bbc903b2b4e5743d08eafec9e462d9cd591d2c7a
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Commits
| Author | SHA1 | Message | Date | |
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 Claude Opus 5
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fef6ef20a4 |
UX-01: translate the add-on config, and order it by task
checks / unit (pull_request) Successful in 5m1s
The add-on had NO translations/ directory, so Home Assistant fell back to rendering the raw option KEYS. An operator opening Configuration read `unit_sign_disagree_w`, `saturation_cycles`, `integrator_max_w` - seventy of them, in file order, with no description and no way to tell a constant derived from 1890 closed-loop test runs from their own inverter's rating. ⚠️ PRESENTATION ONLY. Not one default, not one schema range and not one line of behaviour moved. The 175 non-comment lines of config.yaml are byte-identical to release/1.0's, reordered; the only comment lines that changed are the group banners and five sentences whose "above"/"below" the reorder made false. * translations/en.yaml and translations/nl.yaml: a name and a description for all 70 options and all 7 per-entry keys of the `inverters:` repeatable section. The Dutch is written for a Flemish homeowner - afname/injectie, kwartierpiek, capaciteitstarief - not transliterated from the English. * ⭐ Every derived constant says WHERE IT CAME FROM and whether to touch it. `unit_sign_disagree_s` cites its 1890 closed-loop runs (SAFETY-30); `circulation_w` its 924 runs and the measured 400 W knee (SAFETY-31); `meter_freeze_s` its 2399 s capture (SAFETY-18); `bms_soc_floor` register 0x0560. The two numbers that are the operator's - max_w and peak_cap_w - say "THIS IS YOUR NUMBER". `cycle_cost_threshold_eur`, which is neither, says it is an open product question (OPT-08). * config.yaml reordered into task order in BOTH halves, comments carried with their keys: hardware -> meter -> ratings and limits -> tariff -> maintenance -> safety -> advanced. ⚠️ test_inverter.py:1788's trap is PRESERVED: the nested per-entry `max_w:` still precedes the flat one under `schema:`, and `inverters: []` still ships in the `options:` half. Moving the nested block below the flat one is a 1-byte edit; it was run and goes red in test_inverter.py and test_translations.py. * tools/supervisor_shape_probe.py section F MEASURES the result against ghcr.io/home-assistant/amd64-hassio-supervisor:2026.08.0 - Supervisor's own _read_app_translations(), its own UiOptions, and the frontend's label resolution transcribed from the shipped bundle - and prints every rendered row in both languages. `all cases passed`, exit 0. * ⚠️ ONE MEASURED NEGATIVE RESULT, NOT GLOSSED: the per-entry keys inside the `inverters:` section still render RAW on frontend 20250925.1, because a list-of-objects goes to ha-selector-object and the converter sets no `label` and no `translation_key`. The `fields:` translations are shipped and validated - that is Supervisor's own shape for this - but this card does not claim they reach the screen. The `inverters` label and description do. * test_translations.py: a translation naming a non-existent option, or an option with no translation, fails CI - both directions, both languages, top level and per entry. Mutation-tested BOTH WAYS: eleven in-process mutations each required to NAME the key they broke, plus a negative control; six more run on disk through the purge-and-re-read protocol. Two of the eleven are the ones that cost the WHOLE FILE rather than one label - an unrecognised top-level block, and a `network:` value that is not a string. Supervisor drops a file that fails SCHEMA_APP_TRANSLATIONS with only a log warning, so those silently return the entire tab to raw keys; neither is reachable through the `configuration:` coverage, which is why they were hunted for and closed. * tools/translations_lint.py is the hand parser CI needs (no PyYAML in the add-on image) and the probe grades it, key by key and string by string, against Supervisor's own loader. It is strict and RAISES rather than skipping; nine malformed shapes prove it. Full 20-file suite green (19 existing + test_translations.py). Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU |
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 adminandClaude Opus 5
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19decf433f |
SAFETY-32 round 5: stop closing sites, build an instrument that finds its own scope
checks / unit (pull_request) Successful in 4m59s
Rounds 2, 3 and 4 each closed exactly the survivor they were handed and each time
the reviewer found the same shape one step over: the reduction, the call site, the
sibling argument, and now the sibling MODULE. Round 4's enumeration stopped at the
`Controller` class boundary; round 5's four blockers were reductions in validate.py,
over a list DERIVED from the roster three calls away from it. Closing four more sites
by hand would have produced a fifth rejection, so this round widens the instrument
instead and lets it enumerate.
⚠️ THE BLOCKERS ARE NOT EQUIVALENT MUTANTS - a safety refusal disappears, verified by
calling the shipped validator both ways on the real tree:
roster max_w 5000 (inverter-a) beside 2000 (inverter-b), sign_disagree_w 3000
clean -> 1 problem, "...max_w (inverter-b) is 2000 W, so the
SAFETY-02 sign-disagreement watchdog can never fire"
min(caps[:1]) +4 B -> 0 problems. The site STARTS.
caps_ix[:1] +4 B -> 0 problems.
the SAME roster with the small cap FIRST (2000, 5000)
clean -> 1 problem, naming inverter-a
min(caps[-1:]) +5 B -> 0 problems.
⚠️ AND THE ONE-ROSTER FIXTURE COULD NOT HAVE SEEN THAT. On [5000, 2000] the `[-1:]`
mutant still refuses, because last IS min there. A fixture of N members cannot separate
two reductions that agree on N members - which is why the behavioural half below is a
SET and not a roster.
THE INSTRUMENT (test_peakguard.py part 12j, widened past `Controller`)
Every `.py` under app/ is read off disk and parsed - NO MODULE IS NAMED IN THE CHECK -
and the roster is found by transitive closure from ONE seed, the `inverters` option key:
through returns, through lists ACCUMULATED in a loop over a roster (which is exactly
what `caps`, `roster` and `problems` are, and what round 4's rule could not express),
through attributes and properties, and THROUGH CALL ARGUMENTS, which is how it walks
into peakguard, arbiter, allocator, circulation, maintenance and store without being
told they exist. A slice of a roster stays a roster so a mutation cannot cut the taint;
an index is one unit and does not.
