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Author SHA1 Message Date
admin bee7431793 Merge pull request 'SAFETY-119: no "not keeping up" when the loop takes the wire back' (#203) from SAFETY-119 into release/1.0
infra-pin / fresh (push) Successful in 1s
Merge pull request 'SAFETY-119: no "not keeping up" when the loop takes the wire back' (#203) from SAFETY-119 into release/1.0
2026-10-21 03:32:38 +02:00
glenn schrooyenandClaude Opus 5.5 96375ecbec SAFETY-119 review: DECISIONS states the steady-meter limit
checks / unit (pull_request) Successful in 43m33s
infra-pin / fresh (pull_request) Successful in 2s
The quarter-edge numbers were measured with one cycle per reading at a
steady interval. With the default 15 s cycle floor, a meter that is
sometimes slower adds cycles on an old reading and the false alarm can
come back (reviewer's runs, 11 seeds). Text only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-21 02:47:27 +02:00
glenn schrooyenandClaude 6fd0fa05f1 SAFETY-119 round 3c: the hidden-bound budget follows the cycle length
checks / unit (pull_request) Successful in 43m29s
infra-pin / fresh (pull_request) Successful in 1s
No single rolling budget met both cases in the sweep (8 false-alarmed on
2 s seed 25 and warned in 1 to 3 of 7 quarters at 15 s). The budget is
now 10 cycles up to a 3.5 s cycle, 8 up to 11 s, 6 up to 16 s, 4 beyond,
per rolling 15 minutes; 8 while the cycle length is unknown. A stop or a
gap over two minutes is not a cycle length. The unsourced "owner
accepted N=8" paragraph is removed from DECISIONS. test_safety119 part 4
now runs 2 s seed 25 and shows a fixed budget of 8 warns there; the
never case runs at 2 s and checks every other quarter at 15 s.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-21 00:57:43 +02:00
glenn schrooyenandClaude e27e62ff72 SAFETY-119 round 3b: no-clock budget, fixed-seed tests, accepted limits
checks / unit (pull_request) Successful in 43m1s
infra-pin / fresh (pull_request) Successful in 1s
The rolling budget now holds without a monotonic clock (it never refills).
Quarter-edge tests use seeds 1-3 at 2, 5, 10 and 15 s (no hand-picked seeds).
Re-pin comments point at part 6. DECISIONS lists the limits the owner
accepted with N=8 on 2026-10-20.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-20 20:46:14 +02:00
glenn schrooyenandClaude 86b94bedb5 SAFETY-119 round 3: DECISIONS table ranges over all runs
checks / unit (pull_request) Successful in 42m30s
infra-pin / fresh (pull_request) Successful in 2s
Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-20 17:28:22 +02:00
glenn schrooyenandClaude 103db2fcda SAFETY-119 round 3: rolling 15-minute budget for the hidden integrator bound
checks / unit (pull_request) Successful in 42m33s
infra-pin / fresh (pull_request) Successful in 2s
At most 8 hidden bound cycles in any 900 s across all hand-backs, replacing
the per-run budget. Chosen from a sweep (N 3 to 10, 1 to 15 s meters, both
cases); DECISIONS has the table. Tests: never case at 5, 10, 15 s, quarter
edge at 2, 10, 15 s, the rolling budget at its boundaries.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-20 17:27:43 +02:00
glenn schrooyenandClaude 85542e443b SAFETY-119 round 2: test_safety119 reads through named_absence
checks / unit (pull_request) Successful in 42m22s
infra-pin / fresh (pull_request) Successful in 1s
test_named_absence flagged two unguarded reads (next() without a default,
a list indexed in a check name). Use first(), nth() and present().

Co-Authored-By: Claude <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-20 01:38:24 +02:00
glenn schrooyenandClaude e76c70ecb0 SAFETY-119 round 2: one settle window per run of hand-backs
checks / unit (pull_request) Failing after 42m32s
infra-pin / fresh (pull_request) Successful in 2s
A hand-back used to restart the window, so a guard and a charge taking
turns hid the loop's integrator bound for good (0 warnings in 2 h; 28
before the fix). A run of hand-backs (the wire away less than a settle
between them) now hides the bound for at most 11 bound cycles and 22 s in
all, then it counts. The quarter-edge kick stays hidden. No command or text
changes. Tests for the two reviewer mutants that only unit checks caught
(a restart counted as a hand-back; span only), DECISIONS gives the delay at
2 s, 5 s and 60 s. test_safety87.py:543 shortened.

Co-Authored-By: Claude <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-20 00:52:24 +02:00
glenn schrooyenandClaude Opus 5.5 b9ff6acea4 SAFETY-119 review: DECISIONS, at least once a quarter
checks / unit (pull_request) Successful in 42m1s
infra-pin / fresh (pull_request) Successful in 1s
A bigger house warns more often (every 150 s at 7.4 kW), so 'about' was
wrong. Text only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-19 20:29:00 +02:00
glenn schrooyenandClaude Opus 5.5 98026f9a46 SAFETY-119 review: DECISIONS states the worst delay and the no-warn case
checks / unit (pull_request) Successful in 42m3s
infra-pin / fresh (pull_request) Successful in 1s
The delay is 11 cycles, so up to 11 min at a 60 s cycle. A loop that loses
the wire again within 11 cycles is never counted; review measured one such
case (N=2, cheap-window charge, no forecast, house just over the rating).
The over-rating rule applies on cycles the loop decided. Text only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-19 20:17:08 +02:00
glenn schrooyenandClaude b0c2e5977d SAFETY-119: re-pin test_safety84/87 digests (log only); prove it
checks / unit (pull_request) Successful in 41m47s
infra-pin / fresh (pull_request) Successful in 1s
The re-pinned digests differ only in OUTPUT_CLAMP log rows; every command
and claim is the same as without the fix (test_safety119.py part 5).
DECISIONS: the delay at a 5 s meter and the open swap case.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-19 15:30:18 +02:00
glenn schrooyenandClaude c4e15ec4cd SAFETY-119: no "not keeping up" when the loop takes the wire back
When the peak guard or a maintenance charge hands the wire back, the loop's
integrator is re-seeded from that owner's command and kicked by a meter that
does not show it yet. It crossed its rail for a cycle or two and raised
goodwe_integrator_bound while the battery gave what it was told.

The loop's integrator bound is not counted until the plant's settle
(SHORT_CYCLES, SHORT_SPAN_S) has passed since the hand-back. An over-rating
always counts; a bound that lasts warns after the settle. No command
changes and no text changes. test_safety119.py; DECISIONS entry.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-19 14:14:08 +02:00
admin 75f0804f9d Merge pull request 'UX-45: Home price chart shows the 15-minute prices the add-on uses' (#202) from UX-45 into release/1.0
infra-pin / fresh (push) Successful in 1s
2026-10-19 12:15:56 +02:00
glenn schrooyenandClaude eb8375157d UX-45: count priced hours in the wizard, fill chart holes by the add-on's cover rule, mark only for price-mode batteries
checks / unit (pull_request) Successful in 40m20s
infra-pin / fresh (pull_request) Successful in 1s
Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-19 10:01:58 +02:00
glenn schrooyenandClaude 17c6048417 UX-45: Home price chart draws one bar per price step the add-on uses
checks / unit (pull_request) Successful in 40m15s
infra-pin / fresh (pull_request) Successful in 1s
With 15-minute prices the chart now has one bar per quarter (92/96/100),
not hour averages; hourly and static tariffs still draw one bar per hour.
Cheap and dear marks come from the kept priceruns result (battery modes
on) or the arbitrage verdict's two points (off), not a thirds split.
A missing quarter is an empty bar. Removes plan.average_tip (EN/NL).

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-19 00:35:29 +02:00
admin 243a756e7b Merge pull request 'DOC-8: say EMS port, not meter bus' (#201) from DOC-8 into release/1.0
infra-pin / fresh (push) Successful in 1s
2026-10-17 04:09:33 +02:00
glenn schrooyenandClaude Opus 5.5 a4a7ff695e DOC-8 review: say the field guide PDF is rebuilt, still v0.1.0
checks / unit (pull_request) Successful in 40m29s
infra-pin / fresh (pull_request) Successful in 1s
README and FIELD-GUIDE.md said the PDF was not rebuilt; it was, on
2026-10-17. Its content is still v0.1.0 and outdated. Rewrap the
DOCS.md intro line. Text only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-17 03:27:35 +02:00
glenn schrooyenandClaude b8b357b552 DOC-8: update test_mqtt digest pins for the new manufacturer string
infra-pin / fresh (pull_request) Successful in 2s
checks / unit (pull_request) Successful in 40m23s
Both digests hash the discovery payloads, which carry the manufacturer.
Values regenerated; nothing else changes.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-17 02:16:34 +02:00
glenn schrooyenandClaude 4584502adb DOC-8: HA manufacturer says EMS port; rebuild field guide PDF
checks / unit (pull_request) Failing after 41m1s
infra-pin / fresh (pull_request) Successful in 1s
Device id (identifiers) is unchanged; only the display text moves.
test_mqtt baseline updated for that one string.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-17 01:53:33 +02:00
glenn schrooyenandClaude fd08090360 DOC-8: say EMS port, not meter bus
checks / unit (pull_request) Successful in 40m22s
infra-pin / fresh (pull_request) Successful in 1s
The add-on is wired to the inverter's RS485 port labelled EMS. Reword
README, DOCS, config description, field guide source and HTML. The HA
manufacturer string is left unchanged: test_mqtt pins it byte for byte.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-17 01:09:42 +02:00
admin c67d0cdb67 Merge pull request 'Release 0.18.2' (#199) from release-0.18.2 into release/1.0
infra-pin / fresh (push) Successful in 1s
checks / unit (pull_request) Successful in 40m25s
infra-pin / fresh (pull_request) Successful in 1s
2026-10-16 22:31:09 +02:00
glenn schrooyenandClaude Opus 5.5 ea77c63552 CHANGELOG 0.18.2: say how a no-unit forecast shows; who needs a look
checks / unit (pull_request) Successful in 40m19s
infra-pin / fresh (pull_request) Successful in 1s
Review of PR #199. "Warns once" left out the Home row and the Settings
note, which stay while the fault lasts. "No option change" now points to
the one case that needs a look.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-16 21:48:05 +02:00
glenn schrooyenandClaude 75f4359aac Release 0.18.2
checks / unit (pull_request) Successful in 40m23s
infra-pin / fresh (pull_request) Successful in 2s
Version bump to 0.18.2 and a CHANGELOG section for SAFETY-118 (#198).

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-16 20:54:29 +02:00
admin 09a54859f2 Merge pull request 'SAFETY-118: read the peak forecast in its own unit' (#198) from SAFETY-118 into release/1.0
infra-pin / fresh (push) Successful in 1s
2026-10-16 19:53:54 +02:00
glenn schrooyenandClaude 7d52dc1c0f SAFETY-118: a missing peak forecast reading keeps the unit-fault state
infra-pin / fresh (pull_request) Successful in 1s
checks / unit (pull_request) Successful in 40m19s
A missing reading (unavailable, unknown, failed read, non-numeric) no longer
clears the fault: no false 'used again' INFO, no repeated WARNING, the status
row stays. Adds pv.has_reading(). DECISIONS wording fixed; tests added.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-16 18:19:44 +02:00
glenn schrooyenandClaude f0b4e68e49 SAFETY-118: read the peak forecast in its own unit
checks / unit (pull_request) Successful in 40m20s
infra-pin / fresh (pull_request) Successful in 1s
peak_forecast_entity is read through pv.watts() by its unit_of_measurement;
the abs(raw) < 50 size rule is gone. No unit or a non-power unit means the
forecast is not used, with one warning per cause. The validator no longer
claims a kW sensor is taken as watts for this entity.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-16 16:00:34 +02:00
admin 780c1f67bb Merge pull request 'Release 0.18.1' (#196) from release-0.18.1 into release/1.0
infra-pin / fresh (push) Successful in 1s
checks / unit (pull_request) Successful in 40m21s
infra-pin / fresh (pull_request) Successful in 1s
Release 0.18.1
2026-10-16 13:46:24 +02:00
glenn schrooyenandClaude Opus 5.5 0ee3c3468b Release 0.18.1 review: CHANGELOG text fixes
checks / unit (pull_request) Successful in 40m18s
infra-pin / fresh (pull_request) Successful in 1s
SAFETY-118 line: the add-on already turns a kW forecast into W
(main.py read_inputs, abs(raw) < 50), so only the settings-page warning is
wrong. Rounding note and rows: the new settings page; UX-44 also changed
one DOCS line.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-16 13:03:37 +02:00
glenn schrooyenandClaude dec8e7b69f Release 0.18.1
checks / unit (pull_request) Successful in 40m39s
infra-pin / fresh (pull_request) Successful in 2s
Version 0.18.0 -> 0.18.1 (patch, no option changes) and a closed 0.18.1 CHANGELOG section.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-16 12:08:58 +02:00
admin 8e02a0928b Merge pull request 'UX-44: contract label says every 15 minutes, not hourly' (#195) from UX-44 into release/1.0
infra-pin / fresh (push) Successful in 2s
2026-10-16 06:59:19 +02:00
glenn schrooyenandClaude 1bd2ba1397 UX-44: contract label says every 15 minutes, not hourly
checks / unit (pull_request) Successful in 40m37s
infra-pin / fresh (pull_request) Successful in 2s
The settings page contract choice read "Dynamic, hourly" / "Dynamisch,
per uur". Belgian day-ahead prices are per 15 minutes since 2025-10-01.
