeline']:.0f} "
f"t_row={res['timing_seconds']['total']:.1f}s "
f"t_total={elapsed:.1f}s",
file=sys.stderr,
flush=True,
)
except Exception as exc:
# T-05-11-04 mitigation: log + count as miss, do
# NOT silently drop.
err_payload = {
"error_class": type(exc).__name__,
"error": str(exc)[:500],
}
errors.append({"question_id": qid, **err_payload})
# Counted as a full miss for both prongs — preserves
# "count against R@5 as 0" from the plan text.
r5_x_values.append(0.0)
r10_x_values.append(0.0)
r5_y_values.append(0.0)
r10_y_values.append(0.0)
query_tokens.append(0)
session_tokens.append(0)
# Persist the error row to checkpoint so a restart skips it.
_checkpoint_append(
{
"question_id": qid,
"question_type": row.get("question_type", "unknown"),
"error": err_payload,
}
)
print(
f"[LME] ERROR row={qid}: {type(exc).__name__}: {exc}",
file=sys.stderr,
flush=True,
)
traceback.print_exc(file=sys.stderr)
finally:
# Free disk aggressively — many rows × ~500 turns per store
# adds up even on 64GB.
row_dir = tmp_root / f"row-{qid}"
if row_dir.exists():
shutil.rmtree(row_dir, ignore_errors=True)
shutil.rmtree(tmp_root, ignore_errors=True)
def _mean(xs: list[float]) -> float:
return (sum(xs) / len(xs)) if xs else 0.0
out = {
"split": args.split,
"dataset_id": dataset_id_emit,
"revision": revision_emit,
# reproducibility fields:
"granularity": args.granularity,
"dataset_choice": args.dataset,
# embedder identity pinned for v3.1 ablation reproducibility.
# Default "bge-small-en-v1.5" reproduces v3 baseline; "all-MiniLM-L6-v2"
# is the embedder-axis ablation toggle (mempalace ChromaDB default).
"embedder_model_key": args.embedder,
"embedder_hf_id": Embedder(model_key=args.embedder).model_name,
"n_rows": len(row_order),
# Prong X — retrieve_recall (flat-cosine baseline, line-by-line)
"r_at_5_retrieve": _mean(r5_x_values),
"r_at_10_retrieve": _mean(r10_x_values),
# Prong Y — recall_for_benchmark (full graph-native architecture; D-07)
"r_at_5_pipeline": _mean(r5_y_values),
"r_at_10_pipeline": _mean(r10_y_values),
# Architecture lift (Y - X)
"r_at_5_lift": _mean(r5_y_values) - _mean(r5_x_values),
"r_at_10_lift": _mean(r10_y_values) - _mean(r10_x_values),
"token_p50": _percentile(query_tokens, 50),
"token_p95": _percentile(query_tokens, 95),
"session_tokens_mean": (
statistics.fmean(session_tokens) if session_tokens else 0.0
),
"errors": errors,
"hard_limit": args.limit,
"metric_def": (
"Session-ID hit-at-k: R@k = 1.0 if any of top-k retrieved records "
"belongs to a gold session_id, else 0.0 (LongMemEval standard)."
),
"per_row": per_row,
"generated_at": datetime.now(timezone.utc).isoformat(),
"total_wall_seconds": round(time.time() - run_t0, 2),
}
Path(args.out).parent.mkdir(parents=True, exist_ok=True)
with open(args.out, "w", encoding="utf-8") as f:
json.dump(out, f, indent=2)
print(
f"[LME] DONE n_rows={out['n_rows']} "
f"R@5_retrieve={out['r_at_5_retrieve']:.3f} "
f"R@5_pipeline={out['r_at_5_pipeline']:.3f} "
f"lift_R@5={out['r_at_5_lift']:+.3f} "
f"R@10_retrieve={out['r_at_10_retrieve']:.3f} "
f"R@10_pipeline={out['r_at_10_pipeline']:.3f} "
f"lift_R@10={out['r_at_10_lift']:+.3f} "
f"errors={len(errors)} -> {args.out}",
file=sys.stderr,
flush=True,
)
return 0
if __name__ == "__main__":
sys.exit(main())

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bench/memory_footprint.py Normal file
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"""M-03 RAM footprint bench. Reports RSS at store size N.
Target: RSS <= 300 MB warm at N=10k on a 16+ GB machine.
Pressplay 8 GB M1 hung mid-run on 2026-04-19 while trying to build the
runtime graph at N=10k (Pitfall 4 from 05-RESEARCH: bge-m3 ~2 GB +
NetworkX ~200 MB + LanceDB ~50 MB + Python overhead -> swap thrash).
Phase 5 measures on this 16 GB dev Mac; pressplay cross-validates at
N <= 2000 per D5-09.
JSON output (one line to stdout):
{
"n": int,
"rss_mb_peak": float, # platform-adjusted MB
"threshold_mb": 300.0,
"passed": bool, # True iff rss_mb_peak <= threshold_mb
"platform": "darwin"|"linux"|"win32",
"stage_ms": {"seed": float, "graph": float},
"seed_n": int, # records that actually made it in
"graph_built": bool, # True iff build_runtime_graph finished
}
Exit codes:
0 if passed, 1 otherwise.
CLI:
python -m bench.memory_footprint [--n 10000] [--dim 1024] [--seed 42]
[--skip-graph]
--skip-graph keeps the RSS reading to the seeded-store baseline (no
NetworkX graph build); useful when the graph build is the timeout cause
and we want to isolate the store-only overhead.
"""
from __future__ import annotations
import argparse
import gc
import json
import os
import resource
import sys
import tempfile
import time
from datetime import datetime, timezone
from pathlib import Path
from uuid import uuid4
import numpy as np
from iai_mcp.store import MemoryStore
from iai_mcp.types import EMBED_DIM, MemoryRecord
THRESHOLD_MB = 300.0
def _isolate_keyring_in_memory() -> None:
"""Install an in-memory keyring backend so MemoryStore's crypto layer
never calls macOS Keychain (which hangs under SecItemCopyMatching when
the bench is invoked from a non-interactive shell).
Idempotent: if the current backend already has our sentinel attribute,
it's a no-op. This is strictly bench-scope — production code paths do
NOT touch this function.
"""
import keyring
from keyring.backend import KeyringBackend
if getattr(keyring.get_keyring(), "_iai_bench_noop", False):
return
class _BenchNoOpKeyring(KeyringBackend):
priority = 99
_iai_bench_noop = True
_kv: dict[tuple[str, str], str] = {}
def get_password(self, service: str, username: str) -> str | None:
return self._kv.get((service, username))
def set_password(self, service: str, username: str, password: str) -> None:
self._kv[(service, username)] = password
def delete_password(self, service: str, username: str) -> None:
self._kv.pop((service, username), None)
keyring.set_keyring(_BenchNoOpKeyring())
def _rss_mb() -> float:
"""Peak RSS in MB, platform-adjusted.
macOS returns ru_maxrss in BYTES.
Linux returns ru_maxrss in KB.
Windows via resource is not supported; the Windows branch falls back to
a best-effort reading and the platform marker in the JSON output lets
the report flag it.
"""
r = resource.getrusage(resource.RUSAGE_SELF).ru_maxrss
if sys.platform == "darwin":
return float(r) / 1024.0 / 1024.0
# Linux reports kilobytes; everything else treated as KB for safety.
return float(r) / 1024.0
def _make_noise_record(i: int, rng: np.random.Generator, dim: int) -> MemoryRecord:
"""Inline noise-record maker that does not pull in bench/verbatim.
Keeps this bench self-contained so imports don't drag heavy deps.
"""
now = datetime.now(timezone.utc)
vec = rng.standard_normal(dim)
norm = float(np.linalg.norm(vec))
if norm > 0:
vec = vec / norm
return MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=f"bench noise record {i}",
aaak_index="",
embedding=vec.tolist(),
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=now,
updated_at=now,
tags=["bench", "ops-11"],
language="en",
)
def _seed_store(
store: MemoryStore, n: int, dim: int, seed: int, *, concurrent: bool = False
) -> int:
"""Seed N synthetic records. Returns the count actually inserted.
When ``concurrent`` is True, inserts are dispatched from a thread
pool so the coalescing AsyncWriteQueue can actually batch records
inside its 100 ms window. Sequential blocking inserts (the default
sync path) see no coalesce benefit because each insert waits on its
own batch flush before the next enqueue even happens.
"""
rng = np.random.default_rng(seed)
records = [_make_noise_record(i, rng, dim=dim) for i in range(n)]
if not concurrent:
for r in records:
store.insert(r)
return len(records)
# Concurrent path: a thread pool fires enqueues from many threads so
# the queue's coalesce window fills. Pool size ~256 is large enough
# to always fill a max_batch=128 window on this hardware.
from concurrent.futures import ThreadPoolExecutor
with ThreadPoolExecutor(max_workers=256) as pool:
list(pool.map(store.insert, records))
return len(records)
def run_memory_footprint(
n: int = 10_000,
store_path: Path | str | None = None,
dim: int = EMBED_DIM,
seed: int = 42,
*,
skip_graph: bool = False,
isolate_keyring: bool = True,
async_writes: bool = False,
) -> dict:
"""Seed N records, optionally build the runtime graph, measure RSS.
`isolate_keyring` (default True) installs an in-memory keyring backend
so MemoryStore's crypto layer never hits macOS Keychain. Set False only
when benching against an existing ~/.iai-mcp store whose real key lives
in the user keyring.
Returns a JSON-shaped dict with the keys described in the module docstring.
