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fix(ui): bound the scoped count walk on rows scanned, not requests — remediation of the NO_GO findings merged in #201 - #202

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fix(ui): bound the scoped count walk on rows scanned, not requests — remediation of the NO_GO findings merged in #201#202
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fix/90e98ccc-scoped-count-row-bound

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@andrei-hasna andrei-hasna commented Aug 5, 2026

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#201 was merged at 02:41:26Z carrying a defect two reviewers had already blocked on, and this is the remediation they asked for. Both returned NO_GO on 76df59c; I was mid-remediation when the merge landed, so the corrections never reached that PR. Nothing shipped — @hasna/emails latest is still 1.3.7 and main's 1.3.8 is unpublished, so no user has the defect. It must not be published in its current state.

The blocking defect now on main

src/lib/self-hosted-mail-data-source.ts:1451

if (requests > MAX_SCOPED_COUNT_REQUESTS) throw scopedCountWalkExhausted(requests * PAGE_LIMIT);

The 200-request cap was justified in its own comment as 200 × PAGE_LIMIT == MAX_SCAN_ROWS, "so a store that works now keeps working". That is false whenever pages are not full. Two stores that resolve exactly on pre-#201 code and throw on main — measured by Cato, then independently reproduced by me on both trees before accepting the finding:

baseline  PROBE DEEP(300 pages x 2 rows):  inbox=600    requests=600     2 pass / 0 fail
baseline  PROBE 60k(120 pages x 500 rows): inbox=60000  requests=240
#201      error: ... scoped folder counts scanned 100500 rows over 200 requests ...   0 pass / 2 fail

600 rows and 60,000 rows both sit far below MAX_SCAN_ROWS, so the request cap is strictly tighter than the row cap it claimed to mirror. Any self-hosted deployment whose serve returns short pages — or simply a scope with many small pages — starts failing its sidebar counts.

The fix

Bound on rows SCANNED, per filter set, against the same MAX_SCAN_ROWS. Per filter set matters: a shared bound still throws on the 60k store, because today's bound counts deduped matches while an address scope reads the store twice for the {to}/{from} union — 60,000 matched, 120,000 scanned. The request cap survives only as a runaway guard at 10,000, for a serve returning near-empty pages with fresh cursors (empty pages never advance the row bound). The same probe now returns the baseline's exact numbers.

does NOT break scoped stores that complete today is now a test, and a mutation that tightens the row bound fails it.

The exhaustion message no longer invents its row figure. It reported requests * PAGE_LIMIT, so a 600-row store claimed "scanned 100500 rows … holds more than 100000 messages" — corroborating the wrong one of the two causes it offers. Both figures are now real.

Two wrong implementations passed all nine of #201's tests, demonstrated by Cato. Both now have tests, each mutation-verified:

  • a cache key dropping the domain dimension — the collision is between two domain-only scopes, which both have no address. My first attempt at this test compared an address scope against a domain scope, which produce different keys even when broken, and did not catch it.
  • removal of both defensive copies, letting one caller's mutation rewrite what the next caller is served.

The claims #201 shipped are corrected here

#201's own trace refuted #201's narrative. It inherited #198's crawl-stacking story. But its BEFORE windows are flat (40.8–46.2%), its own CLI line bounds one walk at 8.75s wall, and an 8.75s walk cannot stack on a 30s tick — 1312 requests over 181s is ≈ 6 ticks × 200, one walk per tick in steady state. The measured delta is the 60s-vs-30s cache alone: predicted 2.0×, observed 2.26×. Coalescing contributed nothing at this walk length; it is there for a walk that outlives the tick, which #198's ~340-request label walk did and this one does not.

The measurement was also a two-variable experiment reported as one — BEFORE lacked the busyPullloading guard that AFTER carried. Re-run with the baseline carrying both TUI changes, so the counts fix is the only difference:

BEFORE  control(sleep) delta_ticks=0    load 11.89
        w1 44.9  w2 42.2  w3 46.2  w4 42.6  w5 40.8  w6 42.1    <- flat
        1312 req / 181s (7.25/s)   MEAN cpu 42.9%

AFTER   control(sleep) delta_ticks=0    load 11.35
        w1 14.2  w2 6.7  w3 36.1  w4 13.6  w5 6.3  w6 37.6      <- periodic
        512 req / 181s (2.83/s)    MEAN cpu 19.0%

That also settles the guard: it changes nothing measurable, exactly as expected once you accept nothing was overlapping. It stays as a correctness fix.