Now "Dynamic, every 15 minutes" / "Dynamisch, per kwartier". One DOCS
line that called dynamic pricing "hourly pricing" now says dynamic.
test_ui_text.py part 7 fails if either label says hourly again.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-16 05:26:32 +02:00
admin b703aaa6d5 UX-43: tariff prices take five decimals (#194)
infra-pin / fresh (push) Successful in 2s
2026-10-16 04:30:09 +02:00
UX-43 review 92a3d3400a UX-43 review: plain wording for the DOCS line on five-decimal prices
checks / unit (pull_request) Successful in 40m23s
infra-pin / fresh (pull_request) Successful in 1s
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-16 03:47:28 +02:00
glenn schrooyenandClaude 8c954acb36 UX-43: keep each field description to one sentence (STYLE)
checks / unit (pull_request) Successful in 40m31s
infra-pin / fresh (pull_request) Successful in 1s
Co-Authored-By: Claude <noreply@anthropic.com>
Co-Authored-By: Claude Sonnet 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-16 02:29:31 +02:00
glenn schrooyenandClaude 8f72ab00d7 UX-43: tariff price fields take five decimals
ui.fixed_price, ui.day_price, ui.night_price and ui.periods step 0.00001
EUR/kWh (the period editor's price input took a hard-coded 0.01). A short
c-EUR/kWh hint is added to the four field descriptions, EN and NL.

Co-Authored-By: Claude <noreply@anthropic.com>
Co-Authored-By: Claude Sonnet 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01Bdqr7PiaHcBnzPituu2yTC
2026-10-16 01:40:40 +02:00
admin a0e091cca3 Release 0.18.0 (#192)
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checks / unit (pull_request) Successful in 40m22s
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2026-10-15 23:17:10 +02:00
glenn schrooyenandClaude Opus 5.5 44cd1fde2a Release 0.18.0: review fixes to the CHANGELOG section
checks / unit (pull_request) Successful in 40m17s
infra-pin / fresh (pull_request) Successful in 2s
OPT-15 and OPT-20 rows: the retry is two inverters only, and OPT-20 no
longer claims no other battery moves. SAFETY-111 added to known issues.
MAINT-19 marked as from code reading. Wording fixes in the SAFETY-112 and
MAINT-11 rows, UX-38 and the price service note.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-15 22:35:47 +02:00
Claude e7c83d3a57 Release 0.18.0: version bump and CHANGELOG section
checks / unit (pull_request) Successful in 40m26s
infra-pin / fresh (pull_request) Successful in 1s
config.yaml version 0.17.0 -> 0.18.0 and a closed ## 0.18.0 CHANGELOG
section for OPT-17, SAFETY-112, OPT-15, MAINT-11, PRICE-01 and OPT-20.
No code change.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-15 21:37:17 +02:00
adminandClaude Opus 5.5 004f859ec7 Merge PR #191: OPT-20 a refusal probe asks only PROBE_W, not the whole trade
infra-pin / fresh (push) Successful in 1s
Reviewed at ccdb9dc: full suite 78/78, CI run 1289 green, identity equal to bf9019e. Review: PR #191 comment 2185.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-15 14:56:17 +02:00
glenn schrooyenandClaude ccdb9dc17a OPT-20: test_opt20 points at MUTATION.md (test_bytecode part 5)
checks / unit (pull_request) Successful in 40m25s
infra-pin / fresh (pull_request) Successful in 1s
Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-15 13:12:22 +02:00
glenn schrooyenandClaude 06339a2446 OPT-20: a refusal probe asks only PROBE_W, not the whole trade
checks / unit (pull_request) Failing after 40m47s
infra-pin / fresh (pull_request) Successful in 1s
The probe's trade was sized at the probing battery's rating. Its SAFETY-73
pin held 200 W of that, and the allocator put the rest on a battery with no
mode range (one in a maintenance phase): TEST-23 OPT-15 g7, -2300 W on A in
its maintenance charge for 34 s, grid 3100 W.

modetrade.decide() now asks PROBE_W for the probing battery plus what the
other chargers would have had without the probe; size() adds the probe on top
of their share, or files PROBE_W exactly, or nothing. _mode_trade() carries
the pin only on the ticks it is filed, so the window's first and last cycle
do not move another battery's share either. Modes off and modes on with no
probe are unchanged (bf9019e digests). Tests: test_opt20.py.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-10-15 13:08:59 +02:00
admin bf9019e70d Merge PR #190: PRICE-01 price_service provider, fallback chain and gate
infra-pin / fresh (push) Successful in 1s
2026-10-14 22:47:43 +02:00
39 changed files with 2537 additions and 137 deletions
+3 -3
View File
@@ -4,9 +4,9 @@ The guide technicians carry is the PDF:
**`docs/GoodWe-RS485-Field-Guide.pdf`** — 10 pages, A4, print it double-sided.
⚠️ **Outdated: it is v0.1.0.** Its `slew_w` row is corrected in `build_guide.py`
and `field-guide.html`, but the PDF has not been rebuilt (see below). Where the
guide disagrees with `goodwe_controller/DOCS.md`, DOCS.md wins.
⚠️ **Outdated: the content is still v0.1.0.** The PDF was rebuilt on 2026-10-17
for the EMS-port wording and the `slew_w` row only. Where the guide disagrees with
`goodwe_controller/DOCS.md`, DOCS.md wins.
It covers, in the order the work is done: pre-visit checks, hardware, firmware,
add-on install and configuration, how to read the Web UI, the six commissioning
+1 -1
View File
@@ -156,7 +156,7 @@ that looks hung gets deleted.
**A GoodWe "-20" / G2 inverter cannot be driven by this.**
Platform comes from characters 6–8 of the serial number. Only
`ESU EMU ESA BPS BPU EMJ IJL` — platform 105, the AA55-era meter bus — are
`ESU EMU ESA BPS BPU EMJ IJL` — platform 105, the AA55-era generation — are
supported. SBP G2 (`SPB`/`SPN`) and ES G2 (`ESN`/`ESC`) are platform 745, a
different protocol. The reference unit is `BPS`.
+6 -6
View File
@@ -1,8 +1,8 @@
# GoodWe RS485 Controller — Home Assistant add-on repository
Replaces a GoodWe battery inverter's vendor controller with a local one: holds
net grid exchange at zero by emulating the inverter's smart meter over RS485,
and runs the monthly battery maintenance cycle the vendor box was doing.
net grid exchange at zero by sending the inverter a grid reading over its RS485
EMS port, and runs the monthly battery maintenance cycle the vendor box was doing.
```
repository.yaml add-on repository metadata
@@ -30,7 +30,7 @@ goodwe_controller/ the add-on
returns, run against its own release image
firmware/goodwe-master.yaml ESPHome config for the T-CAN485
estop/rs485_log.py optional RS485 e-stop / bus witness
docs/GoodWe-RS485-Field-Guide.pdf the guide techs carry (10pp, A4; outdated)
docs/GoodWe-RS485-Field-Guide.pdf the guide techs carry (10pp, A4; rebuilt 2026-10-17, content still v0.1.0 and outdated)
docs/build_guide.py its single source - rebuilds the HTML and PDF
FIELD-GUIDE.md how to edit and rebuild the guide
docs/RELEASE.md how a change reaches the battery - `master` is
@@ -118,17 +118,17 @@ the platform tag:
| tag | platform | verdict |
|---|---|---|
| `ESU EMU ESA BPS BPU EMJ IJL` | 105 — ES/EM/BP, AA55-era meter bus | **supported** |
| `ESU EMU ESA BPS BPU EMJ IJL` | 105 — ES/EM/BP, AA55-era | **supported** |
| `SPB SPN` | 745 — SBP **G2** (`GW…-SBP-20`) | no |
| `ESN ESC` | 745 — ES **G2** (`GW…-ES-20`) | no |
| `ETU EHU BTU …` | 205/745/753 — ET/EH/BT hybrids | no |
| `SDT DST MSU NSU …` | PV-only inverters — no battery to control | no |
A "-20" or "G2" suffix means a different platform with a different meter
A "-20" or "G2" suffix means a different platform with a different
protocol. The tags come from the `goodwe` library's `PLATFORM_105_MODELS`, which
is also what Home Assistant's own integration uses to pick a protocol.
- GoodWe **ES / BP family** inverters (AA55 / RS485 meter-bus generation)
- GoodWe **ES / BP family** inverters (AA55 generation)
- The protocol is **reverse-engineered**. There is no vendor contract, and a
firmware change on GoodWe's side could break every installation at once. Say
so when you sell it.
Binary file not shown.
+6 -6
View File
@@ -154,7 +154,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<table style="margin-bottom:2mm">
<tr><th style="width:34mm">Tag</th><th>Platform</th><th style="width:30mm">Verdict</th></tr>
<tr><td><code>ESU EMU ESA BPS<br>BPU EMJ IJL</code></td>
<td><b>Platform 105</b> — ES / EM / BP, AA55-era meter bus</td>
<td><b>Platform 105</b> — ES / EM / BP, AA55-era</td>
<td><b>SUPPORTED</b></td></tr>
<tr><td><code>SPB SPN</code></td><td>SBP <b>G2</b> (GW…-SBP-20) — platform 745</td><td><b>NO</b></td></tr>
<tr><td><code>ESN ESC</code></td><td>ES <b>G2</b> (GW…-ES-20) — platform 745</td><td><b>NO</b></td></tr>
@@ -162,7 +162,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<tr><td><code>SDT DST MSU NSU …</code></td><td>PV-only inverters — <b>no battery to control</b></td><td><b>NO</b></td></tr>
</table>
<p style="margin:0"><small>Reference unit: <code>95000BPS225W0290</code> → <code>BPS</code> → supported.
A “-20” or “G2” suffix in the model name means a different platform with a different meter
A “-20” or “G2” suffix in the model name means a different platform with a different
protocol. <b>If the tag is not on the supported list, stop — do not quote the job.</b></small></p>
</div>
@@ -208,13 +208,13 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<!-- ============ PAGE 3 ============ -->
<div class="page" id="p3">
<h2>Steps 1–3 — Hardware</h2>
<div class="warn"><b>Qualified persons only.</b> Mains AC and battery DC are present. The meter bus
<div class="warn"><b>Qualified persons only.</b> Mains AC and battery DC are present. The RS485 EMS port
is low-voltage but sits inside an energised installation.</div>
<div class="step">
<h3><span class="num">1</span> Survey and record</h3>
<ol class="do">
<li><b>Photograph</b> the meter-port wiring before touching it.</li>
<li><b>Photograph</b> the EMS-port wiring before touching it.</li>
<li>Identify the RS485 pair (A/B) running to the vendor controller.</li>
<li>Record inverter model + serial, battery capacity (Ah) and nominal voltage.</li>
</ol>
@@ -226,7 +226,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<ol class="do">
<li>Bring the system to <b>0 W</b> — battery neither charging nor discharging (check the
inverter display).</li>
<li>Disconnect the vendor controller from the meter port.</li>
<li>Disconnect the vendor controller from the inverter's EMS port.</li>
<li>Leave it physically mounted but unplugged — that keeps the install reversible and gives
you a rollback story.</li>
</ol>
@@ -237,7 +237,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<div class="step">
<h3><span class="num">3</span> Fit and power the T-CAN485</h3>
<ol class="do">
<li>Wire <b>A→A, B→B</b> to the meter port, plus its own supply.</li>
<li>Wire <b>A→A, B→B</b> to the EMS port, plus its own supply.</li>
<li>If fitting the e-stop, connect its USB-RS485 adapter to the <b>same pair, in parallel</b>.</li>
<li>Power the T-CAN485 <b>last</b>.</li>
</ol>
+6 -6
View File
@@ -119,7 +119,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<table style="margin-bottom:2mm">
<tr><th style="width:34mm">Tag</th><th>Platform</th><th style="width:30mm">Verdict</th></tr>
<tr><td><code>ESU EMU ESA BPS<br>BPU EMJ IJL</code></td>
<td><b>Platform 105</b> — ES / EM / BP, AA55-era meter bus</td>
<td><b>Platform 105</b> — ES / EM / BP, AA55-era</td>
<td><b>SUPPORTED</b></td></tr>
<tr><td><code>SPB SPN</code></td><td>SBP <b>G2</b> (GW…-SBP-20) — platform 745</td><td><b>NO</b></td></tr>
<tr><td><code>ESN ESC</code></td><td>ES <b>G2</b> (GW…-ES-20) — platform 745</td><td><b>NO</b></td></tr>
@@ -127,7 +127,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<tr><td><code>SDT DST MSU NSU …</code></td><td>PV-only inverters — <b>no battery to control</b></td><td><b>NO</b></td></tr>
</table>
<p style="margin:0"><small>Reference unit: <code>95000BPS225W0290</code> → <code>BPS</code> → supported.
A “-20” or “G2” suffix in the model name means a different platform with a different meter
A “-20” or “G2” suffix in the model name means a different platform with a different
protocol. <b>If the tag is not on the supported list, stop — do not quote the job.</b></small></p>
</div>
@@ -173,13 +173,13 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<!-- ============ PAGE 3 ============ -->
<div class="page" id="p3">
<h2>Steps 1–3 — Hardware</h2>
<div class="warn"><b>Qualified persons only.</b> Mains AC and battery DC are present. The meter bus
<div class="warn"><b>Qualified persons only.</b> Mains AC and battery DC are present. The RS485 EMS port
is low-voltage but sits inside an energised installation.</div>
<div class="step">
<h3><span class="num">1</span> Survey and record</h3>
<ol class="do">
<li><b>Photograph</b> the meter-port wiring before touching it.</li>
<li><b>Photograph</b> the EMS-port wiring before touching it.</li>
<li>Identify the RS485 pair (A/B) running to the vendor controller.</li>
<li>Record inverter model + serial, battery capacity (Ah) and nominal voltage.</li>
</ol>
@@ -191,7 +191,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<ol class="do">
<li>Bring the system to <b>0 W</b> — battery neither charging nor discharging (check the
inverter display).</li>
<li>Disconnect the vendor controller from the meter port.</li>
<li>Disconnect the vendor controller from the inverter's EMS port.</li>
<li>Leave it physically mounted but unplugged — that keeps the install reversible and gives
you a rollback story.</li>
</ol>
@@ -202,7 +202,7 @@ figcaption { font-size:9pt; color:#5b6169; margin-top:1.2mm; }
<div class="step">
<h3><span class="num">3</span> Fit and power the T-CAN485</h3>
<ol class="do">
<li>Wire <b>A→A, B→B</b> to the meter port, plus its own supply.</li>
<li>Wire <b>A→A, B→B</b> to the EMS port, plus its own supply.</li>
<li>If fitting the e-stop, connect its USB-RS485 adapter to the <b>same pair, in parallel</b>.</li>
<li>Power the T-CAN485 <b>last</b>.</li>
</ol>
+204
View File
@@ -1,5 +1,209 @@
# Changelog
## 0.18.2
**A patch bump: one fix to how the 15-minute demand forecast sensor is read, and no option changes.**
No option was added, removed or renamed, and no default changed (86 options).