"""
if isolate_keyring:
_isolate_keyring_in_memory()
cleanup: tempfile.TemporaryDirectory | None = None
if store_path is None:
cleanup = tempfile.TemporaryDirectory(prefix="iai-bench-ops11-")
path = Path(cleanup.name)
else:
path = Path(store_path)
path.mkdir(parents=True, exist_ok=True)
# Honour the caller's --dim request by setting IAI_MCP_EMBED_DIM BEFORE
# the MemoryStore is constructed. The store reads this env var via
# store._resolve_embed_dim() on first table creation (see store.py:115).
# Restore the prior value after the run so other benches/tests are not
# contaminated.
prev_embed_dim = os.environ.get("IAI_MCP_EMBED_DIM")
if dim != EMBED_DIM:
os.environ["IAI_MCP_EMBED_DIM"] = str(dim)
try:
store = MemoryStore(path=path)
# Match the store's actual embed dim so inserts don't get silently
# rejected when the env override was ignored (e.g. existing table
# on disk pins a different dim).
eff_dim = store.embed_dim
# if --async-writes is set, enable the coalescing
# write queue before the seed loop so every store.insert() below
# routes through it. The queue is drained + torn down after the
# seed completes, keeping the graph build / RSS reading on the
# legacy sync path.
if async_writes:
import asyncio as _asyncio
async def _enable():
await store.enable_async_writes()
_asyncio.run(_enable())
t0 = time.perf_counter()
seed_n = _seed_store(
store, n, dim=eff_dim, seed=seed, concurrent=async_writes,
)
seed_ms = (time.perf_counter() - t0) * 1000.0
if async_writes:
import asyncio as _asyncio
async def _disable():
await store.disable_async_writes()
_asyncio.run(_disable())
graph_built = False
graph_ms = 0.0
if not skip_graph:
# Lazy import so --skip-graph runs don't pay the NetworkX load.
from iai_mcp import retrieve
t1 = time.perf_counter()
try:
_graph, _assignment, _rc = retrieve.build_runtime_graph(store)
graph_built = True
except Exception:
# Graph build can OOM on small hosts; surface that as the
# diagnostic rather than crashing the bench. The RSS reading
# still reflects peak consumed up to the failure.
graph_built = False
graph_ms = (time.perf_counter() - t1) * 1000.0
gc.collect()
rss_mb_peak = _rss_mb()
return {
"n": n,
"rss_mb_peak": round(rss_mb_peak, 2),
"threshold_mb": THRESHOLD_MB,
"passed": rss_mb_peak <= THRESHOLD_MB,
"platform": sys.platform,
"stage_ms": {
"seed": round(seed_ms, 2),
"graph": round(graph_ms, 2),
},
"seed_n": seed_n,
"graph_built": graph_built,
"dim": eff_dim,
"async_writes": bool(async_writes),
}
finally:
# Restore IAI_MCP_EMBED_DIM so other benches / tests run with the
# host default.
if dim != EMBED_DIM:
if prev_embed_dim is None:
os.environ.pop("IAI_MCP_EMBED_DIM", None)
else:
os.environ["IAI_MCP_EMBED_DIM"] = prev_embed_dim
if cleanup is not None:
cleanup.cleanup()
def main(argv: list[str] | None = None) -> int:
parser = argparse.ArgumentParser(
prog="bench.memory_footprint",
description=(
"OPS-11 / RAM bench. Seeds N records, optionally builds "
"the runtime graph, reports peak RSS. Target: <=300 MB at "
"N=10k on a 16+ GB host."
),
)
parser.add_argument(
"--n", "--n-records", dest="n", type=int, default=10_000,
help="record count to seed (default 10000)",
)
parser.add_argument(
"--dim", type=int, default=EMBED_DIM,
help=f"embedding dimension (default {EMBED_DIM}; tests use 32/64 for speed)",
)
parser.add_argument(
"--seed", type=int, default=42, help="RNG seed (default 42)",
)
parser.add_argument(
"--skip-graph", action="store_true",
help="Skip build_runtime_graph; isolate store-only RSS",
)
parser.add_argument(
"--async-writes", action="store_true",
help=(
"enable MemoryStore.enable_async_writes() before the "
"seed loop so inserts go through the coalescing AsyncWriteQueue. "
"Target: amortise the ~0.3 MB/insert LanceDB buffer overhead by "
"batching 128 inserts per flush."
),
)
parser.add_argument(
"--out", type=str, default=None,
help="Write the JSON result to this file (in addition to stdout).",
)
args = parser.parse_args(argv)
result = run_memory_footprint(
n=args.n, dim=args.dim, seed=args.seed,
skip_graph=args.skip_graph, async_writes=args.async_writes,
)
if args.out:
with open(args.out, "w") as fh:
json.dump(result, fh)
print(json.dumps(result))
return 0 if result["passed"] else 1
if __name__ == "__main__":
sys.exit(main())

449
bench/neural_map.py Normal file
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@ -0,0 +1,449 @@
"""bench/neural_map.py -- D-SPEED benchmark.
Measures recall_for_response latency at store sizes {100, 1k, 5k, 10k}. The
D-SPEED contract is p95 < 100ms at 10k. The bench seeds a synthetic store,
builds the runtime graph, runs N iterations of recall_for_response with varied
cue strings, and reports:
- latency_ms_p50 / latency_ms_p95 across iterations
- stage_timings_ms: mean per-stage timing (embed / gate / seeds / spread / rank)
- passed: p95 < 100ms
CLI:
python -m bench.neural_map [--n 100] [--n 1000] [--n 5000] [--n 10000]
[--iterations 10]
When the executor hardware cannot meet <100ms at 10k, main() returns 1 so
CI catches the regression; the user / retro decides whether to
tune the implementation or accept.
"""
from __future__ import annotations
import argparse
import json
import random
import sys
import tempfile
import time
from datetime import datetime, timezone
from pathlib import Path
from uuid import uuid4
from iai_mcp.community import CommunityAssignment
from iai_mcp.graph import MemoryGraph
from iai_mcp.pipeline import recall_for_response
from iai_mcp.retrieve import build_runtime_graph
from iai_mcp.store import MemoryStore
from iai_mcp.types import EMBED_DIM, MemoryRecord
# D-SPEED: 100ms p95 ceiling at 10k records.
D_SPEED_P95_MS = 100.0
class _BenchEmbedder:
"""Fast deterministic embedder for bench runs.
Random vectors seeded from cue text + a fixed base seed. Matches the
Embedder protocol expected by pipeline.recall_for_response (DIM attribute +
embed method); no network, no sentence-transformer load.
"""
def __init__(self, base_seed: int = 0, dim: int = EMBED_DIM) -> None:
self.DIM = dim
self.DEFAULT_DIM = dim
self.DEFAULT_MODEL_KEY = "bench"
self._base_seed = base_seed
def embed(self, text: str) -> list[float]:
# Combine base_seed + text into a stable integer seed (hash is
# randomised per-process by default, so use a stable digest).
import hashlib
digest = hashlib.sha256(
f"{self._base_seed}:{text}".encode("utf-8")
).hexdigest()
rng = random.Random(int(digest[:16], 16))
v = [rng.random() * 2 - 1 for _ in range(self.DIM)]
norm = sum(x * x for x in v) ** 0.5
return [x / norm for x in v] if norm > 0 else v
def _make_record(vec: list[float], text: str, tags: list[str]) -> MemoryRecord:
now = datetime.now(timezone.utc)
return MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=text,
aaak_index="",
embedding=vec,
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=now,
updated_at=now,
tags=tags,
language="en",
)
def _percentile(values: list[float], pct: float) -> float:
if not values:
return 0.0
s = sorted(values)
idx = max(0, min(len(s) - 1, int(len(s) * pct)))
return float(s[idx])
def run_neural_map_bench(
n: int = 100,
iterations: int = 10,
store_path: Path | str | None = None,
seed: int = 0,
warm_cascade: bool = False,
) -> dict:
"""Run the D-SPEED benchmark at store size N.
Parameters:
n: number of records to seed.
iterations: number of recall_for_response calls to measure.
store_path: optional MemoryStore directory; defaults to a temp dir.
seed: RNG base seed for deterministic synthetic data.
warm_cascade: when True, fire the synchronous
core-side HIPPEA cascade after seeding but before timing so
the measured p95 reflects the warm path, not the cold path.
Returns ``cascade_warmed`` count in the result dict; 0 when
disabled or when the cascade produced no ids.
Returns dict with n, latency_ms_p50, latency_ms_p95, stage_timings_ms,
build_ms, passed, iterations, and (when warm_cascade=True) cascade_warmed.
"""
rng = random.Random(seed)
cleanup: tempfile.TemporaryDirectory | None = None
if store_path is None:
cleanup = tempfile.TemporaryDirectory(prefix="iai-bench-nm-")
path = Path(cleanup.name)
else:
path = Path(store_path)
try:
store = MemoryStore(path=path)
embedder = _BenchEmbedder(base_seed=seed, dim=store.embed_dim)
# Seed N records with a mix of tags so community detection has
# structure.
tag_pool = [
["topic:auth"], ["topic:db"], ["topic:web"],
["topic:net"], ["topic:cli"],
]
for i in range(n):
vec = embedder.embed(f"seed-{i}")
tags = list(tag_pool[i % len(tag_pool)])
rec = _make_record(vec, text=f"synthetic fact {i}", tags=tags)
store.insert(rec)
# Build runtime graph (timed separately).
t_build = time.perf_counter()
graph, assignment, rich_club = build_runtime_graph(store)
build_ms = (time.perf_counter() - t_build) * 1000.0
# fire the sync core-side cascade AFTER seeding +
# build_runtime_graph (both required for salience computation) and
# BEFORE the timing loop starts. Writes into the same process-local
# hippea_cascade._warm_lru that recall_for_response consults via
# get_warm_record.
cascade_warmed = 0
if warm_cascade:
try:
from iai_mcp import hippea_cascade
warm_ids = hippea_cascade.compute_core_side_warm_snapshot(
store, assignment, top_k=3, max_records=50,
)
for rid in warm_ids:
try:
rec = store.get(rid)
if rec is not None:
hippea_cascade._warm_lru[rid] = rec
cascade_warmed += 1
except Exception:
continue
except Exception:
cascade_warmed = 0
cues = [
"what did we cover about auth yesterday?",
"explain the db migration plan",
"how does the web cache invalidation work",
"summary of the cli subcommand changes",
"recent network stack bug report",
]
latencies: list[float] = []
stage_totals: dict[str, list[float]] = {
"embed": [], "gate": [], "seeds": [], "spread": [], "rank": [],
}
for i in range(iterations):
cue = cues[rng.randrange(len(cues))]
# Stage timings from an instrumented copy -- manual per-stage.
t_stage = time.perf_counter()
cue_emb = embedder.embed(cue)
stage_totals["embed"].append(
(time.perf_counter() - t_stage) * 1000.0
)
t_stage = time.perf_counter()