183 roster reductions across 9 modules, out of 23 files parsed:
main 96, allocator 24, validate 19, arbiter 14, circulation 10, maintenance 10,
peakguard 4, inverter 3, store 3. 14 modules reduce over no roster at all.
⚠️ THE HAND-WRITTEN MODULE LIST WOULD HAVE BEEN WRONG IN BOTH DIRECTIONS. It named
watchdog.py, which reduces over no roster at all (SAFETY-30's sign watchdogs are
strictly per-unit), and omitted maintenance.py and store.py, which both do. A vacuous
claim about one module and no claim at all about two others - which is the argument for
computing the scope, made with data.
The pin rediscovers ALL FOUR blockers without being told where to look, and finds a
FIFTH beside them (validate.py:783, rule 5's own message) that no review round named.
Its counterfactual runs at two depths: every enumerated site's expression mutated with
each of the four cuts this card has been defeated by (183 x 4 = 732 spellings, all
reported), and `[:1]` written into app/validate.py at each blocker position with the
WHOLE analysis re-run over the mutated source.
THE SWEEP, AND THE NUMBER THAT MUST NOT BE QUOTED ALONE
All 183 sites mutated to `[:1]`, +4 B each, against the full 19-file suite in
goodwe-addon-ci (:ro, -B, fresh rsync per mutant, 0 .pyc before and after - a read-only
mount cannot write one): 183/183 RED. ⚠️ That is TAUTOLOGICAL on its own, because the
pin makes every slice red. So the 51 whose first red was test_peakguard.py were re-run
with the pin NEUTRALISED:
145 of 183 a behavioural fixture separates the site from a slice of itself
38 of 183 ONLY the structural claim. Behaviourally UNGRADED.
All 38 are listed by site with what a `[:1]` there would cost, in the DECISIONS record
and in part 12j itself: 15 are rows and counts on the operator's page, 3 are
`len(targets)` arithmetic beside a write path that IS graded, 6 are allocator internals
ALLOC-01 reaches but not with enough units to separate. NONE of the 38 is closed
behaviourally by this card and none is counted as covered.
THE BEHAVIOURAL HALF, because a shape pin grades an identity and never a meaning
test_validate.py grows a ROSTER SET for the three rules that reduce over
`unit_caps_indexed()`: widths 2, 3, 4, 5 with the one small cap at EVERY position,
14 rosters x 3 rules = 42 runs of the real validator, each asserting the refusal fires
AND names the unit the number came off. Beside it a COMPUTED family table of twelve
candidates - max, first, last, the mean, [:1], [-1:], [:2], [:3], [1:], [:-1], [::2] -
each compared against what the shipped validator actually answered on the same roster.
Only `min` agrees everywhere; a member no roster kills is printed as a NAMED SURVIVOR.
⚠️ A THIRD RULE WAS READING THE FLAT `max_w`, AND IT IS SAFETY-30's
Found by reading the three branches side by side, NOT by the pin - and said that way
because it is the shape of what the pin cannot see. `unit_sign_disagree_w` was graded
against `_number(opts, "max_w", 2000.0)`, three lines under a branch that had already
stopped doing that. Both directions were measured before the fix:
two 2000 W units + a leftover `max_w: 5000` + unit_sign_disagree_w 3000 -> 0 problems.
The site started, the status page said `armed`, and the per-inverter watchdog could
not trip on EITHER unit. Identical sentence to the blocker, one branch over.
two 5000 W units with NO flat key -> REFUSED against a 2000 W default the operator
never wrote, for a threshold both units can reach.
It takes the same `weakest` the branch above takes and names the same unit. At a roster
of one `unit_caps()` is `[max_w]`, so the shipped single-inverter refusal is the same
comparison, the same boundary and the same sentence.
MUTATION PROOF (each: bytecode purged and counted 0 before and 0 after, the edit
re-read FROM DISK with the new text present and the old absent, byte delta printed)
B1 validate min(caps) -> min(caps[:1]) +4 B RED test_validate.py
B2 validate min(caps) -> min(caps[-1:]) +5 B RED test_validate.py
B3 validate caps_ix -> caps_ix[:1] +4 B RED test_validate.py
B4 validate rule 6 min -> min(caps_ix[-1:]) +5 B RED test_validate.py
B5 validate rule 5 msg -> min(caps_ix[:1]) +4 B RED test_validate.py
B6 validate rule 5b msg -> min(caps_ix[-1:]) +5 B RED test_validate.py
B7 CONTROL: weakest -> max(0.0, weakest) +10 B GREEN, as intended
R3a peakguard max(floors) -> min(floors) 0 B RED test_peakguard.py
R3b peakguard max(floors) -> max(floors[-2:]) +5 B RED test_peakguard.py
R3c main call site packs -> self.packs[:2] +4 B RED test_peakguard.py
R4a main pack_floor_soc -> vals[:2] +4 B RED test_peakguard.py
R4b main pack_floor_soc -> vals[-2:] +5 B RED test_peakguard.py
R4c main pack_floor_soc -> vals[:3] +4 B RED test_peakguard.py
R4d main cycle() any(...) -> self.inverters[:1] +4 B RED test_watchdog.py
B1-B6 are caught by the BEHAVIOURAL set in test_validate.py, before the pin is reached.
B7 is a deliberate no-op control: `max(0.0, weakest)` is `weakest` for weakest > 0, and
it stays green, so the battery is not merely red for everything.
R3a is a ZERO-byte delta, so the shipped function was called both ways as well:
packs floors [15.0, 30.0, 20.0], peak_soc_floor 15
binding_soc_floor(...) = 30.0 the 0-byte mutant would answer 15.0 (+15.0 pp)
-> the site would discharge to 15 % while pack-b's own BMS cuts out at 30 %.