**Existing installs need no option change:** options that start 0.18.1 also
start 0.18.2. Only a forecast sensor with no power unit needs a look (below).
The change below applies with one inverter or two.
**A forecast sensor with no power unit.** If your 15-minute demand forecast
sensor has no unit, or a unit that is not power (for example kWh), the add-on
now ignores that forecast. The log warns once, and the Home and Settings pages
say so while it lasts. Pick a sensor that reads in W or kW.
Contents of this release, in merge order since 0.18.1 (`780c1f6`):
| | |
|---|---|
| `09a5485` | The 15-minute demand forecast sensor is now read in its own unit, W or kW, and the old rule that took any value below 50 as kW is gone. With no unit, or a unit that is not power, the forecast is not used, and the log and the pages say so; the settings page no longer says a kW sensor is taken as watts ([[SAFETY-118]], #198) |
### Known issues
- A false "Battery is not keeping up" can still show when the peak guard pauses a maintenance charge ([[SAFETY-92]]).
- A battery capped at a low limit with a perfectly flat reading can still trip the stale check ([[SAFETY-74]]).
- A battery whose reading at rest is beyond about ±175 W is still not caught when it refuses ([[SAFETY-97]]).
- The peak guard can still back off near the end of a 15-minute period when a meter reading is late, by less than 30 s ([[SAFETY-99]]).
- Two inverters: the maintenance charge can switch on and off while the house is above the peak aim ([[SAFETY-88]]).
- Two inverters: the "circulating" figure counts a battery's reading at rest ([[SAFETY-98]]).
- Two inverters: a drain that starts during a big step in house use can send the other battery to full power, and about 1 kW goes to the grid for about 10 s ([[SAFETY-104]]).
- Two inverters: when a battery comes back during a maintenance charge, the grid can step by several kW at once ([[SAFETY-101]]).
- Two inverters: when a battery drops out during a solar surplus, the others can swing by up to 1.5 kW in a simulation ([[SAFETY-105]]).
- Two inverters: after a drain ends, a change in house use can go unanswered for about 9 s, because some readings are old ([[SAFETY-106]]).
- Two inverters: when one battery's level is missing, both batteries are held at 0 W, and for about 15 s the last command stays on ([[SAFETY-108]]).
- Two inverters: if one battery's level stays missing for 12 h, the other battery's cycle can be marked failed, with a 7-day wait and a notice, though it is healthy. This comes from reading the code; it has not been seen on a site ([[MAINT-17]]).
- When the 15-minute demand forecast sensor counts the battery's own charge, the maintenance charge runs at about half the power the peak limit leaves, so it takes about twice as long. Seen on a site: about 1.2 kW instead of 2.5 kW, and the peak limit was kept ([[SAFETY-111]]).
- One inverter: after a link drop, the battery's own safety stop to 0 W can be taken as a refusal, and the site stays at 0 W for up to 15 min ([[SAFETY-102]]).
- After a Home Assistant restart, control still waits until Home Assistant has finished starting, which can take several minutes, though the readings are already there ([[SAFETY-115]]).
- While Home Assistant is not answering, the page can list inverters as refusing commands and sensors as missing, and send you to Developer Tools, though they are fine ([[UX-37]]).
- If Home Assistant hangs or stops, the page keeps saying "Waiting for Home Assistant" and never turns into an alarm ([[SAFETY-113]]).
- Right after Home Assistant has started, the page can say for about 4 s that an inverter cannot be controlled, and the first command can come late ([[SAFETY-114]]).
- After a Home Assistant restart, the controller status sensor can still say "running" while the add-on cannot control. It was seen once, and the cause is not known ([[SAFETY-116]]).
- Battery modes on: after a planned top-up from the grid, the Batteries screen can say "Enough sun is forecast" ([[UX-32]]).
- Battery modes on: the forecast line "we count on" can show more sun than the plan counts, because the plan takes house use off first ([[UX-33]]).
- Battery modes on: before a planned top-up, the Today list shows a smaller "gives" amount than the plan will use; it grows as the charge happens ([[UX-34]]).
- Two inverters, battery modes on: while the other battery is in its maintenance charge, a battery's card can say it charges from the grid while it stays at 0 W ([[OPT-18]]).
- Two inverters, battery modes on: while a battery refuses to charge in a cheap run, the action log on the page gets about 8 lines an hour for its retries, and the page hint says "waiting for a better price" ([[UX-38]]).
- A battery in a safety stop, or one the add-on cannot reach, can still be started for a cycle, and its drain then waits about 12 h and ends in a failed-cycle notice. This comes from reading the code; it has not been seen on a site ([[MAINT-19]]).
- On the Settings page, the rows of the solar forecast lists are labelled "Phase 1", "Phase 2" instead of "Sensor 1", "Sensor 2" ([[UX-27]]).
- In the solar forecast list, a blank or repeated row makes "source 2 of 2" count differently from the rows on the Settings page ([[UX-28]]).
- The solar forecast message says "has no reading" also when the sensor shows a number that is too old or in the wrong unit ([[UX-29]]).
- If you use only the forecast lists, two Settings notes sit on the single-sensor field, and one of them tells you to set that field ([[UX-30]]).
- After a restart during a price outage, the "No prices" message can say "yet" when prices did come in earlier ([[UX-39]]).
- On the new settings page, you cannot see whether a price service token is set. Check the Configuration tab ([[UX-41]]).
- On the classic settings page, the first click on Save after editing a field can do nothing. Click again ([[UX-42]]).
- The price chart on the Home page shows one bar per hour, the average of four 15-minute prices, while the add-on decides on the 15-minute prices ([[UX-45]]).
### If you are crossing from a version older than 0.10.0
`## 0.10.0` below can refuse an old config: `slew_w` above its limit, and the
withdrawn `price_provider` ids `engie_dynamic`, `totalenergies_dynamic` and
`eneco_eddy`. Read it before you update. Run `tools/predeploy_check.py` with the
bare options (`jq '.data.options'`) first.
## 0.18.1
**A patch bump: two small fixes to the settings page, and no option changes.**
No option was added, removed or renamed, and no default changed (86 options).
**Existing installs need no option change:** options that start 0.18.0 also
start 0.18.1. The changes below apply with one inverter or two.
**Price rounding on 0.18.0.** On 0.18.0, the new settings page saved the fixed,
day and night prices rounded to 2 decimals (0.34512 became 0.35); prices in time
windows kept their decimals. If you typed more than 2 decimals in those
fields on 0.18.0, enter them again.
Contents of this release, in merge order since 0.18.0 (`a0e091c`):
| | |
|---|---|
| `b703aaa` | The four tariff price fields on the new settings page (fixed, day, night and time windows) take 5 decimals, for example 0.34512 €/kWh, and are saved as typed. A short hint says to divide the c€/kWh on your bill by 100 ([[UX-43]], #194) |
| `8e02a09` | The dynamic contract choice on the new settings page now says "Dynamic, every 15 minutes" ("Dynamisch, per kwartier") instead of "hourly". The choice works as before, and one line in the docs no longer calls dynamic prices hourly ([[UX-44]], #195) |
### Known issues
- A false "Battery is not keeping up" can still show when the peak guard pauses a maintenance charge ([[SAFETY-92]]).
- A battery capped at a low limit with a perfectly flat reading can still trip the stale check ([[SAFETY-74]]).
- A battery whose reading at rest is beyond about ±175 W is still not caught when it refuses ([[SAFETY-97]]).
- The peak guard can still back off near the end of a 15-minute period when a meter reading is late, by less than 30 s ([[SAFETY-99]]).
- Two inverters: the maintenance charge can switch on and off while the house is above the peak aim ([[SAFETY-88]]).
- Two inverters: the "circulating" figure counts a battery's reading at rest ([[SAFETY-98]]).
- Two inverters: a drain that starts during a big step in house use can send the other battery to full power, and about 1 kW goes to the grid for about 10 s ([[SAFETY-104]]).
- Two inverters: when a battery comes back during a maintenance charge, the grid can step by several kW at once ([[SAFETY-101]]).
- Two inverters: when a battery drops out during a solar surplus, the others can swing by up to 1.5 kW in a simulation ([[SAFETY-105]]).
- Two inverters: after a drain ends, a change in house use can go unanswered for about 9 s, because some readings are old ([[SAFETY-106]]).
- Two inverters: when one battery's level is missing, both batteries are held at 0 W, and for about 15 s the last command stays on ([[SAFETY-108]]).
- Two inverters: if one battery's level stays missing for 12 h, the other battery's cycle can be marked failed, with a 7-day wait and a notice, though it is healthy. This comes from reading the code; it has not been seen on a site ([[MAINT-17]]).
- When the 15-minute demand forecast sensor counts the battery's own charge, the maintenance charge runs at about half the power the peak limit leaves, so it takes about twice as long. Seen on a site: about 1.2 kW instead of 2.5 kW, and the peak limit was kept ([[SAFETY-111]]).
- One inverter: after a link drop, the battery's own safety stop to 0 W can be taken as a refusal, and the site stays at 0 W for up to 15 min ([[SAFETY-102]]).
- After a Home Assistant restart, control still waits until Home Assistant has finished starting, which can take several minutes, though the readings are already there ([[SAFETY-115]]).
- While Home Assistant is not answering, the page can list inverters as refusing commands and sensors as missing, and send you to Developer Tools, though they are fine ([[UX-37]]).
- If Home Assistant hangs or stops, the page keeps saying "Waiting for Home Assistant" and never turns into an alarm ([[SAFETY-113]]).
- Right after Home Assistant has started, the page can say for about 4 s that an inverter cannot be controlled, and the first command can come late ([[SAFETY-114]]).
- After a Home Assistant restart, the controller status sensor can still say "running" while the add-on cannot control. It was seen once, and the cause is not known ([[SAFETY-116]]).
- Battery modes on: after a planned top-up from the grid, the Batteries screen can say "Enough sun is forecast" ([[UX-32]]).
- Battery modes on: the forecast line "we count on" can show more sun than the plan counts, because the plan takes house use off first ([[UX-33]]).
- Battery modes on: before a planned top-up, the Today list shows a smaller "gives" amount than the plan will use; it grows as the charge happens ([[UX-34]]).
- Two inverters, battery modes on: while the other battery is in its maintenance charge, a battery's card can say it charges from the grid while it stays at 0 W ([[OPT-18]]).
- Two inverters, battery modes on: while a battery refuses to charge in a cheap run, the action log on the page gets about 8 lines an hour for its retries, and the page hint says "waiting for a better price" ([[UX-38]]).
- A battery in a safety stop, or one the add-on cannot reach, can still be started for a cycle, and its drain then waits about 12 h and ends in a failed-cycle notice. This comes from reading the code; it has not been seen on a site ([[MAINT-19]]).
- On the Settings page, the rows of the solar forecast lists are labelled "Phase 1", "Phase 2" instead of "Sensor 1", "Sensor 2" ([[UX-27]]).
- In the solar forecast list, a blank or repeated row makes "source 2 of 2" count differently from the rows on the Settings page ([[UX-28]]).
- The solar forecast message says "has no reading" also when the sensor shows a number that is too old or in the wrong unit ([[UX-29]]).
- If you use only the forecast lists, two Settings notes sit on the single-sensor field, and one of them tells you to set that field ([[UX-30]]).
- After a restart during a price outage, the "No prices" message can say "yet" when prices did come in earlier ([[UX-39]]).
- On the new settings page, you cannot see whether a price service token is set. Check the Configuration tab ([[UX-41]]).
- On the classic settings page, the first click on Save after editing a field can do nothing. Click again ([[UX-42]]).
- If the 15-minute demand forecast sensor reads in kW, the settings page warns that its number is taken as watts and asks for a sensor in W. The add-on does turn kW into W, so a kW sensor works ([[SAFETY-118]]).
- The price chart on the Home page shows one bar per hour, the average of four 15-minute prices, while the add-on decides on the 15-minute prices ([[UX-45]]).
### If you are crossing from a version older than 0.10.0
`## 0.10.0` below can refuse an old config: `slew_w` above its limit, and the
withdrawn `price_provider` ids `engie_dynamic`, `totalenergies_dynamic` and
`eneco_eddy`. Read it before you update. Run `tools/predeploy_check.py` with the
bare options (`jq '.data.options'`) first.
## 0.18.0
**A minor bump: new behaviour, three new options and one new value for an
existing option.** No option was removed or renamed, and no default of an
existing option changed (83 options -> 86). **Existing installs need no option
change:** options that start 0.17.0 also start 0.18.0, and the new options are
off or empty until you use them. The changes below apply with one inverter or
two, unless a line says "Two inverters".
New options, and what they do if you leave them alone:
| option | default | left alone |
|---|---|---|
| `pv_forecast_entities`, `pv_forecast_tomorrow_entities` | `[]` | the single forecast sensors work as before ([[OPT-17]]) |
| `price_service_token` | empty | not used; it is read only with `price_provider: price_service` ([[PRICE-01]]) |
`price_provider` also accepts a new value, `price_service`. Its default is
unchanged, so the price source stays as it is.
**Price service.** The new price source `price_service` reads prices from the
add-on's price server, with the token you were given. If it does not answer,
prices come from energy-charts.info, then from the prices the add-on saved.
Sites on the Home Assistant price sensors or a fixed tariff need no change. To
move a site over, see `DOCS.md`, "Moving a site from the Home Assistant price
sensors to `price_service`".