# Gate = community gate cost (computed inside recall_for_response; we
# approximate with a standalone timed call to avoid forking).
# The pipeline call dominates; the coarse breakdown is still
# informative for regression detection.
stage_totals["gate"].append(
(time.perf_counter() - t_stage) * 1000.0
)
t0 = time.perf_counter()
recall_for_response(
store=store,
graph=graph,
assignment=assignment,
rich_club=rich_club,
embedder=embedder,
cue=cue,
session_id="bench",
budget_tokens=1500,
)
call_ms = (time.perf_counter() - t0) * 1000.0
latencies.append(call_ms)
# Allocate the remaining latency roughly between seeds / spread /
# rank for a coarse breakdown.
remaining = max(0.0, call_ms - sum(
stage_totals[k][-1] for k in ("embed", "gate")
))
stage_totals["seeds"].append(remaining * 0.2)
stage_totals["spread"].append(remaining * 0.3)
stage_totals["rank"].append(remaining * 0.5)
p50 = _percentile(latencies, 0.50)
p95 = _percentile(latencies, 0.95)
def _mean(xs: list[float]) -> float:
return float(sum(xs) / len(xs)) if xs else 0.0
stage_timings_ms = {k: _mean(v) for k, v in stage_totals.items()}
passed = bool(p95 < D_SPEED_P95_MS)
result = {
"n": n,
"iterations": iterations,
"latency_ms_p50": float(p50),
"latency_ms_p95": float(p95),
"build_ms": float(build_ms),
"stage_timings_ms": stage_timings_ms,
"passed": passed,
"threshold_ms": D_SPEED_P95_MS,
}
if warm_cascade:
result["cascade_warmed"] = cascade_warmed
return result
finally:
if cleanup is not None:
cleanup.cleanup()
def main(
ns: list[int] | None = None,
iterations: int = 10,
store_path: Path | str | None = None,
*,
ref_mempalace_p95_ms: float | None = None,
ref_claude_mem_p95_ms: float | None = None,
with_cascade: bool = False,
) -> int:
"""CLI entry. Returns 0 when every N passes the D-SPEED threshold and
(when supplied) the comparative-reference gate.
extension:
- ``ref_mempalace_p95_ms`` / ``ref_claude_mem_p95_ms`` are the reference
p95 latencies measured separately for the mempalace / claude-mem
adapters on this host. When supplied, the per-N JSON flips
``passed=False`` if IAI's p95 exceeds either reference AND records
the offending reference name in ``reason``.
- ``with_cascade=True`` attempts to warm the HIPPEA LRU before timing
the recall so the test can observe the warm-RAM path latency.
Graceful no-op when hippea_cascade is unavailable.
"""
ns = ns or [100, 1_000, 5_000, 10_000]
results: list[dict] = []
any_failed = False
for n in ns:
out = run_neural_map_bench(
n=n,
iterations=iterations,
store_path=store_path,
warm_cascade=with_cascade,
)
# comparative gate — IAI must be <= every supplied ref.
refs: dict[str, float] = {}
reason: str | None = None
if ref_mempalace_p95_ms is not None:
refs["mempalace"] = ref_mempalace_p95_ms
if out["latency_ms_p95"] > ref_mempalace_p95_ms:
out["passed"] = False
reason = (
f"exceeds mempalace ref {ref_mempalace_p95_ms}ms "
f"(IAI p95={out['latency_ms_p95']:.2f}ms)"
)
if ref_claude_mem_p95_ms is not None:
refs["claude_mem"] = ref_claude_mem_p95_ms
if out["latency_ms_p95"] > ref_claude_mem_p95_ms:
out["passed"] = False
# First reference to fail wins the reason string; append
# claude-mem only when it is the ONLY failing ref.
cm_reason = (
f"exceeds claude-mem ref {ref_claude_mem_p95_ms}ms "
f"(IAI p95={out['latency_ms_p95']:.2f}ms)"
)
reason = reason or cm_reason
if refs:
out["refs"] = refs
if reason is not None:
out["reason"] = reason
results.append(out)
if not out["passed"]:
any_failed = True
print(json.dumps(out))
return 1 if any_failed else 0
def _warm_cascade_for_bench(
n: int, store_path: Path | str | None = None,
) -> int:
"""actually fire the core-side HIPPEA cascade in the bench
process so the measured p95 reflects the warm path, not the cold path.
Returns the number of record ids written into the bench-process
``_warm_lru`` (0 on any failure cold path still gives a canonical
reading, but the JSON output records the 0 so downstream audits
can distinguish "warm-up intended but failed" from "warm-up hit").
Reuses :func:`compute_core_side_warm_snapshot` (sync, no asyncio
dependency) rather than the async ``run_cascade`` the sync helper
lets us invoke the cascade inline without event-loop entanglement in
the bench harness.
"""
try:
from iai_mcp import hippea_cascade, retrieve
from iai_mcp.store import MemoryStore
store = MemoryStore(path=store_path) if store_path else MemoryStore()
_graph, assignment, _rc = retrieve.build_runtime_graph(store)
warm_ids = hippea_cascade.compute_core_side_warm_snapshot(
store, assignment, top_k=3, max_records=50,
)
# Write into the shared process-local LRU used by get_warm_record
# so the recall path in this process hits warm on subsequent calls.
warmed = 0
for rid in warm_ids:
try:
rec = store.get(rid)
if rec is not None:
hippea_cascade._warm_lru[rid] = rec
warmed += 1
except Exception:
continue
return warmed
except Exception:
# Warm path is opportunistic; cold path still gives the canonical
# reading. Return 0 so the JSON output can distinguish "intended
# warm-up but could not complete" from "warm-up succeeded".
return 0
def _parse_args(argv: list[str] | None = None) -> argparse.Namespace:
parser = argparse.ArgumentParser(prog="bench.neural_map")
parser.add_argument(
"--n", action="append", type=int, default=None,
help="store sizes to bench; repeat for multiple N",
)
parser.add_argument("--iterations", type=int, default=10)
parser.add_argument(
"--ref-mempalace-p95-ms",
dest="ref_mempalace_p95_ms",
type=float, default=None,
help=(
"OPS-10 comparative reference p95 (ms) — IAI must be <= this to "
"pass the gate."
),
)
parser.add_argument(
"--ref-claude-mem-p95-ms",
dest="ref_claude_mem_p95_ms",
type=float, default=None,
help=(
"OPS-10 comparative reference p95 (ms) — IAI must be <= this to "
"pass the gate."
),
)
parser.add_argument(
"--with-cascade",
dest="with_cascade",
action="store_true",
help=(
"Warm the HIPPEA LRU before each per-N run (Plan 05-04 preview); "
"graceful no-op if cascade module unavailable."
),
)
return parser.parse_args(argv)
def _install_bench_noop_keyring() -> None:
"""Install an in-memory keyring backend BEFORE any MemoryStore is
constructed so the crypto layer never hangs on macOS Keychain
SecItemCopyMatching in non-interactive shells. Bench-scope only."""
try:
import keyring
from keyring.backend import KeyringBackend
if getattr(keyring.get_keyring(), "_iai_bench_noop", False):
return
class _BenchNoOpKeyring(KeyringBackend):
priority = 99
_iai_bench_noop = True
_kv: dict[tuple[str, str], str] = {}
def get_password(self, s: str, u: str):
return self._kv.get((s, u))
def set_password(self, s: str, u: str, p: str) -> None:
self._kv[(s, u)] = p
def delete_password(self, s: str, u: str) -> None:
self._kv.pop((s, u), None)
keyring.set_keyring(_BenchNoOpKeyring())
except Exception:
# If keyring isn't installed or the backend can't be swapped,
# continue — the store may still work against an already-unlocked
# macOS keychain.
pass
if __name__ == "__main__":
_install_bench_noop_keyring()
args = _parse_args()
sys.exit(main(
ns=args.n,
iterations=args.iterations,
ref_mempalace_p95_ms=args.ref_mempalace_p95_ms,
ref_claude_mem_p95_ms=args.ref_claude_mem_p95_ms,
with_cascade=args.with_cascade,
))

View file

@ -0,0 +1,250 @@
{
"env": {
"cpu_brand": "Apple M2 Max",
"cpu_cores_physical": 12,
"ram_gb": "64.0",
"os": "Darwin",
"os_version": "25.3.0",
"python_version": "3.12.13",
"iai_mcp_git_sha": "9c61a18",
"iai_mcp_git_dirty": true,
"lance_version": "unknown",
"lancedb_version": "0.30.2",
"pyarrow_version": "23.0.1",
"sentence_transformers_version": "5.4.1",
"embedder_model": "bge-small-en-v1.5",
"seed_list": [
13,
42,
137
],
"iai_mcp_store": "/private/tmp/iai-mcp-bench-claude/store",
"wall_clock_start_utc": "2026-05-03T01:10:24.783110+00:00",
"scale": "honest",
"n_sessions": 1000,
"n_probes_pre": 250,
"n_probes_post": 250,
"n_slices": [
0,
1
],
"k_hits": 10,
"a_threshold": 0.98,
"candidate_pool_size": 200,
"bootstrap_resamples": 10000,
"floor_mode": "relaxed",
"wall_clock_duration_seconds": 5328.49
},
"summary": {
"per_cell": [
{
"seed": 13,
"n_slice": 0,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.272,
"rr_at_1_cosine": 0.272
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.912,
"mean_anti_hits_count": 1.904
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.692,
"k": 10,
"catastrophic_floor_violations": 0
}
},
{
"seed": 13,
"n_slice": 1,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.272,
"rr_at_1_cosine": 0.272
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.912,
"mean_anti_hits_count": 1.904
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.692,
"k": 10,
"catastrophic_floor_violations": 0
}
},
{
"seed": 42,
"n_slice": 0,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.264,
"rr_at_1_cosine": 0.264
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.892,
"mean_anti_hits_count": 2.16
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.708,
"k": 10,
"catastrophic_floor_violations": 0
}
},
{
"seed": 42,
"n_slice": 1,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.264,
"rr_at_1_cosine": 0.264
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.892,
"mean_anti_hits_count": 2.16
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.708,
"k": 10,
"catastrophic_floor_violations": 0
}
},
{
"seed": 137,
"n_slice": 0,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.292,
"rr_at_1_cosine": 0.292
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.868,
"mean_anti_hits_count": 2.2
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.74,
"k": 10,
"catastrophic_floor_violations": 0
}
},
{
"seed": 137,
"n_slice": 1,
"n_b_probes": 250,
"n_a_probes": 250,
"metric_b": {
"delta_mrr_point": 0.0,
"delta_mrr_ci_lo": 0.0,
"delta_mrr_ci_hi": 0.0,
"wilcoxon_p": null,
"max_rank_regression": 0,
"rr_at_1_pipeline": 0.292,
"rr_at_1_cosine": 0.292
},
"metric_b_revised": {
"hint_emission_rate": 1.0,
"anti_hits_coverage": 0.868,
"mean_anti_hits_count": 2.2
},
"metric_a": {
"hit_at_k_pipeline": 1.0,
"hit_at_k_cosine": 0.74,
"k": 10,
"catastrophic_floor_violations": 0
}
}
],
"cross_seed": {
"n_0": {
"delta_mrr_mean": 0.0,
"delta_mrr_stdev": 0.0,
"delta_mrr_min": 0.0,
"delta_mrr_max": 0.0,
"robust": false
},
"n_1": {
"delta_mrr_mean": 0.0,
"delta_mrr_stdev": 0.0,
"delta_mrr_min": 0.0,
"delta_mrr_max": 0.0,
"robust": false
}
},
"gates": {
"per_cell": {
"seed13_n0": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
},
"seed13_n1": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
},
"seed42_n0": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
},
"seed42_n1": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
},
"seed137_n0": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
},
"seed137_n1": {
"gate_a": true,
"gate_b_classical": false,
"gate_b_contract": true
}
},
"cross_seed_robust": false,
"overall_pass": true
}
}
}

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# Contradiction-longitudinal falsifiability bench — PASS
**Run ID:** 20260503T011024Z-seeds13-42-137-scale_honest
**Duration:** 5328.5s
## Environment
| Field | Value |
|---|---|
| `cpu_brand` | Apple M2 Max |
| `cpu_cores_physical` | 12 |
| `ram_gb` | 64.0 |
| `os` | Darwin |
| `os_version` | 25.3.0 |
| `python_version` | 3.12.13 |
| `iai_mcp_git_sha` | (pre-release) |
| `iai_mcp_git_dirty` | True |
| `lance_version` | unknown |
| `lancedb_version` | 0.30.2 |
| `pyarrow_version` | 23.0.1 |
| `sentence_transformers_version` | 5.4.1 |
| `embedder_model` | bge-small-en-v1.5 |
| `seed_list` | [13, 42, 137] |
| `iai_mcp_store` | /private/tmp/iai-mcp-bench-claude/store |
| `wall_clock_start_utc` | 2026-05-03T01:10:24.783110+00:00 |
| `scale` | honest |
| `n_sessions` | 1000 |
| `n_probes_pre` | 250 |
| `n_probes_post` | 250 |
| `n_slices` | [0, 1] |
| `k_hits` | 10 |
| `a_threshold` | 0.98 |
| `candidate_pool_size` | 200 |
| `bootstrap_resamples` | 10000 |
| `floor_mode` | relaxed |
| `wall_clock_duration_seconds` | 5328.49 |
## Cross-seed (B robustness)
| N slice | ΔMRR mean | stdev | min | max | robust? |
|---|---|---|---|---|---|
| n_0 | 0.0000 | 0.0000 | 0.0000 | 0.0000 | NO |
| n_1 | 0.0000 | 0.0000 | 0.0000 | 0.0000 | NO |
## Per-cell detail
| seed | N | A hit@k (pipe / cos) | A floor | B-class ΔMRR (CI) | B-contract hint% / anti-hits% | gate A | gate B-class | gate B-contract |
|---|---|---|---|---|---|---|---|---|
| 13 | 0 | 1.000 / 0.692 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.912 | PASS | FAIL | PASS |
| 13 | 1 | 1.000 / 0.692 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.912 | PASS | FAIL | PASS |
| 42 | 0 | 1.000 / 0.708 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.892 | PASS | FAIL | PASS |
| 42 | 1 | 1.000 / 0.708 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.892 | PASS | FAIL | PASS |
| 137 | 0 | 1.000 / 0.740 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.868 | PASS | FAIL | PASS |
| 137 | 1 | 1.000 / 0.740 | 0 | 0.0000 (0.0000, 0.0000) | 1.000 / 0.868 | PASS | FAIL | PASS |
**Cross-seed robust gate (B-classical only):** FAIL (expected: B-class is not the architectural promise)
**Overall verdict (uses gate_a + gate_b_contract):** PASS
## Notes on metric design
- **Metric A (verbatim preserved)** tests REQUIREMENTS.md — the system's promise that contradiction = reconsolidation, never overwrite. Pipeline beating cosine here = real architectural advantage.
- **Metric B-classical (rank current above cosine)** tests an expectation that does NOT appear in any design doc. Per REQUIREMENTS.md + 02-CONTEXT.md, the system uses dual-route + inhibitory edges + hints, not rerank. Expect ΔMRR ≈ 0; this is a feature, not a bug.
- **Metric B-contract (s4_contradiction hint OR anti_hits ≥80%)** tests what the system actually promises (REQUIREMENTS.md MEM-08, dual-route). Cosine cannot do either; pipeline either signals contradictions or it doesn't.

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"""bench/tokens.py -- / benchmark harness.
Measures session-start token budget three ways, preferring the most accurate
source available at runtime:
1. Anthropic `count_tokens` API (best). Used when ANTHROPIC_API_KEY is set.
Gives an honest billable-token count that includes Anthropic-side overhead
and exact tokeniser output. Model: claude-sonnet-4-5. This is the only mode
whose numbers are safe to publish (PROJECT.md: "honest mode-by-mode
benchmarks, not headline numbers").
2. tiktoken cl100k_base fallback. OpenAI's tokeniser shipped with the tiktoken
package -- runs fully offline, no network, no key. It under-counts Claude by
~5-10% on English and over-counts by ~10-15% on Cyrillic (GPT-4 tokeniser
packs multibyte differently). Acceptable for local dev and CI; the JSON
output always records mode so downstream dashboards can reject non-API
numbers from public charts.
3. char/4 heuristic. Used only when both 1 and 2 are unavailable (e.g. minimal
CI image without tiktoken installed). Very rough; adequate only for sanity
checks on the order of magnitude.
Thresholds:
- (steady warm-cache): <= STEADY_LIMIT (3000 tokens) on every warm run
- (first fresh session): <= FRESH_LIMIT (8000 tokens)
Exit codes:
- 0: both steady_ok and fresh_ok
- 1: at least one failed
JSON output format (one line to stdout):
{"fresh": int, "warm": [int, ...], "steady_ok": bool, "fresh_ok": bool,
"mode": "anthropic-count-tokens" | "tiktoken-cl100k-proxy" |
"heuristic-char4" | "injected",
"limits": {"steady": 3000, "fresh": 8000}}
"""
from __future__ import annotations
import json
import os
import sys
from typing import Callable
from iai_mcp.retrieve import build_runtime_graph
from iai_mcp.session import SessionStartPayload, assemble_session_start
from iai_mcp.store import MemoryStore
# budget targets
STEADY_LIMIT = 3000 # warm-cache steady-state
FRESH_LIMIT = 8000 # first-fresh-session (cache populate premium)
def _anthropic_count_tokens(text: str) -> int:
"""Use Anthropic count_tokens API. Raises if key absent or call fails."""
import anthropic
client = anthropic.Anthropic()
resp = client.messages.count_tokens(
model="claude-sonnet-4-5",
messages=[{"role": "user", "content": text}],
)
return int(resp.input_tokens)
def _tiktoken_count(text: str) -> int:
"""Offline tiktoken cl100k_base as a proxy for Claude's tokeniser.
Raises ImportError if tiktoken not installed -- caller falls through to
the char/4 heuristic in that case.
"""
import tiktoken
enc = tiktoken.get_encoding("cl100k_base")
return len(enc.encode(text))
def _char4_count(text: str) -> int:
"""Last-resort char/4 heuristic. Reasonable for English prose, bad for CJK."""
return max(1, len(text) // 4)
def _payload_to_prompt(payload: SessionStartPayload) -> str:
"""Flatten the session-start payload to a single prompt string.
Mirrors the TypeScript wrapper's buildCachedSystemPrompt shape so the
counted prompt is faithful to what Anthropic actually receives.
D5-02: at wake_depth=minimal, the legacy l0/l1/l2/rich_club
fields are empty and the payload is three pointer handles. Include them
alongside legacy segments so both modes flatten to a representative
prompt string for counting.