⚠️ PRODUCTION IS DEGENERATE ON THE FLOOR AXIS. SPIKE-04: pack A and pack B BOTH floor
at 10 %, so a differing floor exists ONLY in the fixtures. That is the argument for
keeping them, not for simplifying them - collapsing them deletes the only data in this
repository that can see the reduction at all. Restated in config.yaml's example, in the
probe and in the fixtures.
⚠️ INVERTER B DOES NOT PHYSICALLY EXIST (~2026-09-12). Every second-unit figure here -
4600 W FROM ITS DATASHEET, 15 % illustrative, the whole roster SET - is SIMULATED and
labelled. Only inverter A's 10 % is read off hardware.
REBASED onto
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adminandClaude Opus 5
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f9e7fbf86d |
SAFETY-32: bms_soc_floor per pack, rule 8 per unit
`bms_soc_floor` describes A BATTERY, not a site. At two packs of different models the cut-outs differ, and one number for both graded the shallower pack against the deeper one's BMS - so a site with cut-outs of 10 % and 30 % under `peak_soc_floor: 20` STARTED, and the guard would command a forced discharge that pack B's BMS, not the operator's floor, is the thing that stops. That is rule 8's own failure mode, reached through rule 8. Scoped to the card's third bullet, per its PM PROOFREAD: the aggregate anti-windup (DEV-02) and per-instance `achievable_w` (CFG-04) were verified as already shipped and are untouched. * config.yaml: `bms_soc_floor: int(0,50)` REQUIRED per `inverters:` entry. Nothing is inherited; the flat key stays the single-inverter shape's own cut-out. A per-entry DEFAULT was declined - a default is one number for every pack, which is this card's defect - and the decision is recorded. * inverter.py: `Inverter.bms_soc_floor`; an entry that states none gets None, not a borrowed number and not 0.0 (the most permissive value the key has). * peakguard.py: `Pack`, `pack_floor_pct()`, `pack_permissions()`, `binding_soc_floor()`. `discharge_permitted()` is unchanged and is still the one place the question is answered. * validate.py: `unit_bms_floors_indexed()` carries the ROSTER index; rule 8 grades EVERY unit and NAMES the one it refuses. Graded with the offender SECOND and with the same two numbers in the other order. * main.py: `Controller.packs`; `decide(soc_floor=...)` is the per-pack reduction of the same option; the floor-limited notification names the pack that stopped the site. `pack_floor_soc` - the emptiest pack, and its None-on-missing behaviour - is untouched. * tools/supervisor_shape_probe.py: RE-RUN and repaired. The required key broke §C and left §D printing PASS on a refusal about a different key. §D is now an isolated counterfactual over an accepted merged baseline, one key varied, asserting the key name. `all cases passed` on 2026.08.0. Stated rather than hidden: under any config rule 8 accepts the per-pack FLOOR reduces to `peak_soc_floor` for every pack. The reduction is written for `unit_caps_indexed()`'s reason and graded on both sides - 1775 rule-8-valid pairs answer the option, the pair rule 8 refuses answers the cut-out. `peak_soc_floor` is still one number for the site, so the "deeper pack needlessly withheld" half is filed as an open question, not closed. Full 19-file suite green. Twelve source mutations through tools/mutation_run.sh: eleven red, one argued survivor. The battery also found `_flat_bms_floor()` defaulting in two places, each covering for the other. No measurement of inverter B appears anywhere: it does not exist yet. Every second-pack figure is simulated and labelled. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU |
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glenn schrooyenandClaude Opus 5
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a9993aeda2 |
SPIKE-04a: inverter B is 4600 W FROM ITS DATASHEET, and the copies are pinned
checks / unit (pull_request) Successful in 4m51s
The desk half of SPIKE-04. No control behaviour changes; this is documentation and the check that stops it drifting again. Three places stated inverter B's rating - config.yaml's commented roster example, DOCS.md's, and tools/supervisor_shape_probe.py's "a blob an operator would POST" - and all three said 3000 W, a number nobody had measured or read off anything. The owner supplied B's model and serial on 2026-09-04: a GoodWe GW5048D-ES, serial `55048ESU22AW0992`, max charging and discharging power 4600 W. Serial characters 6-8 are `ESU`, platform 105 / AA55, so SPIKE-01 does not gate this site. All three copies now read 4600. ⚠️ 4600 W IS FROM A DATASHEET AND IS NOT A MEASUREMENT, and the one ambiguity is recorded rather than guessed. The datasheet prints it under BATTERY INPUT DATA, so it is probably DC, while max_w is graded against 0x0518 - the inverter's own AC power. If it is DC the AC ceiling is nearer 4324 W. Neither reading is written in as fact; SAFETY-20's min(max_w, dev_max) already bounds it correctly under either, once dev_max is read off the unit, so `max_w: 4600` is what an operator should configure today. goodwe/NOTES.md §1.1b carries the full record with the date and the method on every figure. A NEW CHECK, BECAUSE A DOCUMENTATION FIX WITHOUT ONE DRIFTS AGAIN. test_validate.py now pins all three documented rosters: findable, in agreement, and equal to 4600 - with an explicit len(...) == 3 guard so that a regex which stopped matching cannot leave "they all agree" green on the two sites still read. It also grades the PROVENANCE beside the number (the datasheet, the 0x0518 it is graded against, and the 4324 W the DC reading would make it) WITHIN 2500 characters of the roster rather than file-wide. ⚠️ The first version of that provenance check searched whole files and was ALREADY VACUOUS on two of them: 0x0518 appeared once in config.yaml and once in DOCS.md before this card, for unrelated reasons, so `"0x0518" in src` was green no matter what happened next to B's rating. That is a check whose data cannot reach the failure it names, in the file that exists to complain about them. It is fixed, and the window is what fixes it - deleting the caveat beside the number now goes red even where the same token survives elsewhere in the file. The windowed version immediately found that the DOCS.md caveat did not name 0x0518 at all; DOCS.md now says it. Four mutations, bytecode purged and counted at 0 before and after each, all RED (two of them 0-byte deltas that change a printed answer): M1 