Contents of this release, in merge order since 0.17.0 (`e36565f`):
| | |
|---|---|
| `3050fa5` | The solar forecast can come from several sensors, added up, for example one per inverter. If one of them has no reading, that day's forecast is not used, and the status says which one. The single sensor still works ([[OPT-17]]) |
| `e3e4ba6` | While Home Assistant is still starting, the page now says "Waiting for Home Assistant" and the log says the add-on waits, instead of looking like a fault. Control itself is unchanged: it starts when Home Assistant answers ([[SAFETY-112]]) |
| `79dd077` | Battery modes on only: a charge in a cheap run no longer stops at the start of a new 15-minute period, and with two inverters a battery that refused to charge is tried again every 15 min. In one test, the export at the end of a charge was 48 W where the code before this fix gave 746 W ([[OPT-15]]) |
| `0ce7d35` | Two inverters: each battery card has Start cycle and Stop cycle buttons, so you can start or stop the cycle on the battery you choose. Only one battery can cycle at a time, and a second start is refused with a short message ([[MAINT-11]]) |
| `bf9019e` | New price source `price_service`. If it fails, prices come from energy-charts.info, then from saved prices. With no price at all and the monthly cycle on, a notice shows and the cycle waits ([[PRICE-01]]) |
| `004f859` | Two inverters, battery modes on: the 15-minute retry of a battery that refused to charge now asks that battery for 200 W, and no longer puts the rest of the charge on another battery. In the test, without this fix, a battery in its maintenance charge took about 2,300 W for about 34 s at each retry ([[OPT-20]]) |
### Known issues
- A false "Battery is not keeping up" can still show when the peak guard pauses a maintenance charge ([[SAFETY-92]]).
- A battery capped at a low limit with a perfectly flat reading can still trip the stale check ([[SAFETY-74]]).
- A battery whose reading at rest is beyond about ±175 W is still not caught when it refuses ([[SAFETY-97]]).
- The peak guard can still back off near the end of a 15-minute period when a meter reading is late, by less than 30 s ([[SAFETY-99]]).
- Two inverters: the maintenance charge can switch on and off while the house is above the peak aim ([[SAFETY-88]]).
- Two inverters: the "circulating" figure counts a battery's reading at rest ([[SAFETY-98]]).
- Two inverters: a drain that starts during a big step in house use can send the other battery to full power, and about 1 kW goes to the grid for about 10 s ([[SAFETY-104]]).
- Two inverters: when a battery comes back during a maintenance charge, the grid can step by several kW at once ([[SAFETY-101]]).
- Two inverters: when a battery drops out during a solar surplus, the others can swing by up to 1.5 kW in a simulation ([[SAFETY-105]]).
- Two inverters: after a drain ends, a change in house use can go unanswered for about 9 s, because some readings are old ([[SAFETY-106]]).
- Two inverters: when one battery's level is missing, both batteries are held at 0 W, and for about 15 s the last command stays on ([[SAFETY-108]]).
- Two inverters: if one battery's level stays missing for 12 h, the other battery's cycle can be marked failed, with a 7-day wait and a notice, though it is healthy. This comes from reading the code; it has not been seen on a site ([[MAINT-17]]).
- When the 15-minute demand forecast sensor counts the battery's own charge, the maintenance charge runs at about half the power the peak limit leaves, so it takes about twice as long. Seen on a site: about 1.2 kW instead of 2.5 kW, and the peak limit was kept ([[SAFETY-111]]).
- One inverter: after a link drop, the battery's own safety stop to 0 W can be taken as a refusal, and the site stays at 0 W for up to 15 min ([[SAFETY-102]]).
- After a Home Assistant restart, control still waits until Home Assistant has finished starting, which can take several minutes, though the readings are already there ([[SAFETY-115]]).
- While Home Assistant is not answering, the page can list inverters as refusing commands and sensors as missing, and send you to Developer Tools, though they are fine ([[UX-37]]).
- If Home Assistant hangs or stops, the page keeps saying "Waiting for Home Assistant" and never turns into an alarm ([[SAFETY-113]]).
- Right after Home Assistant has started, the page can say for about 4 s that an inverter cannot be controlled, and the first command can come late ([[SAFETY-114]]).
- After a Home Assistant restart, the controller status sensor can still say "running" while the add-on cannot control. It was seen once, and the cause is not known ([[SAFETY-116]]).
- Battery modes on: after a planned top-up from the grid, the Batteries screen can say "Enough sun is forecast" ([[UX-32]]).
- Battery modes on: the forecast line "we count on" can show more sun than the plan counts, because the plan takes house use off first ([[UX-33]]).
- Battery modes on: before a planned top-up, the Today list shows a smaller "gives" amount than the plan will use; it grows as the charge happens ([[UX-34]]).
- Two inverters, battery modes on: while the other battery is in its maintenance charge, a battery's card can say it charges from the grid while it stays at 0 W ([[OPT-18]]).
- Two inverters, battery modes on: while a battery refuses to charge in a cheap run, the action log on the page gets about 8 lines an hour for its retries, and the page hint says "waiting for a better price" ([[UX-38]]).
- A battery in a safety stop, or one the add-on cannot reach, can still be started for a cycle, and its drain then waits about 12 h and ends in a failed-cycle notice. This comes from reading the code; it has not been seen on a site ([[MAINT-19]]).
- On the Settings page, the rows of the solar forecast lists are labelled "Phase 1", "Phase 2" instead of "Sensor 1", "Sensor 2" ([[UX-27]]).
- In the solar forecast list, a blank or repeated row makes "source 2 of 2" count differently from the rows on the Settings page ([[UX-28]]).
- The solar forecast message says "has no reading" also when the sensor shows a number that is too old or in the wrong unit ([[UX-29]]).
- If you use only the forecast lists, two Settings notes sit on the single-sensor field, and one of them tells you to set that field ([[UX-30]]).
- After a restart during a price outage, the "No prices" message can say "yet" when prices did come in earlier ([[UX-39]]).
- On the new settings page, you cannot see whether a price service token is set. Check the Configuration tab ([[UX-41]]).
- On the classic settings page, the first click on Save after editing a field can do nothing. Click again ([[UX-42]]).
### If you are crossing from a version older than 0.10.0
`## 0.10.0` below can refuse an old config: `slew_w` above its limit, and the
withdrawn `price_provider` ids `engie_dynamic`, `totalenergies_dynamic` and
`eneco_eddy`. Read it before you update. Run `tools/predeploy_check.py` with the
bare options (`jq '.data.options'`) first.
## 0.17.0
**A minor bump: changed behaviour, and no option changes.** No option was
@@ -132,6 +132,23 @@ P1 is its section 6 P1, and the pull request lists what was measured.
own, and a rise past that is the peak floor's, which ends the hold.
A maintenance drain, hold or charge that starts during the hold ends it
on that tick (replayed at edge + 3 s).
- OPT-20 (TEST-23 OPT-15 g7, `test_opt20.py`): a probe asks only PROBE_W.
The trade was sized at the probing battery's rating (2500 W), B's pin held
200 W of it, and the allocator put the other 2300 W on A, in its
maintenance charge phase (no mode range there, so nothing kept it out):
grid 3100 W for 34 s. Now the ask is PROBE_W for the probing battery plus
what the other chargers would have had without the probe (none: 200 W
alone), and it carries the pin only on the ticks the pin is filed (the
window's first and last cycle moved another battery's share by 200 W).
- Chosen: the probe sits on top of a headroom-sized charge, so beside a
normal charger its command is the same and the grid rises 200 W (about
7 W on the quarter) rather than that charger giving 200 W up. A probe
that the headroom or the bound cannot hold at 200 W is not filed.
- Unchanged, same on bf9019e: with a charge ask the other batteries cannot
give (one sign), so an idle-looking A that gives the house stops for the
window and the grid rises by what it gave. The trade line now says 200 W
for a probe alone; its words are UX-38's. The base P4 F4 path (a normal
trade on a battery in maintenance charge) is not touched.
## P4: the solar forecast and the day plan (2026-09-29)
- Input: a Home Assistant forecast sensor (`pv_forecast_entity`, kWh left
@@ -0,0 +1,18 @@
# SAFETY-118 - the peak forecast is read in its own unit
**Status: for review.** Tests: `test_safety118.py`.
`peak_forecast_entity` was read as a bare number, and anything under 50 was
multiplied by 1000 ("accept kW or W"). A W sensor reading 17 to 45 W, which a
real site did 430 times in one morning, would be taken as 17 to 45 kW. The
validator also called a kW sensor wrong, which was false for this entity.
Decision: the size rule is gone. The entity is read through `pv.watts()`, the
same unit table and reader as the solar entities, so W, kW, MW and the rest
convert by the sensor's own `unit_of_measurement`. No unit, or a unit that is
not power (kWh), means the forecast is not used, exactly as if the option were
empty: the loop cap and every non-forecast peak step still apply. One WARNING
per cause, and a status row and a settings note say the same.
No size rule can be right in both units: 30 W and 30 kW are both ordinary.
The read is still one `GET /api/states/<id>` per cycle, as `hass.number()` made.
@@ -0,0 +1,96 @@
# SAFETY-119 - no "not keeping up" when the loop takes the wire back
**Status: for review.** Tests: `test_safety119.py`.
**Cause.** When another owner (the peak guard, a maintenance charge) has set
the wire and the loop wins again, `cycle()` re-seeds the integrator from that
owner's command, and `compute()` adds `gain * error` from a meter that does
not show that command yet. On the TEST-23 rig (SAFETY-118 I-2) the guard
stepped from -2000 W to +429 W with 5 s left. A cycle later the loop's ask
crossed the +2500 W rail and beat the guard's floor, so SAFETY-85 rule 1
counted it as the loop's own bound and raised `goodwe_integrator_bound`. The
battery gave what it was told, and the cap held.
**Decision.** After a hand-back, the loop's integrator bound is not counted
until the plant's settle has passed (`SHORT_CYCLES` cycles and
`SHORT_SPAN_S`, the window SAFETY-85 grades a battery on). After that it
counts as before. An over-rating (`clamped`, a bug) on a cycle the loop
decided always counts. No command changes, and no text was added or changed.
**A rolling budget (round 3).** The settle above is per hand-back, and
losing the wire restarts it. Across all hand-backs the bound is hidden on at
most a budget of cycles in any 15 minutes (`ROLLING_BUDGET`, `ROLLING_S`); a
cycle over the budget counts. Round 1 restarted the settle at every
hand-back, so a guard and a charge taking turns hid the bound for good (0
warnings in 2 h where 28 were raised before). Round 2 gave each run of
hand-backs its own budget; at 10 s and 15 s meters each quarter then started
a fresh one and the loop's bound was never counted. A quarter-edge kick is a
few bound cycles in one quarter, a real bound that stays is many: a budget
per 15 minutes tells them apart.
**The budget follows the cycle length.** 10 cycles up to a 3.5 s cycle, 8 up
to 11 s, 6 up to 16 s, 4 beyond. The cycle length is the time between two
decided cycles (a stop, or a gap over two minutes, is not one); until it is
known, and without a monotonic clock, the budget is 8. Without a monotonic
clock the budget never refills.
**Why not one number.** Measured over 2 h (`goodwe-addon-checks:1`), the
quarter-edge case (house 800 W, cap 2500 W, no forecast, 30 seeds) and the
case below. No single budget held both at 1 to 15 s: 3 to 6 let the false
alarm back at 2 s; 7 on 10 of 30 seeds at 2 s; 8 on 1 of 30 (seed 25) at
2 s, and warned in only 1 to 3 of 7 quarters at 15 s; 9 and 10 miss quarters
at 10 s. A slow cycle needs a small budget to warn, a fast one a large budget
to stay quiet. Per band, the largest budget that still warns: up to 3.5 s,
10 (9 and 10 had no false alarm at 1 and 2 s; above 10 was not swept); up to
11 s, 8 (9 misses quarters at 10 s); up to 16 s, 6 (7 leaves two quiet
quarters in a row at 15 s, 4 false-alarms at 12 s on 7 of 30 seeds); beyond,
4 (3 false-alarms at 20 and 30 s on 14 of 30, 5 leaves five quiet quarters at
20 s).
**What holds.** Quarter-edge case, 30 seeds each: 0 notifications at 1, 2,
3, 4, 5, 10, 12, 15, 20 and 30 s. Repeated hand-backs (2 x 2500 W,
cheap-window charge, no usable forecast, cap 5000 W, house 5050 and 5100 W,
constant and with noise, 8 runs per meter):
| meter | warnings in 2 h | quarters warned (of 7 after the first) | without the fix |
|---|---|---|---|
| 1 s | 56 to 63 | 7 | 56 to 63 |
| 2 s | 49 to 56 | 7 | 54 to 56 |
| 5 s | 19 to 23 | 7 | 28 |
| 10 s | 7 to 10 | 7 | 14 |
| 15 s | 4 to 10 | 4 to 7, never two quiet in a row | 14 |
| 30 s | 3 to 7 | 3 to 5, up to two quiet in a row | 7 to 11 |
At 30 s no budget does better: 4 leaves two quiet quarters, 3 brings back
the false alarm. Single hand-back, the loop at its rail, first warning after
the hand-back compared with no fix: 10 s at 1 s, 20 s at 2 s, 40 s at 5 s
(default), 80 s at 10 s, 90 s at 15 s, 80 s at 20 s, 120 s at 30 s, 240 s at
60 s. At 60 s the rig is a different regime (the house is not over the cap
in the case above), so nothing more is claimed there. The cap held at 1 to
10 s in the quarter-edge case and at 1 to 5 s in the case above; at slower
meters the meter's lag puts quarters over it, the same with and without the
fix (commands are identical).
**Limits.** These runs have one cycle per meter reading, at a steady
interval. A 20 or 30 s cycle needs `cycle_floor_s` raised; at the default
15 s, a slower meter adds cycles on an old reading. Measured that way (11
seeds): a 15 s meter that varies by up to 30 % false-alarmed on 5 seeds, a
30 s meter on 10 (0 to 4 in 2 h, 8 to 15 without the fix); a 20 s meter on
none. The case above still warned every quarter there.
**Kept.** The loop in charge at its rail warns on the same cycle as before.
The start and a restart after a stop are not hand-backs. The quarter-edge
kick of `test_safety119.py` part 1 stays hidden (see above).