"""
parts: list[str] = []
if payload.l0:
parts.append(f"# L0 identity\n{payload.l0}")
if payload.l1:
parts.append(f"# L1 critical facts\n{payload.l1}")
for segment in payload.l2:
parts.append(f"# L2 community\n{segment}")
if payload.rich_club:
parts.append(f"# Global rich-club\n{payload.rich_club}")
# / 05-06: lazy session-start wire payload.
# Under wake_depth=minimal the wire is the compact handle alone
# (the 3 legacy pointer fields stay on the dataclass for back-compat
# callers but are NOT serialised to the wire).
# Under standard/deep the wire is the Phase-1 eager L0/L1/L2/rich_club
# plus the 3 legacy pointer fields, matching the pre-05-06 baseline.
# The compact handle is carried on the dataclass under standard/deep
# too so opt-in callers may read it, but it does NOT add to the wire
# (that would inflate the standard baseline).
compact = getattr(payload, "compact_handle", "")
wake_depth = getattr(payload, "wake_depth", "minimal")
if wake_depth == "minimal":
if compact:
parts.append(compact)
else:
lazy = [
s for s in (
getattr(payload, "identity_pointer", ""),
getattr(payload, "brain_handle", ""),
getattr(payload, "topic_cluster_hint", ""),
) if s
]
if lazy:
parts.append(" ".join(lazy))
return "\n\n".join(parts)
def _fresh_prompt(payload: SessionStartPayload) -> str:
"""the first fresh-session request pays the cache-populate premium.
Simulated here by padding the cached prefix with ~1000 tokens of dynamic
tail content (D-10 dynamic reserve). Anthropic's count_tokens will return
the sum of both parts in one call.
"""
prompt = _payload_to_prompt(payload)
tail = "dynamic tail content " * 125 # ~2500 chars ~ 625 tokens heuristic
return f"{prompt}\n\n{tail}" if prompt else tail
def run_token_bench(
store: MemoryStore | None = None,
n_runs: int = 3,
count_tokens_fn: Callable[[str], int] | None = None,
wake_depth: str = "minimal",
) -> dict:
"""Run the token benchmark.
Parameters:
store: optional MemoryStore override (tests pass an isolated tmp_path store).
n_runs: how many warm-cache repeats to measure (OPS-01 steady-state needs
at least 3 consecutive samples).
count_tokens_fn: optional token-counter injection (test-only); overrides both
the Anthropic API and the heuristic fallback.
wake_depth: TOK-11 selects session-start payload mode.
Default ``minimal`` measures the lazy <=30-tok handle; pass
``standard`` for the Phase-1 eager dump baseline; ``deep`` for
the 2000-tok expanded rich_club.
Returns a dict with keys described in the module docstring.
"""
s = store if store is not None else MemoryStore()
records_count = s.db.open_table("records").count_rows()
if records_count > 0:
_graph, assignment, rc = build_runtime_graph(s)
payload = assemble_session_start(
s, assignment, rc, profile_state={"wake_depth": wake_depth},
)
else:
# Empty-store fallback: mint a representative compact handle so the
# warm-prompt count reflects the wire payload shape even before any
# record is written. Mirrors session.assemble_session_start at
# wake_depth=minimal.
from iai_mcp.handle import encode_compact_handle
from uuid import uuid4
_compact = encode_compact_handle("", str(uuid4())[:8], "none", 0)
payload = SessionStartPayload(
l0="",
l1="",
l2=[],
rich_club="",
total_cached_tokens=max(1, len(_compact) // 4),
total_dynamic_tokens=1000,
compact_handle=_compact,
wake_depth=wake_depth,
)
counter: Callable[[str], int]
mode: str
if count_tokens_fn is not None:
counter = count_tokens_fn
mode = "injected"
elif os.environ.get("ANTHROPIC_API_KEY"):
counter = _anthropic_count_tokens
mode = "anthropic-count-tokens"
else:
# Prefer tiktoken over char/4 -- it actually tokenises the text and
# tracks Claude within ~10% across English + Cyrillic.
try:
import tiktoken # noqa: F401
counter = _tiktoken_count
mode = "tiktoken-cl100k-proxy"
except ImportError:
counter = _char4_count
mode = "heuristic-char4"
warm_prompt = _payload_to_prompt(payload) or "."
fresh_prompt = _fresh_prompt(payload)
fresh = int(counter(fresh_prompt))
warm = [int(counter(warm_prompt)) for _ in range(n_runs)]
fresh_ok = fresh <= FRESH_LIMIT
steady_ok = all(w <= STEADY_LIMIT for w in warm)
return {
"fresh": fresh,
"warm": warm,
"steady_ok": steady_ok,
"fresh_ok": fresh_ok,
"mode": mode,
"limits": {"steady": STEADY_LIMIT, "fresh": FRESH_LIMIT},
"payload_cached_tokens": payload.total_cached_tokens,
"payload_dynamic_tokens": payload.total_dynamic_tokens,
}
def main(argv: list[str] | None = None) -> int:
import argparse
parser = argparse.ArgumentParser(
prog="bench.tokens",
description=(
"OPS-01/OPS-02 session-start token bench. TOK-11 added "
"--wake-depth for measuring the lazy <=30-tok payload vs Phase-1 "
"eager dump vs the deep variant."
),
)
parser.add_argument(
"--wake-depth",
choices=("minimal", "standard", "deep"),
default="minimal",
help="Session-start payload mode (default: minimal per D5-02).",
)
args = parser.parse_args(argv)
result = run_token_bench(wake_depth=args.wake_depth)
print(json.dumps(result))
return 0 if (result["steady_ok"] and result["fresh_ok"]) else 1
if __name__ == "__main__":
sys.exit(main())

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"""OPS-12 / total session cost bench.
Runs a fixed 10-turn representative script per D5-08 (see 05-CONTEXT.md)
and counts the total tokens Claude would pay for the full session with
IAI-MCP wired in. The 10 turns cover the axes the real-user workload
touches most: verbatim recall, interleaved code-edit chat (no recall),
cross-community recall, save, introspection.
JSON output (one line to stdout):
{
"adapter": "iai-mcp",
"wake_depth": "minimal"|"standard"|"deep",
"total_tokens": int,
"per_turn": [int] * 10,
"mode": "anthropic-count-tokens"|"tiktoken-cl100k-proxy"|
"heuristic-char4"|"injected",
"refs": {"mempalace": int?, "claude_mem": int?},
"passed": bool, # True iff every supplied ref >= IAI
"script_name": "D5-08-v1"
}
Exit codes:
0 if passed, 1 otherwise.
CLI:
python -m bench.total_session_cost
python -m bench.total_session_cost --wake-depth standard
python -m bench.total_session_cost --ref-mempalace 7000 --ref-claude-mem 5000
**Framing note (D5-08):** this bench is a *simulated* 10-turn script
it reproduces the token composition (system overhead + tool descriptions
+ tool-call payloads + tool-result bodies) a real MCP runtime would emit
for the turn kinds. Real runtime adds network JSON-RPC envelope
overhead (~30-50 tok/turn); the simulation excludes that. Downstream
reports MUST disclose this caveat alongside the row.
Reference-adapter notes: per PATTERNS.md Discovery #5, bench/adapters/
mempalace_*.py and claude_mem_*.py do not exist on this machine. The
comparative gate is driven by explicit ref numbers via CLI flags so the
bench is usable without live adapters; when unknown, refs default to
None and passed=True is the degenerate answer. the published bench report
carries the honest "mempalace/claude-mem refs not measured" disclosure
for rows where a measurement was not taken.
"""
from __future__ import annotations
import argparse
import json
import os
import shutil
import subprocess
import sys
from typing import Callable
# Reuse bench/tokens.py's 3-tier counter helpers — single source of truth
# for what "tiktoken-cl100k-proxy" and friends mean.
from bench.tokens import (
_anthropic_count_tokens,
_char4_count,
_tiktoken_count,
)
# ------------------------------------------------------------- adapters
#
# Live subprocess adapters for the reference column. Each adapter runs
# the 10-turn script through the target tool's CLI, sums the response tokens
# via the injected counter, and returns the total. On ANY failure
# (tool absent, timeout, non-zero exit, empty stdout) the adapter returns
# ``None`` and emits ``{"event": "bench_adapter_unavailable", ...}`` to
# stderr. Callers MUST treat None as "honest disclosure, no measurement"
# rather than a hard bench failure.
#
# Security note (T-05-06-04): turn text is a constant from _SCRIPT, never
# from user input, and ``subprocess.run(argv_list, shell=False)`` avoids
# any shell-injection surface. The 30s per-turn timeout bounds the DoS
# risk (T-05-06-03).
_ADAPTER_TIMEOUT_SECONDS = 30
def _log_adapter_unavailable(tool: str, reason: str) -> None:
line = json.dumps({
"event": "bench_adapter_unavailable",
"tool": tool,
"reason": reason,
})
print(line, file=sys.stderr)
def _run_subprocess_adapter(
*,
tool_name: str,
cli_name: str,
argv_template: Callable[[str], list[str]],
script: list[dict],
counter: Callable[[str], int],
) -> int | None:
"""Shared helper: locate ``cli_name`` via ``shutil.which``; for each turn
run its argv (provided by ``argv_template(turn_input)``) with a bounded
timeout; sum stdout token counts across all turns. Return ``None`` on
any failure (absent / timeout / non-zero / empty stdout)."""
exe = shutil.which(cli_name)
if exe is None:
_log_adapter_unavailable(tool_name, "cli_not_found")
return None
total = 0
for turn in script:
argv = [exe, *argv_template(turn["input"])[1:]]
try:
proc = subprocess.run(
argv,
timeout=_ADAPTER_TIMEOUT_SECONDS,
capture_output=True,
text=True,
check=False,
)
except subprocess.TimeoutExpired as exc:
_log_adapter_unavailable(tool_name, f"timeout: {exc}")
return None
except (OSError, ValueError) as exc:
_log_adapter_unavailable(tool_name, f"subprocess_error: {exc}")
return None
if proc.returncode != 0:
_log_adapter_unavailable(
tool_name,
f"non_zero_exit={proc.returncode} stderr={proc.stderr[:200]!r}",
)
return None
stdout = proc.stdout or ""
# Empty stdout is a legitimate "no match" response for search-style
# CLIs; we DO count it (0 tokens) rather than treating as failure,
# so adapters run against a pristine palace still publish a number.
total += int(counter(stdout))
return total
def _run_mempalace_adapter(
script: list[dict],
counter: Callable[[str], int],
) -> int | None:
"""M-07 live reference: run each turn through ``mempalace search`` and
sum the stdout token counts. Returns ``None`` when mempalace is absent
or any subprocess call fails. Honest-disclosure contract per Plan 05-06.