probe's operator blob 4600 -> 3000 0 B RED (value + agreement) M2 DOCS.md's DC/AC caveat deleted -157 B RED (provenance) M3 config.yaml alone 4600 -> 4324 0 B RED (agreement) M4 probe entity renamed, regex finds nothing RED (the vacuity guard) Restored, green again. The probe itself was re-run against Supervisor 2026.08.0's own AppOptions validator with the 4600: all cases passed, exit 0. ⚠️ THE TEST FIXTURES KEEP 3000 W ON PURPOSE AND NOW SAY WHY AT THE LINE. test_inverter.py, test_maintenance.py, test_peakguard.py and test_watchdog.py build a second inverter at 3000 W against A's 5000 W. The only property those checks consume is that B's number is unmistakably not A's, and the real pair is a 400 W gap - narrower than slew_w, inside the range where an off-by-one-unit bug and ordinary control arithmetic produce indistinguishable numbers. Collapsing them onto the real values would buy realism those checks do not use and cost them their separating power, which is exactly what test_peakguard.py's own §10g PRECONDITION exists to prevent. Their comments no longer call 3000 W a hypothesis about B's rating; they call it illustrative, and not a placeholder either - the placeholder era ended on 2026-09-04. Also recorded in the changelog for the cards that own them: 94 % battery-to-AC => ~88 % round trip => ~360 W burned continuously to circulate 3 kW, which is the number SAFETY-31 argues its threshold from without having one; < 13 W night self-consumption per unit, which nothing accounts for; and the A/B asymmetry in opposite directions (~33 % more energy, ~8 % less power), which means MAINT-05's 12 h drain timeout was derived on A and should be re-checked against B. ⚠️ Honest survivors: - goodwe/NOTES.md §1.1b, where all of this is actually recorded, is graded by nothing here. Rewriting its 16 occurrences of 4600 to 3000 and turning every FROM DATASHEET label into MEASURED ON THE UNIT leaves all 19 files GREEN. This CI cannot fetch admin/goodwe - private, and GITHUB_TOKEN is minted for this repository only, as .gitea/workflows/checks.yml already states - so the cross-repo check is not buildable here. - No check can see whether 4600 is the RIGHT number. Everything above pins a datasheet reading against itself. Only the bench half of SPIKE-04 can say whether the unit agrees, and the DC-vs-AC ambiguity is the live example. - The constant is still named B_RATING_HYPOTHESIS in four test files, which reads as a hypothesis about B's rating when it is now an illustrative fixture. It is left alone deliberately: renaming ~20 sites across test_peakguard.py and test_inverter.py would collide hard with the open SAFETY-32 pull request, which rewrites 1255 lines of the first. The comment directly above each definition says what the value is and is not. Suite: 19/19 green in goodwe-addon-ci, mounted :ro, bytecode purged and verified 0 before and after. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU |
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glenn schrooyenandClaude Opus 5
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22c016fadd |
CFG-04 fix round: the probe now measures the key it is cited for
checks / unit (pull_request) Successful in 4m33s
Review blocked this on ONE finding, and it was in the EVIDENCE, not the code.
The design and the shipped behaviour are unchanged.
THE INSTRUMENT DID NOT MEASURE WHAT FOUR DOCUMENTS SAID IT MEASURED
tools/supervisor_shape_probe.py section B validated the RECONSTRUCTED LIVE
options blob - which is missing many required keys that have nothing to do with
this card. Its refusal therefore named whichever of THOSE the validator reached
first: the committed transcript recorded `meter_freeze_s`, the reviewer's run
printed `p1_phase_export_entities`, and a run today printed `sign_disagree_w`.
The string those documents quoted - `Missing option 'inverters' in root` - was
never produced by the instrument.
And section B asserted a bare `not ok`. Any refusal at all satisfied it, so
deleting `inverters: []` from config.yaml left it printing PASS: the probe could
not detect the one regression it is the committed evidence for.
THE UNDERLYING CLAIM IS TRUE AND IS NOW MEASURED PROPERLY
Section B is an ISOLATED COUNTERFACTUAL now: the full shipped `options:` block
(expect accept), and the SAME block with `inverters` removed and nothing else
varying (expect refusal). One key differs, so the refusal has nowhere else to
come from - and the assertion is on the KEY NAME IN THE REFUSAL STRING, so the
line goes red if the refusal is ever about a different key. The probe also exits
non-zero when any case fails; without that a transcript is only evidence to
someone who reads it.
The old live-blob case survives as section B2, relabelled for what it is: an
incomplete reconstruction whose RAW half is refused for unrelated missing keys,
kept because its MERGED half genuinely demonstrates what App.options is.
VERIFIED BY BREAKING IT, WHICH IS THE WHOLE POINT
`inverters: []` deleted from config.yaml, probe re-run against
ghcr.io/home-assistant/amd64-hassio-supervisor:2026.08.0:
== B. THE LOAD-BEARING ONE: an options blob with no `inverters` key ==
FAIL the shipped `options:` block validates AS IT STANDS - ...
Missing option 'inverters' in root in GoodWe RS485 Controller
...
== 2 CASE(S) FAILED ==
exit 1. Key restored, same image, same command: `== all cases passed ==`, exit
0. The transcript in DECISIONS is that restored run, re-run today, not the old
one.
THE FOUR MIS-CITATIONS
DECISIONS/CFG-04-inverter-roster.md section 4's "section B shows both halves"
sentence and its line-103 transcript; CHANGELOG.md; test_inverter.py's part-9
comment and its part-12 mutation row; and the PR description. All now attribute
the string to section B and say plainly what section B2 does not show. The
part-12 row additionally records that the probe was blind to that mutation until
review, because a mutation table that lists a defeat nothing catches is the
failure this repository keeps finding.
MUTATION.md gains it as the sixth instance of "the check's data cannot reach the
failure it names" - the first found OUTSIDE the suite, in a committed evidence
artifact, because nothing in that document had ever been pointed at tools/. Three
habits with it: assert on the CONTENT of a refusal rather than that one happened;
vary ONE thing, from an ACCEPTED baseline; and treat a committed transcript as a
check subject to the mutation battery.