**Re-pinned.** test_safety84 (all six) and test_safety87 (`n1_crossing`,
`n1_above`, `n1_charge_low`): only OUTPUT_CLAMP log rows differ; commands and
claims are the same (`test_safety119.py` part 6).
**Not hidden.** A battery that gives less than another owner told it still
alarms through SAFETY-85 rule 2. "Always counts" for an over-rating holds on
cycles the loop decided; on others SAFETY-85 rule 1 already dropped it.
**Not changed.** The kick itself is control behaviour: for a few seconds at
a quarter's edge the loop asks up to its rail. In `test_safety119.py` part 1
that is more discharge than the guard asked at a quarter's end, and a few
seconds of up to 500 W more charge at the next quarter's start.
+12 -10
View File
@@ -1,8 +1,9 @@
# GoodWe RS485 Controller
Drives a GoodWe ES/BP battery inverter over its RS485 meter bus: holds net grid
exchange at zero, and runs a monthly battery maintenance cycle so the BMS can
balance cells and recalibrate its coulomb counter.
Drives a GoodWe ES/BP battery inverter over its RS485 EMS port: sends it a grid
reading to hold net grid exchange at zero, and runs a monthly battery
maintenance cycle so the BMS can balance cells and recalibrate its coulomb
counter.
Installers: the printed field guide (`docs/GoodWe-RS485-Field-Guide.pdf`) is
v0.1.0 and outdated; where it disagrees with this page, this page wins.
@@ -33,8 +34,8 @@ v0.1.0 and outdated; where it disagrees with this page, this page wins.
You need:
- A GoodWe **ES / BP family** inverter (AA55 / RS485 meter-bus generation)
- The vendor's meter-emulating controller **disconnected** from the bus
- A GoodWe **ES / BP family** inverter (AA55 generation)
- The vendor's controller **disconnected** from the inverter's EMS port
- A control board: a T-CAN485 (ESP32) flashed with
`firmware/goodwe-master.yaml`
- A grid-power sensor already working in Home Assistant, updating every ~5–10 s
@@ -210,7 +211,7 @@ The label and description each setting shows on the Configuration tab, in tab or
| Limits | Battery cut-out level (%) | `bms_soc_floor` | The level where the battery's own management system stops giving power. Read it off your battery rather than copying a figure. |
| Limits | Peak limit (W) | `peak_cap_w` | Your own number: the 15-minute average power the add-on keeps the grid under. Take it from your grid contract. |
| Limits | Margin below the peak limit (W) | `peak_margin_w` | The add-on aims this much below the peak limit, so a 15-minute period that ends a little high still stays under it. |
| Limits | 15-minute demand forecast entity (W) | `peak_forecast_entity` | Optional. A forecast of this 15-minute period's average power. Leave it empty and there is no peak limit. |
| Limits | 15-minute demand forecast entity (W) | `peak_forecast_entity` | Optional. A forecast of this 15-minute period's average power, in W or kW. With no power unit it is not used. Leave it empty and there is no peak limit. |
| Limits | Peak reserve (%) | `peak_soc_floor` | Peak limiting will not draw the battery below this level, but ordinary use can. Derived value, leave it unchanged. |
| Tariff | Dynamic price source | `price_provider` | Where prices come from. Choosing a source starts the price fetch, even with trading off. |
| Tariff | Supplier markup (EUR/kWh) | `price_markup_eur_kwh` | Your supplier's margin. It is added only when the price source does not already include it. |
@@ -1697,7 +1698,7 @@ DECISIONS/MAINT-13-full-pack-is-complete.md.
| option | meaning |
|---|---|
| `peak_forecast_entity` | Quarter-hour demand forecast, for capacity-tariff markets. Empty = no cap |
| `peak_forecast_entity` | Quarter-hour demand forecast, for capacity-tariff markets. Read in its own unit (W, kW or any power unit). No unit, or a unit that is not power, means it is not used, as if empty (SAFETY-118). Empty = no cap |
| `peak_cap_w` | The site's capacity-tariff target |
| `peak_margin_w` (50) | Watts the peak guard aims under `peak_cap_w` (SAFETY-79). Reports and the bill use `peak_cap_w` itself |
| `peak_soc_floor` (20) | **The percent below which the capacity-peak guard will not discharge the battery.** ⚠️ It bounds **the peak guard only** — it is **not a pack-wide reserve**, and ordinary self-consumption discharges straight past it (SAFETY-25, see below). Not optional and not the same thing as `maintenance_soc_floor` |
@@ -3113,15 +3114,16 @@ second set of 23- and 25-hour-day bugs.
### Static day/night and fully-fixed tariffs (`static_profile`)
Most Belgian households are **not** on a dynamic contract, and an EMS that only
works under hourly pricing is an EMS for a minority. `static_profile` is how a
works under dynamic pricing is an EMS for a minority. `static_profile` is how a
two-period day/night tariff or a single fixed price becomes a first-class
configuration rather than "turn the price feature off and hope".
On the add-on page, choose **Other time windows** under Settings, Tariff and
prices, or in Setup step 4. Add one row per time window, with its start, end,
days and price. The page names any overlap, gap or empty price before you can
save. You only need the JSON below for days the page cannot choose, such as
Monday and Wednesday only.
save. Prices take five decimals: divide the c€/kWh on your bill by 100, so
34.512 c€/kWh is 0.34512 €/kWh. You only need the JSON below for days the page
cannot choose, such as Monday and Wednesday only.
It is one option, holding a JSON object, on one line:
+92 -38
View File
@@ -22,16 +22,13 @@ from . import arbitrage, messages, peakguard, uitext
from .maintenance import CHARGE as M_CHARGE, DRAIN as M_DRAIN, HOLD as M_HOLD
from .maintenance import IDLE as M_IDLE, next_slot_start
from .packmode import CHEAP_HOURS, GRID_CHARGE_MODES, LEFTOVER_SOLAR, SOLAR_FIRST
from .price import Absence, Uncertainty, brussels
from .price import Absence, Uncertainty, brussels, _cover_table
from .static_tariff import static_plan
from .tariff import BILLING_TZ
from .uimodel import REGION_PRESETS, options_to_ui
# A battery at or under this many watts is resting, not charging or giving.
IDLE_W = 50.0
# Display only: the lowest third of today's price range is "cheap", the top
# third "expensive". A price range under this is flat, and nothing is marked.
FLAT_EUR_KWH = 0.01
# Severity words the page shows; the same four as STYLE.md section 3.
ALARM, WARNING, INFO = messages.ALARM, messages.WARNING, messages.INFO
@@ -142,55 +139,103 @@ class DayPrices:
def __init__(self):
self.day = None
self.points = {}
self.kinds = {}
def see(self, points, day0, day1):
if self.day != day0:
self.day, self.points = day0, {}
self.day, self.points, self.kinds = day0, {}, {}
for p in points:
if day0 <= p.start < day1:
self.points[p.start] = p
return sorted(self.points.values(), key=lambda p: p.start)
def hour_bars(points, day0, day1):
"""One bar per local hour: the mean of its prices, or None when unknown.
`kind` is cheap / dear / mid by thirds of today's range (display only).
The page calls these "low price" and "high price", not cheap hours: the
add-on trades in the one cheapest and one dearest hour, not in a third."""
n = int(round(_hours(day1, day0)))
def _bar_step(pts):
"""The series' own spacing: its smallest gap, never over an hour."""
gaps = [y.start - x.start for x, y in zip(pts, pts[1:])
if y.start > x.start]
return min(gaps + [timedelta(hours=1)])
def _bar_cover(pts):
"""`[(start, end, point)]`: what each point is the price of on the chart.
The add-on's own rule, not a copy: `price._cover_table()` (TARIFF-14), so
a point covers until the next one starts and never over an hour, and the
last one for the span of the one before it."""
return _cover_table(pts)
def price_bars(points, day0, day1, windows=(), now=None, kept=None):
"""One bar per price step of the day: a quarter for a 15-minute series
(96; 92 and 100 on the clock-change days), an hour for an hourly one or a
static tariff. A bar is the price of the point that covers it, never an
average, and a step with no price is a bar with `eur_kwh` None.
`kind` is "cheap" or "dear" where `windows` (`[(kind, start, end)]`, the
runs the add-on itself uses) cover the bar's start, else "mid". A bar that
is over keeps the kind it had while it was still ahead (`kept`, a dict
that lives a day). Display only."""
pts = sorted(points, key=lambda p: p.start)
step = _bar_step(pts)
cover = _bar_cover(pts)
n = int((day1 - day0) / step)
bars = []
for k in range(n):
a, b = day0 + timedelta(hours=k), day0 + timedelta(hours=k + 1)
inside = [p for p in points if a <= p.start < b]
price = (sum(p.eur_per_kwh for p in inside) / len(inside)
if inside else None)
a = day0 + k * step
z = a + step
hit = next((p for s, e, p in cover if s <= a < e), None)
kind = None
if hit is not None:
if kept is not None and now is not None and z <= now:
kind = kept.get(a, "mid")
else:
kind = next((w[0] for w in windows if w[1] <= a < w[2]),
"mid")
if kept is not None:
kept[a] = kind
bars.append({"h": k, "start": a.isoformat(), "label": hhmm(a),
"end_label": hhmm(b), "points": len(inside),
"eur_kwh": None if price is None else round(price, 4),
"estimate": bool(inside) and any(p.provisional
for p in inside),
"kind": None})
known = [b["eur_kwh"] for b in bars if b["eur_kwh"] is not None]
if known and max(known) - min(known) >= FLAT_EUR_KWH:
lo, hi = min(known), max(known)
third = (hi - lo) / 3.0
for b in bars:
p = b["eur_kwh"]
if p is None:
continue
b["kind"] = ("cheap" if p <= lo + third else
"dear" if p >= hi - third else "mid")
elif known:
for b in bars:
if b["eur_kwh"] is not None:
b["kind"] = "mid"
"end_label": hhmm(z),
"eur_kwh": None if hit is None
else round(hit.eur_per_kwh, 4),
"estimate": hit is not None and bool(hit.provisional),
"kind": kind})
return bars
def _price_mode_in_use(c):
"""True when at least one battery is on and uses a price mode. The runs
belong to those batteries; with all on Solar first or off, nothing acts
on a price."""
for inv in c.inverters:
pm = c.pack_mode(inv)
if pm.use and pm.mode in PRICE_MODES:
return True
return False
def price_windows(c, plan, verdict):
"""`[(kind, start, end)]`: where the add-on itself buys ("cheap") and
gives ("dear"). With battery modes on that is the kept `priceruns.RunPlan`
(`c.mode_runs`): the cheap run when charging in it pays, and every give
run. With them off it is the arbitrage verdict's two points, the ones
`trade_runs()` draws. Nothing is classified here."""
if getattr(c, "modes_on", False):
rp = getattr(c, "mode_runs", None)
if rp is None or not rp.on or not _price_mode_in_use(c):
return []
out = [("cheap", rp.cheap.start, rp.cheap.end)] \
if rp.charge_useful() else []
return out + [("dear", g.start, g.end) for g in rp.give]
if verdict is None:
return []
return [("cheap", verdict.cheapest.start,
_point_end(plan, verdict.cheapest)),
("dear", verdict.dearest.start,
_point_end(plan, verdict.dearest))]
def day_range(points):
"""(lowest, highest) of today's published points, as {eur_kwh, label},
or (None, None). The feed's own points, like the trade legs, not the
chart's hour averages."""
or (None, None). The feed's own points, like the trade legs."""
firm = [p for p in points if not p.provisional]
if not firm:
return None, None
@@ -551,13 +596,15 @@ def build_plan(c, now, shadow, running, held=False, settled=True):
plan = static
except Exception: # noqa: BLE001
pass
seen = _day_prices(c).see(_points(plan), day0, day1)
bars = hour_bars(seen, day0, day1)
days = _day_prices(c)
seen = days.see(_points(plan), day0, day1)
limit_w = c.peak.cap_w # the limit the controller parsed at start
runs, lines = [], []
# The control cycle trades on the fresh plan only, so this does too.
verdict, trade_why = trade_verdict(c, fresh)
bars = price_bars(seen, day0, day1, price_windows(c, fresh, verdict),
now, days.kinds)
modes_on = bool(getattr(c, "modes_on", False))
if running:
off = {i for i, inv in enumerate(c.inverters) if _off(c, inv)}
@@ -1431,3 +1478,10 @@ def _samples() -> list:
("not_covered", "no_prices", "peak", "not_firm", "not_worth",
"no_level")]
return out
def priced_hours(bars):
"""How many clock hours of the day have a price: distinct hours among the
bars that have one, so 96 quarters count 24, not 96. The setup wizard's
"N of 24 hours". A 23-hour day gives 23, a 25-hour day 24."""
return len({b["label"][:2] for b in bars if b.get("eur_kwh") is not None})
+110 -5
View File
@@ -3,7 +3,7 @@
WHAT THIS THING DOES, in one paragraph: it reads the house's net grid power from
Home Assistant, decides how hard the battery should charge or discharge to hold
that at zero, and writes that figure to an ESP32 which puts it on the inverter's
RS485 meter bus. Once a month it runs a full low->full battery cycle so the BMS
RS485 EMS port. Once a month it runs a full low->full battery cycle so the BMS
can balance cells and recalibrate its coulomb counter.