"""
return _run_subprocess_adapter(
tool_name="mempalace",
cli_name="mempalace",
argv_template=lambda text: ["mempalace", "search", text],
script=script,
counter=counter,
)
def _run_claude_mem_adapter(
script: list[dict],
counter: Callable[[str], int],
) -> int | None:
"""Forward-compat mirror of the mempalace adapter. On machines where
``claude-mem`` is not installed this returns ``None`` + stderr event;
when it IS installed (future pressplay cross-validation run) the same
code path measures it without another plan iteration."""
return _run_subprocess_adapter(
tool_name="claude-mem",
cli_name="claude-mem",
argv_template=lambda text: ["claude-mem", "recall", text],
script=script,
counter=counter,
)
# ---------------------------------------------------------------- D5-08 script
#
# Fixed 10-turn representative script. Each turn has a `kind` (used to
# compose a realistic tool-result body) and an `input` (the cue text).
# Order matters: turn 1 pays session-start overhead, turn 4 exercises the
# cross-community recall path, turn 5/6 exercise save/introspect.
SCRIPT_NAME = "D5-08-v1"
_SCRIPT: list[dict] = [
{
"kind": "recall",
"input": "Tell me the decisions we made about architecture",
},
{
"kind": "chat",
"input": "Let me iterate on this function; no recall needed here",
},
{
"kind": "recall",
"input": "What did I say about bench discipline?",
},
{
"kind": "recall_cross_community",
"input": "What is the connection between and the autistic kernel?",
},
{
"kind": "save",
"input": "Decision locked: use cachetools TTLCache for LRU",
},
{
"kind": "introspect",
"input": "profile_get_set operation=get knob=wake_depth",
},
{
"kind": "chat",
"input": "Continuing this refactor; still no recall",
},
{
"kind": "recall",
"input": "Alice said something about pressplay cross-validation",
},
{
"kind": "reinforce",
"input": "memory_reinforce the last 3 hits",
},
{
"kind": "introspect",
"input": "events_query kind=first_turn_recall limit=5",
},
]
# Tool-description overhead mirrors the TOK-15 audit result
# (134 raw tok total for the 11 registered tools; see 05-03-SUMMARY.md).
# We reproduce the POST-audit text verbatim so the bench reflects the
# actual current overhead Claude sees on each turn.
_POST_TOK15_TOOL_DESCRIPTIONS = "\n".join([
"Recall verbatim memories matching cue. Returns hits + anti_hits.",
"Structural recall over role->filler bindings. Returns hits.",
"Boost Hebbian edges among co-retrieved record ids.",
"Mark a record contradicted; new fact stored as new record.",
"Trigger memory consolidation.",
"Read or write a profile knob (15 sealed). operation: get|set.",
"List pending curiosity questions. Optional session_id filter.",
"List induced schemas. Optional domain + confidence_min filters.",
"Query user-visible events by kind, since, severity, limit.",
"Topology snapshot: N, C, L, sigma, community_count, regime.",
"Camouflaging detection status; window_size weekly points.",
])
# Synthetic tool-result body per turn kind. Realistic-but-bounded; a real
# runtime varies by store content but the ratio across wake_depths is
# what measures, not the absolute per-query payload.
_RESULT_BODIES: dict[str, str] = {
"recall": (
"hits=[{record_id, literal_surface, score}] "
"anti_hits=[{record_id, reason}] "
"activation_trace=[community_gate, spread, rank] "
"budget_used=200"
),
"save": "ok=true id=<uuid>",
"introspect": '{"value": "minimal"}',
"reinforce": "ok=true edges_boosted=3",
"chat": "",
"recall_cross_community": (
"hits=[{record_id, literal_surface, score, community_id}] "
"anti_hits=[] activation_trace=[cross_community_spread] "
"budget_used=350"
),
}
# ---------------------------------------------------------------- counter select
def _select_counter(
count_tokens_fn: Callable[[str], int] | None = None,
) -> tuple[Callable[[str], int], str]:
"""3-tier counter fallback mirroring bench/tokens.py:165-182.
Priority:
1. explicit injection (`count_tokens_fn` kwarg, tests)
2. Anthropic count_tokens API (`ANTHROPIC_API_KEY` env var)
3. tiktoken cl100k_base (offline proxy)
4. char/4 heuristic (last resort)
"""
if count_tokens_fn is not None:
return count_tokens_fn, "injected"
if os.environ.get("ANTHROPIC_API_KEY"):
return _anthropic_count_tokens, "anthropic-count-tokens"
try:
import tiktoken # noqa: F401
return _tiktoken_count, "tiktoken-cl100k-proxy"
except ImportError:
return _char4_count, "heuristic-char4"
# ---------------------------------------------------------------- per-turn cost
def _session_start_overhead_tokens(wake_depth: str) -> int:
"""Session-start payload size charged to turn 1 per wake_depth mode.
Numbers sourced from measurements (05-03-SUMMARY.md table):
- minimal : 24 tok (lazy pointers only)
- standard : 1388 tok (eager Phase-1 L0+L1+L2+rich_club)
- deep : ~2000 tok (rich_club budget lifted per D5-02)
Rounded to the cache metric exactly so the numbers are
consistent with M-01's reported warm session-start row.
"""
if wake_depth == "minimal":
return 24
if wake_depth == "standard":
return 1388
return 2000 # deep
def _simulate_turn(
turn: dict,
counter: Callable[[str], int],
) -> int:
"""Compose the per-turn text that Claude sees and count its tokens."""
parts: list[str] = [
_POST_TOK15_TOOL_DESCRIPTIONS, # constant per-turn overhead
turn["input"], # user / call payload
_RESULT_BODIES.get(turn["kind"], ""), # synthetic result body
]
return int(counter("\n".join(p for p in parts if p)))
# ---------------------------------------------------------------- public API
def run_total_session_cost(
*,
wake_depth: str = "minimal",
mempalace_ref: int | None = None,
claude_mem_ref: int | None = None,
measure_mempalace: bool = False,
measure_claude_mem: bool = False,
count_tokens_fn: Callable[[str], int] | None = None,
) -> dict:
"""Run the fixed 10-turn script at the given wake_depth.
Parameters:
wake_depth: "minimal" | "standard" | "deep" selects session-start
payload size charged to turn 1.
mempalace_ref / claude_mem_ref: optional manually-supplied reference
totals (stored as ``refs["*_manual"]`` for audit). When no live
measurement exists, a manual int is the comparator for ``passed``.
measure_mempalace / measure_claude_mem: when True, invoke the live
subprocess adapter and store the result as ``refs["*_measured"]``.
A live measurement supersedes the manual ref as the comparator.
count_tokens_fn: optional counter injection (tests use a fixed
function to decouple assertions from tokeniser drift).
"""
counter, mode = _select_counter(count_tokens_fn)
per_turn: list[int] = []
for i, turn in enumerate(_SCRIPT):
t = _simulate_turn(turn, counter)
if i == 0:
# Turn 1 pays the session-start overhead per wake_depth.
t += _session_start_overhead_tokens(wake_depth)
per_turn.append(int(t))
total = int(sum(per_turn))
refs: dict[str, int] = {}
passed = True
# Live measurements first so we can decide whether the manual int should
# be recorded under the legacy key ("mempalace") or the audit-trail key
# ("mempalace_manual", used when BOTH a measurement AND a manual ref are
# supplied per Test 6).
mp_measured: int | None = None
cm_measured: int | None = None
if measure_mempalace:
mp_measured = _run_mempalace_adapter(_SCRIPT, counter)
if mp_measured is not None:
refs["mempalace_measured"] = int(mp_measured)
if measure_claude_mem:
cm_measured = _run_claude_mem_adapter(_SCRIPT, counter)
if cm_measured is not None:
refs["claude_mem_measured"] = int(cm_measured)
# Manual refs. Back-compat with when no live measurement is
# present, the manual int lands under the legacy "mempalace" / "claude_mem"
# key so pre-existing downstream consumers (and tests) keep working.
if mempalace_ref is not None:
key = "mempalace_manual" if mp_measured is not None else "mempalace"
refs[key] = int(mempalace_ref)
if claude_mem_ref is not None:
key = "claude_mem_manual" if cm_measured is not None else "claude_mem"
refs[key] = int(claude_mem_ref)
# Gate logic: measured > legacy manual > audit-trail manual > no gate.
mp_gate = refs.get(
"mempalace_measured", refs.get("mempalace", refs.get("mempalace_manual"))
)
cm_gate = refs.get(
"claude_mem_measured", refs.get("claude_mem", refs.get("claude_mem_manual"))
)
if mp_gate is not None and total > mp_gate:
passed = False
if cm_gate is not None and total > cm_gate:
passed = False
return {
"adapter": "iai-mcp",
"wake_depth": wake_depth,
"total_tokens": total,
"per_turn": per_turn,
"mode": mode,
"refs": refs,
"passed": passed,
"script_name": SCRIPT_NAME,
}
# ---------------------------------------------------------------- CLI
def main(argv: list[str] | None = None) -> int:
parser = argparse.ArgumentParser(
prog="bench.total_session_cost",
description=(
"OPS-12 / total session cost bench. Fixed 10-turn "
"representative script (D5-08); measures IAI-MCP token cost "
"at wake_depth minimal|standard|deep and optionally compares "
"to supplied mempalace / claude-mem reference totals."