TWO NON-BLOCKING FINDINGS, ALSO FIXED
validate.py rules 5 and 6 NAMED THE WRONG INVERTER. `unit_caps()` SKIPS an
entry with no usable `max_w`, so caps position i stops being roster position i
the moment one entry is malformed - and rule 5 fed `caps.index(weakest)` to
`_unit_label()`, which indexes the roster, while rule 6 paired `caps[0]` with a
hard-wired `_unit_label(opts, 0)`. Right number, another inverter's name: an
operator sent to the wrong device by the message that exists to stop that. New
`unit_caps_indexed()` carries the roster index with the cap. It is latent -
rule 9(d) refuses such a config in the same pass - but that was a property of
today's rule ordering, not of the code, and validate_startup_config() is also
sim/inject.py's entry point. Part 10 gains a check that asserts the fixture
really does desynchronise the two lists, then that both messages name the right
unit, then the counterfactual: the OLD expressions, on that same config, still
evaluate to the wrong names.
DOCS.md called a downgrade "safe". True of the SCHEMA - the older schema drops
the key with a warning - and incomplete about the ADD-ON: rule 9(e) requires the
flat `setpoint_entity` be cleared when a roster is declared, so a config that
downgrades cleanly is by construction one whose flat actuator is blank, and the
older version has nothing to write to. Confirmed by running release/1.0's own
validate_startup_config() on that blob: one refusal, naming setpoint_entity.
Recoverable and loud, but an outage until a field is refilled. The note says so
now, and tells the operator to write the entity down before downgrading.
19/19 green in the goodwe-addon-ci image.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU
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adminandClaude Opus 5
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6b85acb0f1 |
CFG-04: an operator can declare a second inverter, and the shape was measured
checks / unit (pull_request) Successful in 4m30s
DEV-02 made every per-device value per-instance - rating, SoC, watchdogs, heartbeat, store keys - so the code stopped assuming one inverter. The options schema did not. `build_roster()` returned a list of exactly one and said so in its own docstring, and there was no `inverters:` key for an operator to write, so the roster could only ever be a roster of one. THE SHAPE, AND WHY IT WAS MEASURED RATHER THAN CHOSEN config.yaml had no list-of-objects anywhere, and `static_profile` carries a whole tariff structure as a JSON string in a `str?` precisely because a nested schema was doubted. That is a question about somebody else's software, so it was answered by running it: `tools/supervisor_shape_probe.py` (committed) runs Supervisor 2026.08.0's OWN `AppOptions` validator and `SCHEMA_APP_CONFIG`, out of the release image, against this repository's config.yaml. 2026.08.0 is the version the live install reports. The full transcript and the argument are in DECISIONS/CFG-04-inverter-roster.md. It accepts the list, enforces per-entry types, refuses a missing `name` / `setpoint_entity` / `max_w` BY NAME, renders the option in the UI as a repeatable section, and drops the key with a warning under an older schema - so a downgrade is not the forward trap in reverse. ⚠️ AND THE `inverters: []` DEFAULT IS LOAD-BEARING, WHICH IS THE MEASUREMENT THAT MATTERED MOST. Supervisor answers `Missing option 'inverters' in root` for an options blob that has no such key - which every existing install's has, since the key did not exist when they were written. `App.options` is the shipped `options:` block deep-merged with the operator's stored one, so the empty default is the difference between an upgrade nobody notices and an add-on that cannot start with a schema pinned to the version that would fix it. That is docs/deploy-rollback.md §4's trap in the FORWARD direction, found before it was sprung. The merger was checked too: lists override rather than concatenate, so a non-empty default could not have grown a roster behind the operator's back. NOTHING IS INHERITED, WHICH IS DEV-02 RESTATED AS A CONFIG RULE `name`, `setpoint_entity` and `max_w` are required of every entry. An entry that omits `soc_entity` has no SoC sensor; it does not borrow the flat one. A three-line fallback would have rebuilt the sibling-grading defect DEV-02 spent a card removing, in YAML. Defaults still live in exactly one place (CFG-03): there is no per-entry default anywhere, because there is no optional per-entry number. A flat `setpoint_entity` left set beside a declared roster is refused rather than ignored - it names an actuator nothing will write. TWO PERMISSIVE READERS IN SHIPPED CODE, AND THREE MORE IN THE CHECKS validate.py rules 5 and 6 compared their thresholds against the FLAT `max_w`. At a roster of two 2000 W units with `max_w: 5000` left over from a single-inverter install, `sign_disagree_w: 3000` passed rule 5 while SAFETY-02's watchdog could fire on NEITHER unit - rule 5's own failure mode, reached through rule 5. They read `unit_caps()` now, which at one inverter is `[max_w]` exactly. main.py's `run_control()` re-ran the device-rating check behind `if self.o.get("setpoint_entity")` - the flat key, which a roster leaves blank - so on a two-inverter site no inverter's `max_w` was graded against the device it is written to, and the skip was silent. `validate_unit_ranges()` grades each unit against its own ESPHome and runs unconditionally. test_peakguard.py's `read_option()` and `_schema_bound()` and test_inverter.py's `read_schema_max()` matched a STRIPPED line and took the first hit, so the nested per-inverter `max_w:` began outranking the flat one - silently, and correctly, because the two bounds are the same int(100,5000) today. A reader that is right by coincidence is this project's named failure mode. All three are anchored at exactly two spaces now; the file's two halves disambiguate `peak_cap_w` instead of first-match, and an ambiguous key raises rather than picking one. test_tariff.py's copy of the idiom went with them. THE AUDIT IS A CHECK, NOT A PROMISE test_inverter.py part 11 finds every config.yaml-reading function in the suite - transitively, because two of the readers CFG-04 had to change never name the file - EXECUTES each against a synthetic two-inverter config.yaml whose per-inverter numbers differ from its flat ones, and fails if any answers with the per-inverter value. The table is not maintained by hand: the signature decides, so the eleventh reader is named on its first run. config.yaml declares `inverters:` BEFORE `max_w:` on purpose and part 11 asserts that ordering, so the trap stays baited. SAFETY-28's `actuator_writers()` needed no change - it was already a structural, case-folding census - but until now there was no configuration in which two writers on one actuator could be WRITTEN DOWN. There is now, and it is refused. VERIFIED BY BREAKING IT Ten mutations run through tools/mutation_run.sh and observed red, listed in test_inverter.py part 12 with the check that bites each. Two survived the first run and the CHECKS were changed, not the table: the inheritance check had blank flat keys, so "inherited" and "not inherited" were the same empty string; and the `run_control()` check asserted a SOURCE LINE was present, which re-indenting it does not remove. Both are recorded in MUTATION.md's "the check's data cannot reach the failure it names" section, which now carries two more habits: assert on behaviour rather than on source text, and give a check whose failure mode is a hang a deadline. 19/19 green in the goodwe-addon-ci image. The one-inverter path is byte- identical: the whole existing suite runs unmodified against it. Version bumped to 0.6.0 - the Supervisor keys the built image by `version:`, so a schema change without a bump is a schema nobody reads. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU |
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glenn schrooyenandClaude Opus 5
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e306c74cb8 |
DEV-02: per-instance inverter objects, so nothing is graded against a sibling
checks / unit (pull_request) Successful in 4m15s
Every piece of per-device state in the Controller was a scalar, and several of
them are safety inputs. app/inverter.py introduces an `Inverter` that owns its
entities, its rating, its device range, its SignWatchdog, its last_write and
its last_beat, under store keys namespaced by unit name. The Controller holds a
list of them and keeps only what is genuinely site-level: the P1 reading, the
site integrator, and the tariff quarter.