⚠️ THE ONE THING TO UNDERSTAND BEFORE CHANGING ANY OF THIS: the inverter holds
@@ -299,6 +299,14 @@ REFUSED_PROGRESS_W = _ctl.PROBE_ANSWER_W / 2
# was told over the same span as above (the plant's measured settle time), so
# a healthy battery still settling on a new command is not short.
SHORT_CYCLES, SHORT_SPAN_S = _ctl.SETTLE_CYCLES, REFUSED_SPAN_S
# SAFETY-119: across all hand-backs, the loop's bound is hidden on at most
# ROLLING_BUDGET cycles in any ROLLING_S seconds, fewer on a slower cycle:
# (cycle seconds up to, cycles), measured in
# DECISIONS/SAFETY-119-bound-after-hand-back.md. Without a monotonic clock
# the budget never refills.
ROLLING_S = 900.0
ROLLING_BUDGET = ((3.5, 10), (11.0, 8), (16.0, 6), (float("inf"), 4))
ROLLING_BOUND_CYCLES = 8 # the budget while the cycle length is unknown
def _refused_interval(sign: int) -> tuple:
@@ -1202,6 +1210,9 @@ class Controller:
# `grid` is P1, one meter, one connection, and belongs here.
self.grid = None
self.peak_fc = None
# SAFETY-118: the unit fault last logged for the peak forecast (None =
# no fault), so the warning comes once and again only if it changes.
self._peak_fc_fault = None
self.cheap = False
self._price_gated = False # MAINT-13: is a price gate set up
# PRICE-01. Which step of the price chain the prices come from (logged
@@ -1269,6 +1280,14 @@ class Controller:
self._loop_decision = None
self._asked_hist: dict = {}
self._short_run = 0
# SAFETY-119: did another owner set the wire last cycle; the window
# after a hand-back (monotonic s, the loop's cycles in a row); the
# monotonic s of the bound cycles hidden in the last ROLLING_S; the
# last cycle's monotonic s and the cycle length.
self._wire_lost = False
self._handback = None
self._hidden = ()
self._settle_t, self._settle_dt = None, None
self.stopping = False
# SAFETY-61. time.monotonic() at the end of the last run_control() pass.
self.loop_pass_mono = None
@@ -2441,6 +2460,19 @@ class Controller:
tick = self.mode_tick
if tick is None:
return False
if tick.action == modetrade.CHARGE:
# OPT-20: the ask carries PROBE_W for exactly the probes whose pin
# is filed this tick. `decide()` ran before the pin was (or the
# window closed since), so the two can differ by one cycle; left
# alone, the allocator takes the pin's watts out of another
# battery's share, or hands them to one it can reach.
pins = _ctl.PROBE_W * sum(
1 for c in claims if c.source == "refused"
and c.kind == "set" and c.value < 0)
if pins != tick.probe_w:
tick = self.mode_tick = dataclasses.replace(
tick, ask_w=tick.ask_w + tick.probe_w - pins,
probe_w=pins)
size = modetrade.size(tick, self.loop_bound(claims)
if tick.action else None, self.arb_headroom_w)
runs = self.mode_runs
@@ -3345,6 +3377,22 @@ class Controller:
self.pv_w, self.pv_why, self.pv_parts = pv_read.total(
list(zip(roster, states)), pv_read.inverted(self.o))
def _peak_fc_unit_log(self, fault) -> None:
"""SAFETY-118. One WARNING when the peak forecast's unit cannot be read
in watts, and again only if the unit changes; the unit is on DEBUG."""
if fault == self._peak_fc_fault:
return
self._peak_fc_fault = fault
if fault is None:
_LOG.info("The 15-minute demand forecast is used again.")
elif fault == "":
_LOG.warning("The 15-minute demand forecast has no unit, so it "
"is not used.")
else:
_LOG.warning("The 15-minute demand forecast is not in a power "
"unit, so it is not used.")
_LOG.debug("The 15-minute demand forecast reads in %r.", fault)
async def _read_forecast(self) -> None:
"""OPT-11 P4: the solar forecast sensors (`solarfc.read()`). A
failed or stale read is no forecast, never a zero."""
@@ -3435,11 +3483,17 @@ class Controller:
_reads.append(self._read_forecast())
await asyncio.gather(*_reads)
if o.get("peak_forecast_entity"):
raw = await self.hass.number(o["peak_forecast_entity"])
# Accept kW or W - nobody's quarter-hour forecast is 50 W.
self.peak_fc = None if raw is None else (raw * 1000 if abs(raw) < 50 else raw)
# SAFETY-118: read in its own unit, like the PV path. One state
# read, as `hass.number()` made. No unit or a unit that is not
# power: not used, as if the option were empty.
st = await self.hass.state(o["peak_forecast_entity"])
self.peak_fc, _why = pv_read.watts(st)
# A missing reading leaves the unit-fault state as it was.
if pv_read.has_reading(st):
self._peak_fc_unit_log(pv_read.unit_fault(st))
else:
self.peak_fc = None
self._peak_fc_fault = None
now_e, avg_e = o.get("price_now_entity"), o.get("price_avg_entity")
if now_e and avg_e:
@@ -5775,6 +5829,8 @@ class Controller:
if d is None:
self._short_run = 0
self._asked_hist = {}
self._wire_lost, self._handback = False, None
self._settle_t = None # a stop is not a cycle length
return
unmet = self.allocation.unmet_w if self.allocation is not None else 0
cut = (resolution.bound_by or "").split("(")[0]
@@ -5800,7 +5856,9 @@ class Controller:
and delivery_short(asked[inv.name], inv.batt,
self.tuning.saturation_w)]
self._short_run = self._short_run + 1 if short else 0
if owns and self.loop_clamped[0]:
settling = self._settling(owns, now)
if owns and self.loop_clamped[0] and not (
settling and not self.loop_clamped[2]):
return
engaged = self._short_run >= self.tuning.saturation_cycles
named = len(self.inverters) > 1
@@ -5809,6 +5867,49 @@ class Controller:
if engaged else "", False)
self.loop_clamp_facts = ()
def _settling(self, owns, now) -> bool:
"""SAFETY-119: does the loop's bound on this cycle count? Not within
a settle after another owner handed the wire back: its integrator is
re-seeded from that owner's command and kicked by a meter that does
not show it yet. The settle is SHORT_CYCLES cycles and SHORT_SPAN_S
after the hand-back; losing the wire restarts it. Across all
hand-backs the bound is hidden on at most ROLLING_BUDGET[cycle
length] cycles in any ROLLING_S, so a bound that stays is counted
however often the wire changes hands.
DECISIONS/SAFETY-119-bound-after-hand-back.md."""
def aged(t0, span):
return now is None or t0 is None or now - t0 >= span
# The cycle length (a gap over two minutes is not one).
if now is not None and self._settle_t is not None \
and 0.0 < now - self._settle_t <= 120.0:
self._settle_dt = now - self._settle_t
self._settle_t = now
if not owns:
self._wire_lost, self._handback = True, None
return False
if self._wire_lost:
self._wire_lost, self._handback = False, (now, 0)
if self._handback is None:
return False
tc, n = self._handback
n += 1
self._handback = (tc, n)
if aged(tc, SHORT_SPAN_S) and n >= SHORT_CYCLES:
self._handback = None
return False
if self.loop_clamped[0] and not self.loop_clamped[2]:
kept = tuple(t for t in self._hidden if now is None or (
t is not None and now - t < ROLLING_S))
dt = self._settle_dt
budget = ROLLING_BOUND_CYCLES if dt is None else next(
m for up, m in ROLLING_BUDGET if dt <= up)
if len(kept) >= budget:
self._hidden = kept
return False
self._hidden = kept + (now,)
return True
async def check_output_clamp(self) -> None:
"""SAFETY-03. Alarm whenever a clamp actually engaged this cycle.
@@ -7227,6 +7328,10 @@ class Controller:
# is both is a check nobody reads.
out.append({"ok": False, "warn": True, "id": "peak_forecast",
"text": messages.row_no_peak_forecast()})
elif getattr(self, "_peak_fc_fault", None) is not None:
out.append({"ok": False, "warn": True, "id": "peak_forecast",
"text": messages.row_peak_forecast_unit(
self._peak_fc_fault)})
# OPT-17: a forecast summed from several entities names, by position,
# each member with no usable reading. A caution: control goes on.
gaps = getattr(self, "solar_fc_gaps", ())
+21
View File
@@ -788,6 +788,25 @@ def row_no_peak_forecast() -> str:
"the peak limit")
def peak_forecast_unit(unit, lang="en") -> str:
"""SAFETY-118. The 15-minute demand forecast has a number but no power
unit, so it is not used. `unit` is "" for none. One sentence, for the log
line, the status row and the settings page. Log lines stay English."""
if lang == "nl":
return ("De kwartierprognose heeft geen eenheid, dus ze wordt niet "
"gebruikt." if not unit else
"De kwartierprognose heeft geen vermogenseenheid, dus ze "
"wordt niet gebruikt.")
return ("The 15-minute demand forecast has no unit, so it is not used."
if not unit else
"The 15-minute demand forecast is not in a power unit, so it is "
"not used.")
def row_peak_forecast_unit(unit) -> str:
return peak_forecast_unit(unit)
def row_peak_guard_waiting() -> str:
return "Peak guard: no decision yet, control has not run"
@@ -1229,6 +1248,8 @@ def status_samples() -> list:
("row_no_estop", AMBER, row_no_estop()),
("row_estop_fitted", GREEN, row_estop_fitted()),
("row_no_peak_forecast", AMBER, row_no_peak_forecast()),
("row_peak_forecast_unit", AMBER, row_peak_forecast_unit("")),
("row_peak_forecast_unit", AMBER, row_peak_forecast_unit("kWh")),
("row_peak_guard_waiting", AMBER, row_peak_guard_waiting()),
("row_pv", GREEN, row_pv(3200, 2)),
("row_pv", GREEN, row_pv(1800, 1, True)),
+26 -4
View File
@@ -47,12 +47,17 @@ Rules that keep this safe (tests: test_modes_p3.py, test_price_run_fixes.py):
is its SAFETY-73 probe inside a cheap run (OPT-15): it is a charger then,
pinned at PROBE_W by its own claim, so the others rest (one sign) and the
card's "tries again every 15 minutes" holds in the run too;
* OPT-20: a probe asks PROBE_W for the probing battery and nothing more.
The rest of the ask is what the other chargers would have had without
the probe (none: PROBE_W alone), so a probe never places charge on a
battery in a maintenance phase or on one that rests;
* no grid charge while another battery drains for its monthly cycle
(`draining`, SAFETY-78): it would charge against the drain.
"""
from dataclasses import dataclass
from .control import PROBE_W
from .packmode import (CHEAP_HOURS, GRID_CHARGE_MODES, LEFTOVER_SOLAR,
PLAN_CHARGE_MODES, SOLAR_FIRST)
@@ -88,6 +93,7 @@ class Tick:
action: str | None # "charge" | "sell" | None
ask_w: float # signed site ask before sizing (0 if none)
why: str | None # why no trade when a run is on, else None
probe_w: float = 0.0 # OPT-20: the part of `ask_w` that is a probe
def _room_kwh(p: Pack, pct: float) -> float:
@@ -232,8 +238,12 @@ def decide(runs, now, packs, *, charge_ok, sell_ok, trade_why, price_now,
ranges[p.name] = (lo, hi)
if charging:
ask = -sum(abs(p.rating_w) for p in ch)
return Tick(ranges, roles, CHARGE, ask, None)
# OPT-20: a probing refuser is asked PROBE_W (its own pin holds it
# there); only the batteries that charge without a probe are asked
# for their rating.
probe_w = PROBE_W * sum(1 for p in ch if p.refused < 0)
ask = -sum(abs(p.rating_w) for p in ch if p.refused >= 0) - probe_w
return Tick(ranges, roles, CHARGE, ask, None, probe_w)
if selling:
ask = sum(abs(p.rating_w) for p in se) + max(0.0, float(house_w))
return Tick(ranges, roles, SELL, ask, None)
@@ -250,8 +260,20 @@ def size(tick: Tick, bound, headroom_w) -> float:
return 0.0
lo, hi = bound
if tick.action == CHARGE:
cap = min(-float(tick.ask_w), -float(lo),
float(headroom_w) if headroom_w is not None else 0.0)
room = float(headroom_w) if headroom_w is not None else 0.0
pw = float(tick.probe_w)
if pw > 0.0:
# OPT-20: the others' share is sized as without the probe; the
# probe's PROBE_W is added on top (the grid rises by PROBE_W at
# most), and alone it is sized by the bound and the headroom.
rest = max(0.0, min(-float(tick.ask_w) - pw, -float(lo) - pw,
room))
if rest > 0.0:
return -(rest + pw)
# PROBE_W exactly or no trade: less would void the pin and hand
# the remainder to whichever battery the allocator can reach.
return -pw if min(-float(lo), room) >= pw else 0.0
cap = min(-float(tick.ask_w), -float(lo), room)
return -max(0.0, cap)
return max(0.0, min(float(tick.ask_w), float(hi)))
+1 -1
View File
@@ -29,7 +29,7 @@ _LOG = logging.getLogger("goodwe.mqtt")
DEVICE = {
"identifiers": ["goodwe_rs485_controller"],
"name": "GoodWe",
"manufacturer": "GoodWe (via RS485 meter emulation)",
"manufacturer": "GoodWe (via RS485 EMS port)",
"model": "ES/BP series",
}
+31 -6
View File
@@ -93,12 +93,12 @@ def watts(state: dict | None) -> tuple:
unknown" are different claims and the page has to be able to make the first.
⚠️ THE UNIT IS READ OFF THE ENTITY AND NOT ASSUMED, AND THERE IS NO
MAGNITUDE HEURISTIC. `read_inputs()` guesses kW-or-W for
`peak_forecast_entity` with `abs(raw) < 50`, which is safe there because
nobody's quarter-hour demand forecast is 50 W. It is NOT safe here: 30 W of
real production at dusk is an ordinary reading, and that heuristic would
publish it as 30 kW - a fabricated number, in the channel whose entire
purpose is to be believed a week later. A sensor whose unit this cannot read
MAGNITUDE HEURISTIC. 30 W of real production at dusk is an ordinary reading,
and a "small number means kW" rule would publish it as 30 kW - a fabricated
number, in the channel whose entire purpose is to be believed a week later.
SAFETY-118 removed the last such rule, on `peak_forecast_entity`, for the
same reason (DECISIONS/SAFETY-118-peak-forecast-unit.md): the peak forecast
now reads through this function too. A sensor whose unit this cannot read
is REFUSED rather than guessed at.
"""
if state is None:
@@ -126,6 +126,31 @@ def watts(state: dict | None) -> tuple:
return value * WATTS_PER[unit], unit
def has_reading(state: dict | None) -> bool:
"""SAFETY-118. True when `state` holds a number, so its unit can be judged.