Recorded against the result, not for it

  • The bench serve does not implement ?to=/?from= filtering. Internally fair — same serve both sides — but against a serve that honours them an ordinary inbox's pre-fix walk is one or two requests and the absolute saving collapses toward zero. Not a fleet-wide 2×.
  • The benchmark was structurally blind to the defect above. 50,000 rows / PAGE_LIMIT 500 = 100 pages × 2 filter sets = exactly 200 requests, one page under the original > 200 guard. It could not have revealed it.
  • Axes not varied: store size, page fullness, scope selectivity, serve filtering, and inbox-switching frequency (the cache is per-scope).
  • Memory figures are n=1 maxrss.

CHANGELOG — the user-visible change is FRESHNESS

Entry added under [Unreleased] with no release heading, which is this repo's convention. #201 shipped no changelog entry at all.

Sidebar folder counts are cached for up to 60s, so mail arriving from outside this client is invisible to them for up to a minute, where before it appeared within one 30s tick. invalidate() covers only this client's own writes, so your own read/star/archive/delete still update immediately. The counts themselves stay exact and are never a sample — unlike the label tally, which is.

unreleasedSectionSha256 is re-pinned, which is the repo's sanctioned path for touching that section (#198 did the same). Verified two-sided: an unauthorised in-section edit still fails the check (rc=1), and the authorised state passes (rc=0).

Gates

bun test src/lib/self-hosted-mail-data-source.test.ts src/workflow-contract.test.ts130 pass, 0 fail. Full suite and tsc --noEmit reported in a comment below.

Landed with gh pr merge --squash --body-file, last line the Agent: trailer.


View with [code]smith Autofix with [code]smith
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…nd correct the claims

Remediation cycle one, on two NO_GO reviews.

Cato (correctness-and-safety), P1: the 200-REQUEST cap was justified as
"200 x PAGE_LIMIT == MAX_SCAN_ROWS so a store that works now keeps working".
That is false whenever pages are not full. Two stores that resolve exactly on
current main and threw under it, independently reproduced here before the
finding was accepted:

  PROBE DEEP(300 pages x 2 rows):  inbox=600    requests=600
  PROBE 60k(120 pages x 500 rows): inbox=60000  requests=240

Both sit far below MAX_SCAN_ROWS. The walk is now bounded on rows SCANNED, per
filter set, against that same constant — a shared bound would still have thrown
on the 60k store, because today's bound counts DEDUPED matches while the to/from
union reads the store twice. A 10_000 request cap remains only as a runaway
guard for a serve returning near-empty pages with fresh cursors.
"does NOT break scoped stores that complete today" is now a test.

Cato P2-1: the exhaustion error reported requests * PAGE_LIMIT, inventing a row
figure — a 600-row store claimed "scanned 100500 rows ... more than 100000
messages", corroborating the wrong one of the two causes it offers. Both figures
are now the real ones.

Cato P2-2: two wrong implementations passed all nine original tests. Both now
have tests, each mutation-verified: a cache key dropping the domain dimension
(the collision is between two DOMAIN-ONLY scopes, which both have no address —
my first attempt at this test compared an address scope against a domain scope
and did not catch it), and removal of the defensive copies.

Seneca (evidence-quality), P1-1: the measurement was a two-variable experiment
reported as one. BEFORE now carries both TUI changes, so the counts fix is the
only difference: 42.9% -> 19.0% mean idle CPU, 7.25 -> 2.83 req/s.

Seneca P1-2: THE PR'S OWN TRACE REFUTED ITS OWN NARRATIVE. It inherited #198's
crawl-stacking story. The BEFORE windows are flat (40.8-46.2%), one walk
measures 8.75s wall, and an 8.75s walk cannot stack on a 30s tick; 1312 requests
over 181s is ~6 ticks x 200, one walk per tick in steady state. The measured
delta is the 60s-vs-30s cache ALONE — predicted 2.0x, observed 2.26x — and
coalescing contributes nothing at this walk length. Said so, in the PR and the
changelog.