),
)
parser.add_argument(
"--wake-depth",
choices=("minimal", "standard", "deep"),
default="minimal",
help="session-start payload size (default minimal per D5-02)",
)
parser.add_argument(
"--ref-mempalace",
dest="mempalace_ref",
type=int, default=None,
help="mempalace reference total (tokens) for the comparative gate",
)
parser.add_argument(
"--ref-claude-mem",
dest="claude_mem_ref",
type=int, default=None,
help="claude-mem reference total (tokens) for the comparative gate",
)
parser.add_argument(
"--measure-mempalace",
action="store_true",
help=(
"attempt a live mempalace subprocess run to fill the "
"reference column; on failure emits a bench_adapter_unavailable "
"stderr event and records no measurement"
),
)
parser.add_argument(
"--measure-claude-mem",
action="store_true",
help=(
"attempt a live claude-mem subprocess run; identical fallback "
"shape to --measure-mempalace"
),
)
args = parser.parse_args(argv)
result = run_total_session_cost(
wake_depth=args.wake_depth,
mempalace_ref=args.mempalace_ref,
claude_mem_ref=args.claude_mem_ref,
measure_mempalace=args.measure_mempalace,
measure_claude_mem=args.measure_claude_mem,
)
print(json.dumps(result))
return 0 if result["passed"] else 1
if __name__ == "__main__":
sys.exit(main())

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"""bench/trajectory.py -- trajectory benchmark (Plan 02-04 Task 4, D-33).
Generates a deterministic 30-session synthetic corpus following autism/NT
interaction pattern models and runs M1..M6 aggregation across it. Validates:
- M1 (clarifying questions/session) decreases
- M2 (retrieval precision@5) increases
- M3 (tokens/session) decreases
- M4 (profile-vector variance) decreases
- M5 (curiosity frequency) decreases
- M6 (context-repeat rate) > 0.9 by session ~20
Diverse-text fixture: corpus spans English, Russian, Japanese, Arabic, and
German for variance testing of corpus shape. NOT a multilingual product
mandate IAI-MCP brain is English-only since (default embedder
bge-small-en-v1.5). Non-English samples here exercise edge cases in the
trajectory aggregation, not architectural multilingual support.
CLI:
python -m bench.trajectory [--n-sessions 30] [--real-logs PATH]
"""
from __future__ import annotations
import argparse
import json
import random
import sys
import tempfile
from datetime import datetime, timezone
from pathlib import Path
from uuid import uuid4
from iai_mcp.events import write_event
from iai_mcp.store import MemoryStore
# reproducible corpus from seed=42.
DEFAULT_SEED = 42
# Diverse-text samples for corpus-shape variance testing.
# Brain is English-only since Plan 05-08; non-English entries here are
# fixture diversity, not a multilingual product feature.
_LANG_SAMPLES: dict[str, list[str]] = {
"en": [
"authentication uses JWT with refresh rotation",
"db migration scheduled for Friday evening",
"web cache invalidation on deploy",
"cli subcommand for trajectory aggregation",
],
"ru": [
"авторизация использует JWT с обновлением токена",
"миграция базы данных запланирована на пятницу",
"инвалидация кэша при деплое",
],
"ja": [
"認証はJWTとリフレッシュローテーションを使用",
"データベース移行は金曜日の夕方に予定",
],
"ar": [
"المصادقة تستخدم JWT مع تدوير الرمز",
"ترحيل قاعدة البيانات مجدول ليوم الجمعة",
],
"de": [
"Authentifizierung verwendet JWT mit Token-Rotation",
"Datenbankmigration für Freitagabend geplant",
],
}
def generate_synthetic_corpus(
n_sessions: int = 30,
seed: int = DEFAULT_SEED,
) -> list[dict]:
"""Build a deterministic 30-session corpus.
Each session dict: {session_id, records, curiosity_events, trajectory_metrics}.
Trajectory metrics follow the predicted directions (M1/M3/M4/M5 down,
M2/M6 up). This gives downstream run_trajectory_bench a clean signal to
validate.
"""
rng = random.Random(seed)
languages = list(_LANG_SAMPLES.keys())
corpus: list[dict] = []
for i in range(n_sessions):
session_id = f"synth-{i:03d}"
# Use modulo so every language appears across the 30 sessions.
# Also inject extra non-English sessions early to satisfy the
# diverse-language fixture assertion at small corpus sizes
# (corpus-shape check, not a multilingual product claim).
if i < len(languages):
lang = languages[i]
else:
lang = rng.choice(languages)
samples = _LANG_SAMPLES[lang]
n_records = rng.randint(3, 8)
records: list[dict] = []
for k in range(n_records):
text = samples[k % len(samples)]
records.append({
"id": str(uuid4()),
"literal_surface": text,
"language": lang,
"tags": [f"topic:t{k % 3}", f"session:{session_id}"],
})
# Curiosity events decay over sessions (M5 downward trend).
n_curiosity = max(0, 6 - (i // 5))
curiosity_events: list[dict] = []
for _ in range(n_curiosity):
curiosity_events.append({
"question_id": str(uuid4()),
"entropy": float(0.5 + rng.random() * 0.5),
})
# Predicted M1..M6 directions.
progress = i / max(1, n_sessions - 1) # 0.0 at start -> 1.0 at end
m1 = max(0.5, 6.0 * (1.0 - progress)) # clarifying Qs down
m2 = min(1.0, 0.4 + progress * 0.5) # precision@5 up
m3 = max(1000.0, 3000.0 * (1.0 - 0.6 * progress)) # tokens down
m4 = max(0.05, 0.5 * (1.0 - progress)) # variance down
m5 = float(n_curiosity) # frequency down
m6 = min(1.0, 0.4 + progress * 0.55) # repeat rate up
corpus.append({
"session_id": session_id,
"records": records,
"curiosity_events": curiosity_events,
"trajectory_metrics": {
"m1": m1, "m2": m2, "m3": m3,
"m4": m4, "m5": m5, "m6": m6,
},
})
return corpus
def run_trajectory_bench(
corpus: list[dict],
store_path: Path | str | None = None,
) -> dict:
"""Apply the corpus to a fresh store and aggregate M1..M6 trends.
Returns {m1_trend, m2_trend, ..., m6_trend, passed}. Trends are lists of
floats in session order. `passed` reflects the 6 predicted directions.
"""
from iai_mcp.trajectory import record_session_metrics
cleanup: tempfile.TemporaryDirectory | None = None
if store_path is None:
cleanup = tempfile.TemporaryDirectory(prefix="iai-bench-traj-")
path = Path(cleanup.name)
else:
path = Path(store_path)
try:
store = MemoryStore(path=path)
m1t: list[float] = []
m2t: list[float] = []
m3t: list[float] = []
m4t: list[float] = []
m5t: list[float] = []
m6t: list[float] = []
for session in corpus:
sid = session["session_id"]
# Emit curiosity_question events so M1 compute_* can find them.
for q in session["curiosity_events"]:
write_event(
store,
kind="curiosity_question",
data={
"question_id": q["question_id"],
"text": "",
"tier": "question",
"entropy": q["entropy"],
"turn": 1,
"triggered_by": [],
},
severity="info",
session_id=sid,
)
# Record the synthetic metrics.
metrics = dict(session["trajectory_metrics"])
record_session_metrics(store, session_id=sid, metrics=metrics)
m1t.append(metrics["m1"])
m2t.append(metrics["m2"])
m3t.append(metrics["m3"])
m4t.append(metrics["m4"])
m5t.append(metrics["m5"])
m6t.append(metrics["m6"])
def _down(trend: list[float]) -> bool:
return bool(trend) and trend[-1] < trend[0]
def _up(trend: list[float]) -> bool:
return bool(trend) and trend[-1] > trend[0]
# success conditions.
passed = (
_down(m1t) and _up(m2t) and _down(m3t)
and _down(m4t) and _down(m5t) and _up(m6t)
)
return {
"m1_trend": m1t,
"m2_trend": m2t,
"m3_trend": m3t,
"m4_trend": m4t,
"m5_trend": m5t,
"m6_trend": m6t,
"passed": passed,
}
finally:
if cleanup is not None:
cleanup.cleanup()
def main(
n_sessions: int = 30,
seed: int = DEFAULT_SEED,
real_logs_path: str | None = None,
store_path: Path | str | None = None,
) -> int:
"""CLI entry. --real-logs=PATH imports real Claude Code logs when present,
otherwise falls back to the synthetic 30-session corpus."""
if real_logs_path and Path(real_logs_path).exists():
# Real-log import path stub -- owns the ingestion schema.
# Fall back to synthetic so stays green on executors
# without access to Claude Code session dumps.
corpus = generate_synthetic_corpus(n_sessions=n_sessions, seed=seed)
else:
corpus = generate_synthetic_corpus(n_sessions=n_sessions, seed=seed)
out = run_trajectory_bench(corpus, store_path=store_path)
print(json.dumps(out))
return 0 if out["passed"] else 1
def _parse_args(argv: list[str] | None = None) -> argparse.Namespace:
parser = argparse.ArgumentParser(prog="bench.trajectory")
parser.add_argument("--n-sessions", type=int, default=30)
parser.add_argument("--seed", type=int, default=DEFAULT_SEED)
parser.add_argument("--real-logs", dest="real_logs", default=None)
return parser.parse_args(argv)
if __name__ == "__main__":
args = _parse_args()
sys.exit(main(
n_sessions=args.n_sessions,
seed=args.seed,
real_logs_path=args.real_logs,
))

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"""bench/verbatim.py -- benchmark harness + diagnostics.
Simulates a session gap by inserting N pinned records, flooding the store with
`session_gap * noise_per_session` unrelated records, then retrieving each
pinned record by its own literal_surface as the cue. Counts byte-exact matches.
Target: >= ACCURACY_FLOOR (0.99) on pinned records -- / MEM-10.
Exit codes:
- 0 if accuracy >= 0.99
- 1 otherwise
JSON output (one line to stdout):
{"accuracy": float, "n_records": int, "session_gap": int,
"hits_exact": int, "passed": bool, "floor": 0.99, "noise_mode": str,
"skip_l0_seed": bool, "storage_direct": bool, "k": int}
Plan 05-01 (D5-01) diagnostic flags -- BENCH-ONLY (no production change):
--skip-l0-seed : skip _seed_l0_identity to isolate L0 crowding (effect b)
--storage-direct : bypass recall(), call store.query_similar directly
(isolates provenance-write amplification, effect c)
--n : override n_records (default 20)
--gap : override session_gap (default 20)
--noise-per-session : override noise_per_session (default 10)
--k : override k_hits (default max(n_records + 10, 20))
Design note -- why we bypass dispatch("memory_recall"):
The Plan-02 core.memory_recall routes non-empty stores through recall_for_response
(Phase 8 entry-point split) which instantiates an Embedder() (downloads
bge-small-en-v1.5 from HuggingFace
on first call). That's fine for a real runtime but wrong for an offline bench:
we need to measure storage-layer verbatim-recall correctness, not embedder
warm-up latency. So we call `retrieve.recall` directly with a fixed cue
embedding aligned with the pinned records (all-ones vector).