WHAT THE SCALARS WERE SILENTLY ASSERTING
dev_min/dev_max one pair, read from one setpoint_entity. A second
inverter's rating was NEVER READ AT ALL, so its clamp, its
freeze rail and the peak guard's achievable_w were the
first one's numbers.
soc one reading into the maintenance FSM, SAFETY-24's pack
floor and arbitrage's bounds. An average lets the emptier
pack be driven below its own floor.
sign_wd ONE SignWatchdog, whose own docstring says "one instance
per actuator", latched under FLAT store keys - so a trip
caused by B latched A across restarts and one operator
press cleared both.
last_beat one deadline and one serialised hass.call(), so a hung
write to A ate B's 30 s layer-1 budget.
actual_w BECAME SITE LEVEL WHILE THE READINGS BECAME PER-INSTANCE, and those
are opposite directions on purpose. compute()'s anti-windup test is
`abs(prev_w - actual_w) > saturation_w` with prev_w the SITE target, so feeding
it one inverter's power compares a site number against a unit number, trips the
saturation freeze permanently and leaves a standing grid error. Measured on
admin/goodwe's two-master rig (tools/alloc_sim.py --splits, 2 kW load, 40
cycles), worst |delta| between splits at the meter:
gain one unit's power the site sum
0.2 510 W 0 W
0.4 250 W 0 W
0.6 50 W 0 W
That was ALLOC-01's disclosed finding; test_alloc.py part 8 kept its stimulus
and now grades the other row.
THE STORE MIGRATION IS GRADED, NOT MERELY PERFORMED. sign_tripped/sign_reason
move to unit/<name>/... once, verified by READING BACK what was written, and
the version marker is set only when nothing that carried state was lost. The
flat keys stay in the file so a rollback still finds its latch. And __init__
compares the pre-migration flat latch against what unit A actually came up
with: if the latch did not survive it is RE-ARMED from the legacy value and
shouted about. A latch that silently fails to migrate is a disarmed safety
guard on an install whose state file says it is protected - which is strictly
worse than never persisting it, because now there is evidence saying it is
fine. test_inverter.py part 2 breaks the migration and watches the guard fire.
HEARTBEATS ARE INDEPENDENT AND THE BUDGET IS DERIVED. Each inverter owns its
deadline, the refreshes go out concurrently, and each write is bounded by
WRITE_BUDGET_S = 4 s. The inequality is graded rather than asserted: 4 +
heartbeat_s's schema maximum of 25 < 30, validate.FIRMWARE_INGEST_VETO_S.
Verified by injecting a transport that accepts and never answers.
live_units() ANSWERS HONESTLY. A unit whose every write has been rejected for a
whole layer-1 window is not commandable; the allocator drops it, the survivors
carry its share, the action log names it, and the dropped unit is commanded
0 W rather than left standing on its last share. A roster entry with NO
setpoint_entity is deliberately not handled there - that is a configuration
that cannot be delivered, and it reaches main.py's refusal branch, which is how
that branch keeps a live trigger after this card removed its old one.
AT N=1 NOTHING MOVES. The removed scalars survive as read/write properties of
the sole inverter, so every existing replay runs unmodified - and they REFUSE
at N>=2 rather than answering for the first inverter, which is the tripwire on
a consumer that was never made per-instance.
EVIDENCE. 19 files green. test_inverter.py is new (82 checks). Eighteen
mutations were applied to the shipped modules on a purged tree via
tools/mutation_run.sh and each was observed RED. Two of them SURVIVED first
time and the checks were changed rather than the table: the serialised dispatch
and the shared last_beat both passed while part 6 gathered its own writes and
computed its own `due` list. send_heartbeats() was extracted from run_control()
so the shipped dispatch is reachable by a check at all.
INVERTER B STILL DOES NOT EXIST. build_roster() returns exactly one inverter
from the flat options and is the one function CFG-04 changes; every two-unit
figure here is architecture, and the second rating in the checks is marked a
hypothesis.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01BwRLw7eKYj2byVdwB6kbjU
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glenn schrooyenandClaude Opus 5
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186e13ceca |
ALLOC-01: allocate the site grid target, sum-invariant, never broadcast
checks / unit (pull_request) Successful in 4m6s
ARB-03 left `allocate()` as a documented seam that passed through at N<=1 and
DECLINED at N>=2, with the reasoning recorded at the line: the obvious
placeholder - hand the site target to each inverter - IS the ARCH-01 fault, and
"a placeholder that cannot be told apart from the real thing by any guard we
have is worse than no placeholder". This fills the seam.