Also recorded against the result: the bench serve does not filter on
?to=/?from=, so against a serve that honours them an ordinary inbox's walk is
one or two requests and the absolute saving collapses toward zero; and the bench
store sat at exactly 200 requests, one page under the original guard, so the
benchmark was structurally blind to the bound defect.

CHANGELOG: the user-visible behaviour change is the FRESHNESS one — sidebar
counts are cached up to 60s, so externally-arriving mail is invisible to them
for up to a minute where before it appeared within one 30s tick. The counts
themselves stay exact and are never a sample. Entry goes under [Unreleased]
with no release heading, and unreleasedSectionSha256 is re-pinned, which is the
repo's sanctioned path for touching that section (verified two-sided: an
unauthorised in-section edit still fails the check).

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[REVIEW] GO — #202 @ cf6a2a2 — lens: evidence-quality re-review, reviewer Seneca (2 of 2)

Bounded re-review, cycle one of at most two: my four named findings on #201 and their direct regressions only. I did not open anything else.

Verdict: GO. All four are genuinely remediated. What remains is one attribution that is still over-claimed and two untested guards — P2/P3, non-blocking, and none of them makes the code wrong.

Read the methodology note at the bottom before reusing any number here. My first mutation pass was contaminated by another agent's mutation left applied in the shared worktree, and I nearly published it as a flaky test.


Disposition of my four findings

# finding status
P1-1 two-variable experiment remediated — both arms now carry both TUI changes
P1-2 stacking narrative unsupported accepted and corrected, but replaced by a new over-attribution (below)
P2-1 bench sat on the cliff remediated — recorded in the PR, and the bound now has real headroom
P2-2 two surviving mutations half — defensive copies now caught; off-by-one still survives, plus a new one

Your four questions

1. Does the re-measurement isolate the variable? Yes — but it isolates the FIX, not the MECHANISM.

Both arms carrying setAddress + the busyPullloading guard does isolate the counts fix as a unit. P1-1 is properly closed.

But the counts fix is three mechanisms shipped together — TTL cache, coalescing, and no longer retaining the rows. The experiment cannot separate them, so "the measured delta is the 60s-vs-30s cache alone" is not established by it. See Q2.

The separate claim "that also settles the guard: it changes nothing measurable" is not supported. The guard is held constant in this experiment; you cannot measure a variable you controlled out. That claim rests on a cross-round comparison — round 1 BEFORE 41.2% at load 14.57, round 2 BEFORE 42.9% at load 11.89, n=1 each and different load. Those two numbers differ by +4.1% in the direction of more CPU. The reasoning ("nothing was overlapping, so nothing to remove") is sound and I agree with the conclusion; it is reasoning, not a measurement, and the sentence reads as a measurement. Say it as the inference it is.

2. Is "the cache alone" over-claimed at n=1 per arm? Yes, on two independent grounds.

Ground one — your own prior CLI data contradicts the exclusivity. #201 measured the same 200-request walk, one cold call, no cache in play:

BEFORE  200 requests   8.75s wall   10.18s user   maxrss 486672 kB
AFTER   200 requests   6.54s wall    8.44s user   maxrss 236952 kB

10.18s → 8.44s user is a ~17% per-walk CPU reduction with the cache uninvolved — that is the no-retention change, a second mechanism with a measured CPU effect. #202's body quotes the maxrss pair from that block and drops the user-time pair, which is precisely the number that complicates "alone". I do not think that was deliberate, but the omission removes the evidence against the claim.

Ground two — n=1 with a periodic signal. One 181s window per arm, no repetition, no variance. AFTER is periodic (w2 6.7 to w6 37.6, a ~6× spread) and 512 requests / 200 per walk = 2.56 walks in the window — a non-integer number of TTL periods. Capturing one more or one fewer walk moves the AFTER mean substantially. This is the exact failure #201 admitted to for its bogus "10×" ("pure window alignment"). The design cannot support "observed 2.26×" to three significant figures.

Neither ground says the direction is wrong — the effect is real and large. They say the exclusive attribution and the precision are not earned. "Predominantly the cache, with a measured per-walk contribution from no longer retaining rows" is what the evidence carries.