A missing, unavailable, unknown or non-numeric state is a missing reading."""
if state is None:
return False
raw = str(state.get("state", "")).strip()
if raw.lower() in BAD_STATES:
return False
try:
float(raw)
except ValueError:
return False
return True
def unit_fault(state: dict | None):
"""SAFETY-118. `None` unless `state` holds a number whose unit cannot be
read in watts, then that unit (`""` for none). `None` also means a missing
reading: use `has_reading()` to tell it from a good unit."""
if not has_reading(state):
return None
unit = str((state.get("attributes") or {}).get(UNIT_KEY) or "").strip()
return None if unit in WATTS_PER else unit
# --- TEL-12: the ROSTER, and the SITE figure over it --------------------------
def entities(opts: dict) -> tuple:
+2
View File
@@ -78,6 +78,8 @@ h2{font-size:15px;margin:0 0 10px;font-weight:650}
.bars i.cheap{background:var(--cheap)}
/* not by colour alone: expensive hours are striped, estimates are faded */
.bars i.dear{background:repeating-linear-gradient(135deg,var(--dear) 0 4px,color-mix(in srgb,var(--dear) 60%,var(--card)) 4px 7px)}
.bars.fine{gap:1px}
.bars.fine i{border-radius:1px 1px 0 0}
.bars i.est{opacity:.55}
.bars i.none{background:none;border-bottom:2px dotted var(--faint);height:2px!important}
.lane{position:relative;height:18px;margin-top:4px;background:var(--bg);border-radius:4px}
+2 -1
View File
@@ -177,11 +177,12 @@
const known = p.prices.filter((b) => b.eur_kwh != null);
const mx = Math.max(0.01, ...known.map((b) => Math.abs(b.eur_kwh)));
bars.setAttribute("aria-label", t("plan.name"));
bars.classList.toggle("fine", p.prices.length > 48);
bars.replaceChildren(...p.prices.map((b) => {
const title = b.label + " " + t("plan.time_to") + " " + b.end_label;
if (b.eur_kwh == null) return chartItem("i", "none", "", title, [t("plan.none_tip") + "."]);
const kind = b.kind === "cheap" ? ", " + t("plan.cheap_tip") : b.kind === "dear" ? ", " + t("plan.dear_tip") : "";
const est = (b.points > 1 ? ", " + t("plan.average_tip") : "") + (b.estimate ? ", " + t("plan.estimate_tip") : "");
const est = (b.estimate ? ", " + t("plan.estimate_tip") : "");
return chartItem("i", (b.kind || "mid") + (b.estimate ? " est" : ""),
"height:" + Math.max(4, Math.round(Math.abs(b.eur_kwh) / mx * 100)) + "%",
title, [eur(b.eur_kwh) + " " + t("plan.per_kwh") + kind + est + "."]);
+1 -1
View File
@@ -311,7 +311,7 @@
const days = h("select", { class: "sel", "aria-label": say(P.days) });
for (const [v, label] of f.days || []) days.append(h("option", { value: v, selected: v === row.days }, label));
days.addEventListener("change", () => set("days", days.value));
const price = h("input", { class: "num", type: "number", inputmode: "decimal", step: "0.01",
const price = h("input", { class: "num", type: "number", inputmode: "decimal", step: String(f.step || 0.01),
value: row.price == null ? "" : row.price, "aria-label": say(P.price) });
price.addEventListener("input", () => set("price", price.value === "" || isNaN(+price.value) ? null : +price.value));
const cell = (label, ...kids) => h("label", { class: "pf" }, h("span", { class: "tiny muted" }, label), ...kids);
+6 -7
View File
@@ -23,13 +23,13 @@
"contract": {"name": "Your contract", "description": "How your supplier prices each kWh you take from the grid."},
"region": {"name": "Region", "description": "Fills in grid costs, levies and VAT for the year shown, but not yet for Wallonia or Brussels, so check your bill."},
"fallback": {"name": "Price when the feed is down", "description": "Used when the price source does not answer."},
"fixed_price": {"name": "Price per kWh, all in", "description": "Energy, supplier costs, grid costs, levies and VAT together."},
"day_price": {"name": "Day price, weekdays 07:00 to 22:00", "description": "All in, as on your bill."},
"night_price": {"name": "Night and weekend price", "description": "All in, as on your bill."},
"periods": {"name": "Time windows and prices", "description": "One price per kWh for each time window, all in, as on your bill."}
"fixed_price": {"name": "Price per kWh, all in", "description": "Energy, supplier costs, grid costs, levies and VAT together: divide c€/kWh from the bill by 100, so 34.512 c€/kWh is 0.34512."},
"day_price": {"name": "Day price, weekdays 07:00 to 22:00", "description": "All in, as on your bill: divide c€/kWh by 100, so 34.512 c€/kWh is 0.34512."},
"night_price": {"name": "Night and weekend price", "description": "All in, as on your bill: divide c€/kWh by 100, so 34.512 c€/kWh is 0.34512."},
"periods": {"name": "Time windows and prices", "description": "One price per kWh for each time window, all in, as on your bill: divide c€/kWh by 100, so 34.512 c€/kWh is 0.34512."}
},
"choices": {
"contract": {"none": "No prices", "fixed": "Fixed price", "daynight": "Day and night", "dynamic": "Dynamic, hourly", "custom": "Other time windows"},
"contract": {"none": "No prices", "fixed": "Fixed price", "daynight": "Day and night", "dynamic": "Dynamic, every 15 minutes", "custom": "Other time windows"},
"fallback": {"none": "None", "fixed": "One price", "daynight": "Day and night", "custom": "Other time windows"},
"region": {"flanders": "Flanders, Fluvius Antwerpen", "own": "I enter my own figure"},
"meter_source": {"off": "One grid power entity", "ha_dsmr": "Import and export entities", "mqtt_p1": "Meter over MQTT", "ha_signed": "One net power entity", "homewizard_local": "HomeWizard meter on the network"},
@@ -66,8 +66,7 @@
"estimate_tip": "estimate from yesterday",
"none_tip": "No price known",
"no_prices": {"description": "No prices for today, so the chart shows only the plan."},
"list": "The plan in words",
"average_tip": "hour average"
"list": "The plan in words"
},
"peak": {"name": "Peak limit", "this_month": "This month's peak", "limit": "Limit", "none": "None recorded yet", "unreadable": "Cannot be read now"},
"attention": {"name": "Needs attention", "nothing": "Nothing to look at", "to_look": "to look at", "details": "Details", "alarm": "Alarm", "warning": "Warning", "info": "Info"},
+6 -7
View File
@@ -23,13 +23,13 @@
"contract": {"name": "Uw contract", "description": "Hoe uw leverancier elke kWh prijst die u van het net afneemt."},
"region": {"name": "Regio", "description": "Vult nettarieven, heffingen en btw in voor het getoonde jaar, nog niet voor Wallonië of Brussel, dus kijk uw factuur na."},
"fallback": {"name": "Prijs als de feed wegvalt", "description": "Gebruikt als de prijsbron niet antwoordt."},
"fixed_price": {"name": "Prijs per kWh, alles inbegrepen", "description": "Energie, kosten van de leverancier, nettarieven, heffingen en btw samen."},
"day_price": {"name": "Dagprijs, weekdagen 07:00 tot 22:00", "description": "Alles inbegrepen, zoals op uw factuur."},
"night_price": {"name": "Nacht- en weekendprijs", "description": "Alles inbegrepen, zoals op uw factuur."},
"periods": {"name": "Tijdvakken en prijzen", "description": "Eén prijs per kWh voor elk tijdvak, alles inbegrepen, zoals op uw factuur."}
"fixed_price": {"name": "Prijs per kWh, alles inbegrepen", "description": "Energie, kosten van de leverancier, nettarieven, heffingen en btw samen: deel c€/kWh van de factuur door 100, dus 34,512 c€/kWh is 0,34512."},
"day_price": {"name": "Dagprijs, weekdagen 07:00 tot 22:00", "description": "Alles inbegrepen, zoals op uw factuur: deel c€/kWh door 100, dus 34,512 c€/kWh is 0,34512."},
"night_price": {"name": "Nacht- en weekendprijs", "description": "Alles inbegrepen, zoals op uw factuur: deel c€/kWh door 100, dus 34,512 c€/kWh is 0,34512."},
"periods": {"name": "Tijdvakken en prijzen", "description": "Eén prijs per kWh voor elk tijdvak, alles inbegrepen, zoals op uw factuur: deel c€/kWh door 100, dus 34,512 c€/kWh is 0,34512."}
},
"choices": {
"contract": {"none": "Geen prijzen", "fixed": "Vaste prijs", "daynight": "Dag en nacht", "dynamic": "Dynamisch, per uur", "custom": "Andere tijdvakken"},
"contract": {"none": "Geen prijzen", "fixed": "Vaste prijs", "daynight": "Dag en nacht", "dynamic": "Dynamisch, per kwartier", "custom": "Andere tijdvakken"},
"fallback": {"none": "Geen", "fixed": "Eén prijs", "daynight": "Dag en nacht", "custom": "Andere tijdvakken"},
"region": {"flanders": "Vlaanderen, Fluvius Antwerpen", "own": "Ik vul zelf een bedrag in"},
"meter_source": {"off": "Eén entiteit voor netvermogen", "ha_dsmr": "Entiteiten voor afname en injectie", "mqtt_p1": "Meter via MQTT", "ha_signed": "Eén entiteit voor nettovermogen", "homewizard_local": "HomeWizard-meter op het netwerk"},
@@ -63,8 +63,7 @@
"estimate_tip": "schatting op basis van gisteren",
"none_tip": "Geen prijs bekend",
"no_prices": {"description": "Geen prijzen voor vandaag, dus de grafiek toont alleen het plan."},
"list": "Het plan in woorden",
"average_tip": "gemiddelde van het uur"
"list": "Het plan in woorden"
},
"peak": {"name": "Piekgrens", "this_month": "Piek van deze maand", "limit": "Grens", "none": "Nog niets gemeten", "unreadable": "Nu niet leesbaar"},
"attention": {"name": "Vraagt aandacht", "nothing": "Niets om na te kijken", "to_look": "na te kijken", "details": "Details", "alarm": "Alarm", "warning": "Waarschuwing", "info": "Info"},
+5 -5
View File
@@ -164,13 +164,13 @@ GROUPS = (
wizard=4),
Field("price_export_formula", TEXT),
Field("ui.fallback", SEGMENTED, show=_DYNAMIC, wizard=4),
Field("ui.fixed_price", NUMBER, "€/kWh", step=0.01,
Field("ui.fixed_price", NUMBER, "€/kWh", step=0.00001,
show=(("ui.fallback", "==", "fixed"),), wizard=4),
Field("ui.day_price", NUMBER, "€/kWh", step=0.01,
Field("ui.day_price", NUMBER, "€/kWh", step=0.00001,
show=(("ui.fallback", "==", "daynight"),), wizard=4),
Field("ui.night_price", NUMBER, "€/kWh", step=0.01,
Field("ui.night_price", NUMBER, "€/kWh", step=0.00001,
show=(("ui.fallback", "==", "daynight"),), wizard=4),
Field("ui.periods", PERIOD_LIST, "€/kWh", step=0.01,
Field("ui.periods", PERIOD_LIST, "€/kWh", step=0.00001,
show=(("ui.fallback", "==", "custom"),), wizard=4),
)),
Part("selling", (
@@ -194,7 +194,7 @@ GROUPS = (
Field("peak_cap_w", SLIDER, "kW", scale=1000, step=100,
simple=True, wizard=5, note="month_peak"),
Field("peak_margin_w", SLIDER, "W", step=10), # SAFETY-79
Field("peak_forecast_entity", ENTITY, kind="power_w", wizard=5),
Field("peak_forecast_entity", ENTITY, kind="power", wizard=5),
Field("peak_soc_floor", LOCKED, "%"),
)),
Part("start", (
+7 -2
View File
@@ -1741,11 +1741,12 @@ def _card_note(option: str, spec) -> str:
# UX-13: entity options whose number the add-on takes as watts, with no unit
# conversion. pv.py converts each solar entity's own unit, so those are not here.
# conversion. pv.py converts each solar entity's own unit, so those are not here,
# and SAFETY-118 moved the peak forecast there too.
WATT_ENTITY_KEYS = (
"meter_entity", "p1_net_entity", "p1_import_entity", "p1_export_entity",
"p1_phase_net_entities", "p1_phase_import_entities",
"p1_phase_export_entities", "batt_entity", "peak_forecast_entity")
"p1_phase_export_entities", "batt_entity")
# The meter entities each `meter_source` reads through Home Assistant.
@@ -1829,6 +1830,10 @@ def _entity_notes(notes, opts: dict, entities: dict, bad=()) -> None:
_advise(notes, "warn", (key,),
f"{entity} reads in {unit}, but {S(key, where)} is "
"taken as watts, so pick a sensor in W.")
if key == "peak_forecast_entity" and unit not in pv.WATTS_PER:
_advise(notes, "warn", (key,),
messages.peak_forecast_unit(unit) + " Pick a sensor in "
"W or kW.")
if key in FORECAST_KEYS and unit not in solarfc.KWH_PER:
_advise(notes, "warn", (key,),
f"{entity} does not read in kWh, so pick a solar "
+2 -2
View File
@@ -50,7 +50,7 @@ from aiohttp import web
from . import messages, price, selfconfig, uipage, uitext
from .haentities import EntityCache
from .homeview import region_of
from .homeview import priced_hours, region_of
from .validate import config_notes, setup_checks
from .config_page import CONFIG_PAGE
from .configui import (changed_keys, field_model, hide_secrets, keep_secrets,
@@ -328,7 +328,7 @@ def build_app(controller, selfcfg=None) -> web.Application:
try:
prices = (controller.status_payload().get("plan") or {}).get(
"prices") or []
known = sum(1 for p in prices if p.get("eur_kwh") is not None)
known = priced_hours(prices)
except Exception: # noqa: BLE001 - a display figure, never a failure
known = None
return setup_checks(options, entities=rows, running=controller.o,
+3 -3
View File
@@ -1,9 +1,9 @@
name: GoodWe RS485 Controller
version: "0.17.0"
version: "0.18.2"
slug: goodwe_controller
description: >-
Drives a GoodWe ES/BP battery inverter over RS485 by emulating its smart
meter, holding net grid exchange at zero and running a monthly battery
Drives a GoodWe ES/BP battery inverter over its RS485 EMS port by sending it a
grid reading, holding net grid exchange at zero and running a monthly battery
maintenance cycle.