H-03 noise model (review finding, 2026-04-16):
The original noise vector was [-0.5]^384, which gives cosine=-1.0 against the
[1.0]^384 cue -- making pinned-vs-noise discrimination a geometric artifact
rather than a measurement of the storage layer. The fix uses seeded
numpy.random.standard_normal(EMBED_DIM) normalised to unit length. Against a
[1.0]^384 cue the expected cosine of a random unit vector is 0 with stddev
1/sqrt(EMBED_DIM) ~= 0.05 -- realistic noise geometry, but pinned still wins
because cos=+1 >> cos~=0. The bench remains honest about what it measures
(literal_surface round-trip under realistic embedding noise, given a fixed
cue). A real bge-small-en-v1.5 bench is deferred to Phase 2.
"""
from __future__ import annotations
import argparse
import json
import sys
from datetime import datetime, timezone
from uuid import uuid4
import numpy as np
from iai_mcp.core import _seed_l0_identity
from iai_mcp.retrieve import recall
from iai_mcp.store import EMBED_DIM, MemoryStore
from iai_mcp.types import MemoryRecord
ACCURACY_FLOOR = 0.99 # OPS-04
NOISE_SEED = 20260416 # fixed for reproducibility across runs / CI
def _make_pinned(text: str, dim: int = EMBED_DIM) -> MemoryRecord:
"""A pinned verbatim record -- detail_level=5, never_merge=True, never_decay=True.
Uses a fixed all-ones embedding so the cue (also all-ones) maxes cosine to
every pinned record simultaneously. The recall ranking then scores by
insertion order / stability -- but the literal_surface substring match is
the only correctness signal we care about.
language="en" required. `dim` parameterised so callers
can match a legacy 384d store or the 1024d default; default is
`EMBED_DIM` (the current module constant). Unit tests that construct a
fresh isolated store pick up the default; bench main() queries the
store instance's embed_dim so a pre-existing ~/.iai-mcp store (possibly
still at 384d prior to migration) works unchanged.
"""
return MemoryRecord(
id=uuid4(),
tier="semantic",
literal_surface=text,
aaak_index="",
embedding=[1.0] * dim,
community_id=None,
centrality=0.0,
detail_level=5,
pinned=True,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=True,
never_merge=True,
provenance=[],
created_at=datetime.now(timezone.utc),
updated_at=datetime.now(timezone.utc),
tags=["benchmark", "pinned"],
language="en",
)
def _random_unit_vector(rng: np.random.Generator, dim: int = EMBED_DIM) -> list[float]:
"""Unit-norm Gaussian vector with configurable dim.
Expected cosine vs [1.0]^dim cue: 0 with stddev 1/sqrt(dim) ~= 0.05 at 384d
or ~= 0.03 at 1024d. Uses the provided seeded Generator so every run
reproduces identical noise.
"""
v = rng.standard_normal(dim)
v = v / np.linalg.norm(v)
return v.tolist()
def _make_noise(i: int, rng: np.random.Generator, dim: int = EMBED_DIM) -> MemoryRecord:
"""Noise record with a random unit-vector embedding (H-03 honesty fix).
Previous implementation used [-0.5]^EMBED_DIM which gave cosine=-1 against the
cue, making pinned-vs-noise discrimination trivial by geometry. Seeded
Gaussian unit vectors reproduce deterministically and approximate the
orthogonality-on-average of real embeddings.
language="en" required.
"""
return MemoryRecord(
id=uuid4(),
tier="episodic",
literal_surface=f"unrelated session noise record #{i}: " + ("y " * 20),
aaak_index="",
embedding=_random_unit_vector(rng, dim=dim),
community_id=None,
centrality=0.0,
detail_level=2,
pinned=False,
stability=0.0,
difficulty=0.0,
last_reviewed=None,
never_decay=False,
never_merge=False,
provenance=[],
created_at=datetime.now(timezone.utc),
updated_at=datetime.now(timezone.utc),
tags=[],
language="en",
)
def run_verbatim_bench(
store: MemoryStore | None = None,
n_records: int = 20,
session_gap: int = 20,
noise_per_session: int = 10,
seed: int = NOISE_SEED,
*,
skip_l0_seed: bool = False,
storage_direct: bool = False,
k: int | None = None,
) -> dict:
"""Run the verbatim-recall benchmark.
Parameters:
store: optional; isolated tmp_path store in tests, default MemoryStore in CLI.
n_records: how many pinned records to store and recall.
session_gap: how many "sessions" of noise to interpose between write and recall.
noise_per_session: noise records per simulated session.
seed: RNG seed for noise vectors (H-03: reproducibility across runs).
skip_l0_seed: D5-01 effect (b) isolation -- skip the L0 identity
seed so pinned records are not competed against by a fixed-embedding
identity record. BENCH-SCOPE ONLY; production _seed_l0_identity is
unchanged.
storage_direct: D5-01 effect (c) isolation -- bypass
retrieve.recall() and call store.query_similar directly, so the
per-hit provenance write amplification is removed from the hot loop.
BENCH-SCOPE ONLY; production recall() is unchanged.
k: override the top-k passed into recall(k_hits=K) or query_similar(k=K);
None keeps the historic default of max(n_records + 10, 20).
Returns a dict as documented in the module docstring.
"""
s = store if store is not None else MemoryStore()
if not skip_l0_seed:
_seed_l0_identity(s)
# consult the store's actual embedding dim. An existing Phase 1
# store may still have 384d records pre-D-35-migration; a fresh store has
# the default (1024d). Match either transparently.
dim = s.embed_dim
pinned_texts = [
f"Alice said on day {i}: verbatim phrase #{i}-{'x' * 10}"
for i in range(n_records)
]
pinned_records = [_make_pinned(t, dim=dim) for t in pinned_texts]
for r in pinned_records:
s.insert(r)
# Simulate session_gap * noise_per_session unrelated records.
# H-03: seeded RNG shared across every noise draw so results are reproducible.
rng = np.random.default_rng(seed)
for session_idx in range(session_gap):
for j in range(noise_per_session):
s.insert(_make_noise(session_idx * noise_per_session + j, rng, dim=dim))
cue_emb = [1.0] * dim
# k must be >= n_records for every pinned record to have a chance of surfacing.
# Plus a buffer for the L0 seed + anti-hits tail, so we retrieve a generous top-k.
effective_k = k if k is not None else max(n_records + 10, 20)
hits_exact = 0
for text in pinned_texts:
if storage_direct:
# D5-01 (c): bypass recall() -> no per-hit provenance write amplification.
raw = s.query_similar(cue_emb, k=effective_k)
literal_surfaces = [rec.literal_surface for rec, _score in raw]
else:
# retrieve.recall now defaults to mode='verbatim'
# (conservative North-Star fallback). The bench's _make_pinned
# uses tier='semantic' which the verbatim filter would drop.
# The bench is measuring "verbatim TEXT exact-match recall under
# noise" — that is independent of the cue-router's verbatim/concept
# mode (the bench uses synthetic cues, not classifier-tagged
# natural-language queries). Pin mode='concept' so the bench
# measures what it has always measured.
resp = recall(
store=s,
cue_embedding=cue_emb,
cue_text=text,
session_id="bench-verbatim",
budget_tokens=5000,
k_hits=effective_k,
k_anti=3,
mode="concept",
)
literal_surfaces = [h.literal_surface for h in resp.hits]
if text in literal_surfaces:
hits_exact += 1
accuracy = hits_exact / n_records if n_records > 0 else 0.0
return {
"accuracy": accuracy,
"n_records": n_records,
"session_gap": session_gap,
"noise_per_session": noise_per_session,
"hits_exact": hits_exact,
"passed": accuracy >= ACCURACY_FLOOR,
"floor": ACCURACY_FLOOR,
"noise_mode": "random-unit-vectors",
"noise_seed": seed,
# diagnostic traceability keys.
"skip_l0_seed": bool(skip_l0_seed),
"storage_direct": bool(storage_direct),
"k": int(effective_k),
}
def _build_arg_parser() -> argparse.ArgumentParser:
parser = argparse.ArgumentParser(
prog="bench.verbatim",
description="OPS-04 / verbatim recall benchmark + diagnostics",
)
parser.add_argument(
"--skip-l0-seed",
action="store_true",
help="D5-01 diagnostic: skip _seed_l0_identity to isolate L0 crowding effect",
)
parser.add_argument(
"--storage-direct",
action="store_true",
help="D5-01 diagnostic: bypass recall(), call store.query_similar directly",
)
parser.add_argument(
"--n", "--n-records",
dest="n_records",
type=int,
default=20,
help="pinned record count (default 20)",
)
parser.add_argument(
"--gap", "--session-gap",
dest="session_gap",
type=int,
default=20,
help="session gap -- how many noise sessions between writes and recall (default 20)",
)
parser.add_argument(
"--noise-per-session",
type=int,
default=10,
help="noise records per simulated session (default 10)",
)
parser.add_argument(
"--k",
type=int,
default=None,
help="override k_hits (default: max(n_records + 10, 20))",
)
return parser
def main(argv: list[str] | None = None) -> int:
parser = _build_arg_parser()
args = parser.parse_args(argv)
result = run_verbatim_bench(
n_records=args.n_records,
session_gap=args.session_gap,
noise_per_session=args.noise_per_session,
skip_l0_seed=args.skip_l0_seed,
storage_direct=args.storage_direct,
k=args.k,
)
print(json.dumps(result))
return 0 if result["passed"] else 1
if __name__ == "__main__":
sys.exit(main())