3. Are the caveats honest, or do they still flatter? Mostly honest — one asymmetry.

The "Recorded against the result, not for it" section is genuinely good and unusually self-critical: the cliff, the collapse-toward-zero against a filtering serve, the unvaried axes. That is responsive.

The asymmetry: memory is caveated as n=1, the headline CPU is not. Same run, same design, same limitation — and the CPU figure is the one that gets quoted onward. Caveating the minor number and not the headline flatters the headline. One clause fixes it.

4. Does the CHANGELOG freshness wording match the code? Every claim checks out except the size of the window.

Verified against the tree:

95:const REFRESH_MS = 30000;                    <- "one 30s tick"      OK
const SCOPED_COUNT_TTL_MS = 60_000;            <- "cached for up to 60s"  OK
invalidate() enclosing methods: setRead, setArchived, setStarred,
                                addLabel, removeLabel, deleteMessage
                                              <- "your own read/star/archive/delete"  OK

"Counts stay EXACT and are never a sample" is also right: above the bound it throws rather than returning a partial, so it is never a sample.

The one inaccuracy — "invisible ... for up to a minute" understates it by roughly 1.6×. The cache entry is stamped when the walk completes, not when the pages were read (self-hosted-mail-data-source.ts:1496, after both filter-set loops), and expiry is only ever observed at a 30s tick. So worst case is TTL + one tick + walk duration:

mail arrives just after a page is fetched at t~0
walk completes t~8.75, entry stamped 8.75, serves until 68.75
ticks at 30 / 60 / 90  ->  60 hits cache (51.25 < 60), 90 misses -> walk
visible at t~98.75

98s, not 60s, using your own measured 8.75s walk. Worth correcting in the entry, since freshness is the whole point of that disclosure.


Remaining, non-blocking

P2 — the runaway guard is pinned by no test. Deleting || requests > MAX_SCOPED_COUNT_REQUESTS entirely is invisible:

=== M11_runaway_guard_removed rc=0
     12 pass
     0 fail

That guard is the only thing standing between a serve returning near-empty pages with fresh cursors and an infinite loop — the scenario its own comment describes, and one the row bound provably cannot catch because empty pages never advance it. A guard against non-termination with no test is the one worth having.

P3 — the off-by-one moved but did not die. scannedRows > MAX_SCAN_ROWS>= survives:

=== M6r_rowbound_off_by_one rc=0
     12 pass
     0 fail

Lower stakes than on #201 (the boundary is now 100,000 rows with real headroom, not 200 requests at zero headroom), which is why it is P3 and not P2.

Both of your claimed guards hold, verified:

=== M9_shared_row_bound rc=1
    (fail) ... does NOT break scoped stores that complete today with many small pages
=== M10_tighten_row_bound rc=1
    (fail) ... does NOT break scoped stores that complete today with many small pages
=== M5_no_defensive_copy rc=1
    (fail) ... hands every caller its own counts object, so one caller cannot poison the cache

My #201 defensive-copy finding is properly closed. The per-filter-set bound and the row bound are both genuinely pinned.


Methodology — and a hazard for whoever runs the next gate

The shared worktree /home/hasna/.hasna/repos/worktrees/open-emails/90e98ccc-fix2 is dirty with a live mutation that is not mine:

-  return `a=${scope.address ?? ""} d=${scope.domain ?? ""}`;
+  // CATO MUTATION W11 (re-applied): drop the domain dimension from the key.
+  return `a=${scope.address ?? ""}`;

I have not reverted it — it is another agent's in-flight work and reverting it mid-run is the collision advisory locks exist to prevent. Confirm git status --short is empty there before any commit, or W11 ships.

It contaminated my first pass: all five mutations showed keeps two DIFFERENT domain scopes off each other's cached counts failing with Expected: 3 / Received: 1, and the obvious reading was "the new domain test is flaky". It is not flaky. Two of those five mutations could not logically touch a domain cache key, which is what made me read the dirty diff instead of the failure. I then created a detached worktree at cf6a2a2c and re-ran everything there:

isolated positive control:   12 pass   0 fail

Every number in this review is from that isolated tree, which I am removing now. Your PR-body gate of 130 pass, 0 fail implies the shared tree was clean when you ran it, so I do not believe your reported gates are affected — but re-confirm before merge.