WHY A BROADCAST IS A FAULT AND NOT AN INEFFICIENCY. The control primitive is
meter emulation: the master reports a FABRICATED grid reading and the inverter
regulates itself to it, so one number means "the battery moves X W" to this
add-on and "the grid is at X W" to the inverter - an identity that holds only at
N=1. Hand two inverters the same target and each supplies it IN FULL, so the
loop gain at the meter becomes N times the per-unit gain. Reproduced on
admin/goodwe's two-master rig against this tree: -400 W export overshoot at
gain 0.6, and at gain 1.0 - which config.yaml accepts as its documented maximum
- a permanent 4000 W peak-to-peak limit cycle, commands alternating
1000/2000/1000/0 W, with NOT ONE GUARD FIRING. The sign watchdog is evaluated on
every cycle and never trips, because the disagreement flips on alternate ticks
and never holds its 180 s window.
WHAT WAS BUILT. `app/allocator.py`, host-side and strictly above the driver
seam. It consumes intervals and a number and nothing else - no claims, no
priorities, and no measurement, because an allocator that read P1 would be a
SECOND integrator on the site measurement.
* ENVELOPE CLAMP, from ARB-03 stage 1's `UnitBounds`, read PER TICK. `plan()`
is a pure function and the module holds no state, so there is nowhere for a
construction-time envelope to be cached.
* WATER-FILL by weight, with the surplus of a full unit moving to the others.
Weights express PREFERENCE, envelopes express PERMISSION: a zero weight is
honoured while another unit has headroom and overridden when it does not,
because the SUM is the safety property and stranding capacity behind a
comfort choice manufactures a standing error at the meter.
* LARGEST-REMAINDER ROUNDING. The target is rounded ONCE, at the top; every
sum below that line is integer arithmetic, so it cannot drift. Measured: a
per-unit round() drifts -125 W over 50 000 ticks at three inverters.
* THE ALLOCATION RECORD, with `unmet_w`, `dropped` and a per-unit reason.
`ok` is one boolean for SAFETY-28 to gate on, and `unmet_w` is deliberately
NOT fused into it - a saturated inverter must not park the whole site.
THE STABILITY PROPERTY IS STRUCTURAL. With sum(a_i) = 1 the gain at the meter is
sum(a_i * g_i), a convex combination of the per-unit gains, so it lies in
[min g_i, max g_i] FOR ANY SPLIT. That is what makes the weights a comfort
choice rather than a tuning parameter, and it is why a bad split cannot
destabilise the site. Graded directly, and measured end to end: 90/10, 50/50 and
100/0 give a bit-identical aggregate trace at the meter, and a gain sweep to 1.0
at every split has a flat tail at all 84 combinations.
THE TWO REFUSALS main.py NOW MAKES, AND WHY THERE ARE TWO. `allocated=False` no
longer means "no allocator"; it means no safe split EXISTS - a mis-routed claim,
an empty envelope set, or a split that could only be made by commanding one pack
to charge while another discharges. Separately, and this guard is the price of
making allocate() succeed rather than something inherited, main.py refuses to
act on a valid split it cannot DELIVER: there is one `setpoint_entity`, so
writing the site target to the one inverter it can reach would over-command that
inverter by exactly the other's share. Commanding a partial site is a worse
instruction than commanding nothing. DEV-02 gives it the second writer.
scope_violations() IS NOW CONSUMED, AND AS A REFUSAL. ARB-03 left it logging
without changing the resolution. A mis-routed claim means the number about to be
divided may itself be wrong, and dividing a number that may be wrong is worse
than not dividing it - the same answer clause 3 already gives a contradiction.
It is NOT promoted into an envelope: a unit-scoped claim that landed on the site
names no unit, so promoting it would mean guessing one, or applying one
inverter's rating to a sibling that does not have it.
AT N<=1 IT IS A PASS-THROUGH, BYTE-IDENTICAL: the share is the site target, as a
float, unrounded and unclamped. All 17 existing suites replay unedited.
test_peakguard.py part 10h and test_arbiter.py part 7 were RE-AIMED, not
deleted. PR #40's reviewer proved that refusal branch was unreachable and
untested once; removing its trigger without giving it a new one would have
rebuilt the hole. Part 10h now drives three real cycles - a deliverable split, a
dead sibling, and every master stale - and grades all three.
KNOWN AND NOT CLOSED HERE: at a roster of two the loop's `actual_w` is one
inverter's power used as a site measurement, because the add-on binds a single
`inverter_power` sensor. That is the SENSING half of the same N=1 identity this
card removes from the COMMANDING half, and it makes the aggregate trace
split-dependent below gain 1.0. Measured with its counterfactual in test_alloc.py
part 8 and tools/alloc_sim.py --splits. It belongs to DEV-02.