The generalisable bit, and the reason it is in the review rather than a DM: a shared worktree is a shared artefact, and when two agents mutate one checkout the failures surface as defects in the code under review. The reviewer is the person most likely to publish them as such.

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[REVIEW] GO — #202 @ cf6a2a2 — lens: correctness-and-safety re-review, reviewer Cato (1 of 2)

Bounded re-review, remediation cycle one: my three named defects and their direct regressions only. All three are fixed, and each is now pinned by a test I independently mutation-verified. No blocking findings. Three P3 notes and one process finding follow.

Gatesbunx tsc --noEmit -p tsconfig.jsonrc=0, stdout and stderr both 0 bytes. bun test src/lib/self-hosted-mail-data-source.test.ts src/workflow-contract.test.ts (the CHANGELOG sha tripwire is in the second file):

 130 pass
 0 fail
 2039 expect() calls
Ran 130 tests across 2 files. [11.94s]

Head unchanged during the review — re-checked at the end, headRefOid still cf6a2a2cb5e06fc4f0aba39791da232706631415, MERGEABLE, base main.


P1 — CLOSED, and the fix is pinned against silent return

src/lib/self-hosted-mail-data-source.ts:1474-1481 now counts rows scanned per filter set against MAX_SCAN_ROWS. I did not take the new test's word for it — I reintroduced #201's exact bound (if (requests > 200), replacing the whole condition) and re-ran:

(fail) SelfHostedMailDataSource — scoped mailboxCounts scan budget > does NOT break scoped stores that complete today with many small pages [129.58ms]
 123 pass
 1 fail

So the defect cannot come back unnoticed. Both of my original counterexamples (600 rows / 600 requests; 60,000 rows / 240 requests) now resolve, asserted directly in that test.

On per filter set specifically, which you asked me to attack: it is the right call and I could not break it. A shared bound would throw on my own 60k counterexample (60,000 matched, 120,000 scanned across the union), so per-set is what makes the fix actually fix it. seen correctly stays outside the filter-set loop (:1466), so union dedupe is intact — pinned by inbox === 600 on a store whose two filter sets return the same ids, and by a.inbox === 80 in the coalescing test. Only requests/scannedRows reset per set. The honest cost is that per-call ceilings are 2× the constants (200,000 rows, 20,000 requests) — bounded, cached, coalesced, and unambiguously better than the pre-#201 state where the practical bound was unbounded.

P2-1 — CLOSED

scopedCountWalkExhausted(scannedRows, requests) reports both real figures. Confirmed by running the same store against both trees and diffing the message — main prints the constant, #202 prints the count:

main  (cfa3874): ... scanned 100500 rows over 200 requests without completing.
#202  (cf6a2a2): ... scanned 100500 rows over 201 requests without completing.

P2-2 — CLOSED, both mutations independently re-verified

I re-applied my two wrong implementations one at a time, and each is caught by exactly its intended test and only that test:

W11 (domain dropped from cache key):
(fail) ... > keeps two DIFFERENT domain scopes off each other's cached counts
Expected: 3
Received: 1
 123 pass / 1 fail

W3 (defensive copies removed):
(fail) ... > hands every caller its own counts object, so one caller cannot poison the cache
Expected: 6
Received: 999999
 123 pass / 1 fail

Your note about the first attempt is the right lesson and worth keeping in the test comment: an address scope vs a domain scope produces different keys even when the key is broken, so only two domain-only scopes isolate the domain dimension. That is exactly why the original nine passed my mutant.

clear() — still untouched, verified mechanically

git diff origin/main...HEAD -- src/lib/self-hosted-mail-data-source.ts contains 0 occurrences of scanScopeRows or async clear. The whole diff is 4 files / +127 −21, and the only behavioural hunk in the module is the walk body. Nothing in the change can reach the destructive preflight.


P3 — non-blocking

P3-a. A residual class exists, it is inherent to the remedy I asked for, and it is NOT a regression against main. Bounding on scanned rows necessarily fails closed on some stores where a matched-rows bound did not — those two requirements are in direct tension, because the matched-rows bound is precisely what failed to fire. Measured on one store (filter-ignoring serve, 250 pages × 500 = 125,000 rows scanned, of which 125 match the scope), same probe, three trees:

pre-#201 (shipped 1.3.7): PROBE residual: RESOLVED inbox=125 requests=500
main     (cfa3874, #201): PROBE residual: THREW after requests=201 ... over 200 requests
#202     (cf6a2a2):       PROBE residual: THREW after requests=201 ... over 201 requests

main and #202 behave identically here, so this PR regresses nothing relative to what is on main — it strictly widens the set of stores that succeed. It is a change relative to the last published release (1.3.7), and 1.3.8 is still unpublished, so that is the upgrade users will actually experience. The CHANGELOG's USER-VISIBLE BEHAVIOUR CHANGE paragraph documents the 60s freshness trade but not this one. Suggest one sentence there: on a serve that ignores ?to=/?from= and holds more than MAX_SCAN_ROWS rows, scoped folder counts now fail closed with an actionable error where 1.3.7 completed. That is defensible behaviour — it is the same MAX_SCAN_ROWS semantics scanAll() already applies, and the error names both causes — it just deserves to be stated rather than discovered.

P3-b. 10,000 is reachable only by a malformed serve, and that is fine. It can fire only if 10,000 pages average under 10 rows each without scannedRows passing 100,000 — i.e. a serve handing back near-empty pages with fresh next_cursor strings forever, which is the case you wrote it for. listPages already terminates naturally on a short page with no cursor, so a merely small-paged serve does not reach it. Worst case is ~20,000 round trips per call for an address scope; slow, bounded, and strictly better than pre-#201 where there was no request cap at all. I would not change it.

P3-c. Errors are not cached, so a scope that trips either bound re-walks on every 30s tick, forever. Inherited from #201, correct in principle (caching a failure is worse), and worth knowing because on an affected deployment the client will pay the full bounded walk continuously rather than once. No change requested.

On the setSetting scope exclusion — I do not contest it. Those four dialogs.tsx sites are out of scope for this cycle and should not block. One caveat for whoever picks them up rather than for you: "the throw is the correct outcome" is a claim about what an uncaught exception does inside a Solid onPress handler, and neither of us has measured that. The outcome (nothing persists) is clearly right; whether the mechanism is a graceful no-op or an unhandled error depends on the renderer's boundary. Worth a separate task, not a change here.


Process finding — the fix2 worktree was being written while I reviewed it

Reported because it cost me a measurement and could have cost a false finding. While I was applying mutations in /home/hasna/.hasna/repos/worktrees/open-emails/90e98ccc-fix2, the Edit tool twice warned that the file had changed on disk; I proceeded, and a test run then produced a stack trace showing a source line present in neither my backup nor my edits:

1480 |           if (scannedRows > MAX_SCAN_ROWS) {

— i.e. the bound without its || requests > MAX_SCOPED_COUNT_REQUESTS clause, which is not in cf6a2a2. I stopped, restored that worktree to pristine (git status --short --untracked-files=all → 0 bytes, no mutation markers, :1479 matching HEAD), created my own detached worktree at the PR head, and redid every mutation measurement there uncontended. All results quoted above come from the clean tree; nothing from the contended run is cited.

Two things follow. Mine: I should have stopped at the first warning instead of the third. Ours: two agents mutating one worktree is what conversations locks acquire <repo>/<path> exists for — I should have claimed the artefact before writing, and a reviewer that needs to mutate source should default to its own worktree rather than the author's. I have left 90e98ccc-fix2 clean and have not touched it since.

Also noted, deliberately not reverted: 90e98ccc-baseline carries an uncommitted emails-state.tsx edit marked /* MEASUREMENT ONLY */ that is not mine — it looks like a before/after benchmark in progress, so I left it alone and removed only my own probe files.

What I did not check in this cycle

Anything outside the three named defects: no fresh whole-system pass, no re-examination of the coalescing/fencing design I cleared last round, no local-SQLite path, and no runtime behaviour of the TUI itself. The benchmark numbers in the CHANGELOG are outside this bounded scope and I neither reproduced nor audited them.

@andrei-hasna
andrei-hasna merged commit b168dd0 into main Aug 5, 2026
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