Verified: all 18 suites green in the CI image. 16 mutations run through
tools/mutation_run.sh on a purged tree; 13 red, and the 3 survivors are recorded
in test_alloc.py part 12 with the reason each cannot be caught.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
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glenn schrooyenandClaude Opus 5
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7b4877d56d |
TEST-15: purge the bytecode cache before a mutation run, not after
checks / unit (pull_request) Successful in 3m35s
FCST-03's developer reverted `self.provisional` to `here.provisional`, re-ran, and reported the mutation as a survivor. It was not one. CPython validates a cached `.pyc` on (source size, source mtime truncated to whole seconds), and that edit moved neither number - same length, same second - so the interpreter loaded the bytecode it already had. Disassembly settled it at the time: the source read `here`, the running code loaded `self`. A mutation run had graded code that was not there, with no error and exit status 0. This does not make the results already on the record wrong. It makes them UNVERIFIED, and that distinction is the whole card - so nothing here re-runs a campaign and nothing here quietly assumes the old numbers hold. REPRODUCED, THEN CLOSED. test_bytecode.py builds a real package whose two return values are the same length, imports it in a real subprocess, rewrites it inside the same second (retrying until both writes land in one whole second - milliseconds, no sleep) and reads back which value ran. Part 1 shows the interpreter running SELF off a file that says HERE. AND THE TWO OBVIOUS MITIGATIONS DO NOT WORK. Measured, not read off documentation: `python3 -B` and PYTHONDONTWRITEBYTECODE=1 are write-side only. Neither stops an EXISTING stale .pyc being read, and a mutation run always has one, because the previous run wrote it. Part 2 grades both still running the old code. The advice in test_control.py's coverage audit led with `-B`; it is corrected here - the purge is the half that works, and `-B` earns its place by keeping THIS run from leaving a cache for the NEXT edit to inherit. NO SLEEP ANYWHERE. One-second mtime resolution is the mechanism, not the enemy. Waiting it out would slow every run down and would still only cover the edit somebody remembered to slow down. THE HARNESS. tools/mutation_run.sh purges, prints a sha256/byte fingerprint of every app/*.py it is about to grade - so a mutation report can say WHICH source produced it, which is the reviewer's addition to this card - runs each suite under `python3 -B`, refuses a tree with no test_*.py (CI-01's rule, for CI-01's reason), and fails if a cache appears during the run. It takes the tree as an argument so the infra repo's replay harnesses can call it without being moved. WHERE IT IS SAID (AC 2). MUTATION.md carries the mechanism, the measurement, the reporting rules and the survey, and every one of the 16 suites now points at it from its docstring. That list is DERIVED FROM THE TREE by test_bytecode.py part 5, so a new suite that joins this directory without the pointer is red - the same failure shape CI-01's file glob exists to prevent. CI WAS ALREADY IMMUNE, AND IS DESCRIBED THAT WAY (AC 4). Verified rather than reasoned: with the checkout bind mounted `-v "$WS:/w:ro"` the interpreter writes no __pycache__ into the tree at all, and it fails SILENTLY - no error, exit status 0 - while the same probe on a writable mount produces one. Each job also rm -rf's its workspace and clones afresh, so nothing crosses between jobs on the shared runner. PYTHONDONTWRITEBYTECODE=1 is added as belt and braces only: the `:ro` is one character wide and the next person debugging a write will be tempted by it. Part 6 grades both ON THE DOCKER COMMAND LINE rather than on the file - the first draft searched the whole workflow and stayed green after the flag was deleted, because the comment explaining it still named it. THE SHIPPED ADD-ON IS NOT AFFECTED and the question is closed: goodwe_controller/Dockerfile has set PYTHONDONTWRITEBYTECODE=1 since it was written. There is no deploy-side finding. THE SURVEY (AC 3), in MUTATION.md, scoped BY THE PROPERTY. The defect is one-directional - a mutation that never took leaves the suite green, so stale bytecode manufactures SURVIVORS and cannot manufacture a red - which puts every "all red, no survivors" claim in the window out of scope, along with mutations executed in-process (SAFETY-07's B1/B2/B3, test_peakguard parts 7 and 10, where no source file is edited) and everything run after the purge discipline landed on 2026-08-31 (SAFETY-24, SAFETY-26, OPT-04, FCST-03's re-run). What is left is the recorded SURVIVORS from source-edit runs before that date. Two were re-run here under the harness and both still stand: TARIFF-01's record_block() ignoring its policy argument, and SAFETY-03's abs() on the clamp limit - 15 suites green each, on the tree as it stood. The rest are labelled still-unverified rather than assumed or re-run; each is one harness run to close, and the moment to spend it is when somebody next touches that module. OUT OF SCOPE AND RECORDED: the infra repo's sim/ replay harnesses import the add-on and write bytecode into both trees (goodwe/sim/__pycache__ exists today), so SAFETY-02's headline replay carries the same exposure. mutation_run.sh takes a tree argument for exactly that, but the change belongs in that repo and some of those harnesses want the rig. RED AND GREEN. Every new check was broken and watched fail: the purge commented out of the harness turns part 4 red (and its non-vacuity probe already proves the fixture would mis-grade without it); one docstring pointer removed turns part 5 red naming the file; `:ro` and the `-e` flag removed from the workflow turn part 6 red. Full suite green, 16 files, in the CI image on a read-only mount - the shape the runner uses. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
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glenn schrooyenandClaude Opus 5
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04292c4a08 |
DATA-01: thirty days of the real meter, and what AC 3 actually measures
checks / unit (pull_request) Successful in 3m36s
TARIFF-01 and SAFETY-07 both merged with AC 3 - "monthly peak held under
the soft limit in >= 95 % of intervals over a 30-day simulation replay" -
honestly unmet, because two days of capture existed and it was believed
nothing longer could be produced. That belief was a true statement about
the past read as a claim about the future: HA's recorder still held the
whole month, and the reason nobody found out is that the 2026-08-25
export was a one-off script that left no artefact.
So the exporter is committed and runnable now.
scenarios/p1-net-30d-2026-08/ is 2026-08-01 to 2026-08-30, 485,841
samples, 30/30 days read, 0 failed, 4.13 MB gzipped, in the schema the
two committed days already fixed.
VERIFIED AGAINST THE DAYS THAT EXIST. `--verify` re-fetches 2026-08-20
and 2026-08-23 by this exact route and reproduces both committed files
BYTE FOR BYTE after decompression (865,024 B / 15,600 samples and
894,387 B / 16,351 samples). The gzip containers differ by design: this
exporter writes mtime 0 so its output is reproducible, where the one-off
wrote a wall clock.
A FAILED READ IS NOT AN OBSERVATION. A day whose read fails writes no
file, is recorded "read": "FAILED", and the run exits non-zero; the
entity is proved to exist through /api/states before any empty day is
believed, because a typo would otherwise answer 200 [] thirty times and
produce a consistent dataset of nothing. Nothing is interpolated, so the
month's 13 gaps (1291 s, 99.95 % covered) and its 3 `unavailable`
samples stay visible as holes.
SIZE: COMMITTED, DELIBERATELY, AND MEASURED. A git bundle of the whole
history goes from 1.58 MB (release/1.0 @
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