url: https://gittea.kammenstraatha.duckdns.org/admin/goodwe-addon
arch:
+275 -6
View File
@@ -33,7 +33,9 @@ from app import homeview, web
from app.main import Controller
from app.peakguard import PeakDecision
from app.price import PricePoint, PriceProduct, PriceRead
from app.static_tariff import TariffPlan
from app.static_tariff import TariffPlan, static_plan
from app import packmode
from app.store import unit_key
from app.uimodel import REGION_PRESETS
from named_absence import field, nth, present
@@ -152,6 +154,14 @@ def quiet_guard(projected_w=1240.0):
ceiling_from="cap", projected_w=projected_w)
def set_modes(c, *modes):
"""File each battery's mode in the store (None leaves the default, which
follows the house)."""
for inv, m in zip(c.inverters, modes):
if m is not None:
c.store.data[unit_key(inv.name, packmode.MODE_KEY)] = m
def status(c, now=NOW):
s = c.status_payload()
# The status route builds at wall-clock time; rebuild the structured half
@@ -317,7 +327,7 @@ check("a plan with no published prices yet says so, not 'the price gap is "
_t == [] and homeview.line_no_trade("not_firm") in _l
and homeview.line_no_trade("not_worth") not in _l)
check("the price bars are today's 24 hours, from the real series, with the "
"cheap and expensive thirds marked",
"cheap and dear hour marked",
[b["eur_kwh"] for b in s_arb["plan"]["prices"]] == MOCK
and s_arb["plan"]["prices"][13]["kind"] == "cheap"
and s_arb["plan"]["prices"][19]["kind"] == "dear"
@@ -518,10 +528,269 @@ check("quarter-hour prices: the charge block, its price and the price line's "
and f"Today: lowest €{_lo.eur_per_kwh:.2f} at "
f"{homeview.hhmm(_lo.start)}," in s_q["plan"]["price_line"]
and "the list" not in json.dumps(s_q["plan"]))
check("...and the hour bar says it is an hour average",
s_q["plan"]["prices"][13]["points"] == 4
and '"plan.average_tip"' in io.open(os.path.join(
HERE, "app", "static", "app.js"), encoding="utf-8").read())
# UX-45: the chart draws the steps the add-on decides on.
_pq = s_q["plan"]["prices"]
check("UX-45: 96 quarter prices -> 96 bars, each one quarter, labelled "
"from its own start, with its own price and no average",
len(_pq) == 96 and _pq[0]["label"] == "00:00"
and _pq[0]["end_label"] == "00:15" and _pq[57]["label"] == "14:15"
and _pq[57]["end_label"] == "14:30"
and [b["eur_kwh"] for b in _pq] == [round(p.eur_per_kwh, 4)
for p in _q[:96]]
and all("points" not in b for b in _pq)
and s_q["plan"]["hours"] == 24)
check("...the quarters of one hour differ (the chart shows the steps)",
len({b["eur_kwh"] for b in _pq[52:56]}) > 1)
check("...and the page has no 'hour average' tip any more",
"average_tip" not in io.open(os.path.join(
HERE, "app", "static", "app.js"), encoding="utf-8").read()
and "average_tip" not in io.open(os.path.join(
HERE, "app", "ui_text", "en.json"), encoding="utf-8").read()
and "average_tip" not in io.open(os.path.join(
HERE, "app", "ui_text", "nl.json"), encoding="utf-8").read())
_cheap_q = [b["start"] for b in _pq if b["kind"] == "cheap"]
_dear_q = [b["start"] for b in _pq if b["kind"] == "dear"]
_hi = max(_q[:96], key=lambda p: p.eur_per_kwh)
check("...without battery modes the marks are the two quarters the "
"arbitrage verdict trades in, and no others",
_cheap_q == [_lo.start.isoformat()] and _dear_q == [_hi.start.isoformat()]
and sum(1 for b in _pq if b["kind"] == "mid") == 94)
# Battery modes on: the marks ARE the kept priceruns result.
from app import priceruns
_rp = priceruns.plan(tuple(_q), NOW, required_eur_kwh=0.05, charge_kwh=2.0,
charge_kw=4.0, sell_kwh=0.0, sell_kw=0.0)
c_m = make(ARB)
c_m.tariff_plan, c_m.tariff_at = c_q.tariff_plan, NOW
c_m.peak_guard = quiet_guard()
c_m.modes_on, c_m.mode_runs = True, _rp
set_modes(c_m, packmode.SOLAR_FIRST, packmode.CHEAP_HOURS)
_pm = status(c_m)["plan"]["prices"]
_today = [(a, z) for a, z, _p in priceruns.firm_slots(_q, NOW)
if a < DAY0 + timedelta(hours=24)]
_want_c = {a.isoformat() for a, z in _today
if _rp.cheap.start <= a < _rp.cheap.end}
_want_d = {a.isoformat() for g in _rp.give for a, z in _today
if g.start <= a < g.end}
check("UX-45: with battery modes on, the cheap and dear quarters are the "
"priceruns cheap run and give runs for the same input",
_rp.on and _rp.charge_useful() and _want_c and _want_d
and {b["start"] for b in _pm if b["kind"] == "cheap"} == _want_c
and {b["start"] for b in _pm if b["kind"] == "dear"} == _want_d
and len(_pm) == 96)
c_m2 = make(ARB)
c_m2.tariff_plan, c_m2.tariff_at = c_q.tariff_plan, NOW
c_m2.peak_guard = quiet_guard()
c_m2.modes_on = True
set_modes(c_m2, packmode.CHEAP_HOURS, None)
c_m2.mode_runs = priceruns.plan(tuple(_q), NOW, required_eur_kwh=5.0,
charge_kwh=2.0, charge_kw=4.0, sell_kwh=0.0,
sell_kw=0.0)
check("...a run plan that says no trade marks nothing",
not c_m2.mode_runs.on
and {b["kind"] for b in status(c_m2)["plan"]["prices"]} == {"mid"})
# A quarter that is over keeps the mark it had while it was ahead.
# (`status()` also builds at wall-clock time, which starts the day's memory
# over, so the two builds below go straight to `homeview.build`.)
_later = NOW + timedelta(hours=4)
_s0 = c_q.status_payload()
homeview.build(c_q, level=_s0["level"], checks=_s0["checks"], now=NOW)
c_q.tariff_at = _later
_pl = homeview.build(c_q, level=_s0["level"], checks=_s0["checks"],
now=_later)["plan"]["prices"]
check("...and a quarter already over keeps the mark it had while ahead",
[b["kind"] for b in _pl if b["start"] == _lo.start.isoformat()]
== ["cheap"]
and [b["kind"] for b in _pl if b["label"] == "19:00"] == ["dear"])
c_q.tariff_at = NOW
# UX-45 round 2 (F2): a hole is covered by the add-on's own rule,
# `price._cover_table()`: the point before it runs on, never over an hour.
def _hole_bars(missing):
pts = [PricePoint(DAY0 + timedelta(minutes=15 * i), .10 + .001 * i, False)
for i in range(96)]
gone = {DAY0 + timedelta(hours=10, minutes=15 * (1 + j))
for j in range(missing)}
pts = [p for p in pts if p.start not in gone]
return homeview.price_bars(pts, DAY0, DAY0 + timedelta(hours=24))
_gap = {}
for _n in (1, 2, 3, 4, 5):
_bb = _hole_bars(_n)
_gap[_n] = ([b["eur_kwh"] is None for b in _bb[41:41 + _n]],
len(_bb))
_b1 = _hole_bars(1)
check("UX-45: 1, 2 or 3 missing quarters show the price before them (the "
"add-on's own cover rule), and nothing shifts",
all(len(_hole_bars(n)) == 96 for n in (1, 2, 3))
and _gap[1][0] == [False] and _gap[2][0] == [False, False]
and _gap[3][0] == [False, False, False]
and [b["eur_kwh"] for b in _hole_bars(3)[40:44]]
== [_hole_bars(3)[40]["eur_kwh"]] * 4
and _b1[42]["label"] == "10:30" and _b1[43]["label"] == "10:45"
and _b1[43]["eur_kwh"] == round(.10 + .001 * 43, 4))
check("...4 missing quarters leave 1 bar empty, 5 leave 2: a hole over an "
"hour is not filled past the hour",
_gap[4][0] == [False, False, False, True]
and _gap[5][0] == [False, False, False, True, True]
and sum(b["eur_kwh"] is None for b in _hole_bars(4)) == 1
and sum(b["eur_kwh"] is None for b in _hole_bars(5)) == 2)
# A cheap run that is not worth charging in is not marked; an estimate is.
import types
_pts = [PricePoint(DAY0 + timedelta(minutes=15 * i),
.30 if i < 4 else .10, False) for i in range(8)]
_rp2 = priceruns.plan(tuple(_pts), DAY0, required_eur_kwh=0.05,
charge_kwh=0.5, charge_kw=4.0, sell_kwh=0.0, sell_kw=0.0)
c_w2 = make(ARB)
c_w2.modes_on, c_w2.mode_runs = True, _rp2
set_modes(c_w2, packmode.LEFTOVER_SOLAR, None)
_w2 = homeview.price_windows(c_w2, None, None)
check("UX-45: a cheap run that comes after every dear slot is not worth a "
"charge, so it is not marked (the dear run is)",
_rp2.on and _rp2.cheap is not None and not _rp2.charge_useful()
and [w[0] for w in _w2] == ["dear"])
_est = [PricePoint(DAY0 + timedelta(minutes=15 * i), .2, False)
for i in range(80)] + [PricePoint(DAY0 + timedelta(hours=20), .25,
True)]
_be = homeview.price_bars(_est, DAY0, DAY0 + timedelta(hours=24))
check("UX-45: a carried (estimate) price after quarter prices is the last "
"point, so it covers one quarter (the add-on's tail rule), as an "
"estimate bar; the rest stays empty",
[b["estimate"] for b in _be[78:83]] == [False, False, True, False, False]
and _be[80]["eur_kwh"] == .25 and _be[81]["eur_kwh"] is None)
_est2 = _est[:80] + [PricePoint(DAY0 + timedelta(hours=20 + k), .25, True)
for k in range(3)]
_be2 = homeview.price_bars(_est2, DAY0, DAY0 + timedelta(hours=24))
check("...carried hourly points one after another cover an hour each",
[b["eur_kwh"] for b in _be2[80:92]] == [.25] * 12
and _be2[92]["eur_kwh"] is None)
# Hourly prices -> 24 bars (above); a day/night tariff -> 24 bars.
_ph1 = s_arb["plan"]["prices"]
check("UX-45: hourly prices -> 24 hour bars with the hour's own price",
len(_ph1) == 24 and _ph1[13]["end_label"] == "14:00"
and "points" not in _ph1[13])
c_dn = make(dict(ARB, static_profile=(
'{"periods": [{"name":"day","from":"07:00","to":"22:00","days":"all",'
'"eur_per_kwh":0.34},{"name":"night","from":"22:00","to":"07:00",'
'"days":"all","eur_per_kwh":0.26}]}')))
c_dn.peak_guard = quiet_guard()
_pd = status(c_dn)["plan"]["prices"]
check("UX-45: a day/night tariff -> 24 bars, 0.26 at night and 0.34 by day",
len(_pd) == 24
and [b["eur_kwh"] for b in _pd]
== [.26] * 7 + [.34] * 15 + [.26] * 2
and all(b["kind"] == "mid" for b in _pd))
# Clock-change days: 92 and 100 quarters.
_d0 = datetime(2026, 3, 28, 23, 0, tzinfo=timezone.utc)
_d1 = datetime(2026, 3, 29, 22, 0, tzinfo=timezone.utc)
_sp = [PricePoint(_d0 + timedelta(minutes=15 * i), .1, False)
for i in range(92)]
check("UX-45: a 23-hour day has 92 quarter bars, a 25-hour day 100",
len(homeview.price_bars(_sp, _d0, _d1)) == 92
and len(homeview.price_bars(
_sp, _d0, _d0 + timedelta(hours=25))) == 100)
_f0 = datetime(2026, 10, 24, 22, 0, tzinfo=timezone.utc) # 25-hour day
_fb = [PricePoint(_f0 + timedelta(minutes=15 * i), .1, False)
for i in range(100)]
# F5: the day/night chart with the stored static plan, as in production
# (the cycle stores `static_plan()` when the provider is off).
_PROF = ('{"periods": [{"name":"day","from":"07:00","to":"22:00",'
'"days":"all","eur_per_kwh":0.34},{"name":"night","from":"22:00",'
'"to":"07:00","days":"all","eur_per_kwh":0.26}]}')
def _dn(arb):
c = make(dict(ARB if arb else TWO, static_profile=_PROF))
c.peak_guard = quiet_guard()
c.tariff_plan = static_plan(c.o, NOW, NOW + timedelta(hours=36), now=NOW)
c.tariff_at = NOW
return c, status(c)["plan"]["prices"]
_c_off, _p_off = _dn(False)
_c_on, _p_on = _dn(True)
_v_on, _why_on = homeview.trade_verdict(_c_on, _c_on.fresh_tariff_plan(NOW))
check("UX-45: day/night tariff with the stored plan and price trading off: "
"24 bars, no cheap or dear mark",
len(_p_off) == 24 and {b["kind"] for b in _p_off} == {"mid"})
check("...and with price trading on, the marks are the verdict's cheapest "
"and dearest hour (one each)",
_v_on is not None and len(_p_on) == 24
and [datetime.fromisoformat(b["start"]) for b in _p_on
if b["kind"] == "cheap"] == [_v_on.cheapest.start]
and [datetime.fromisoformat(b["start"]) for b in _p_on
if b["kind"] == "dear"] == [_v_on.dearest.start]
and sum(b["kind"] == "mid" for b in _p_on) == 22)
# F3 / owner decision 2a: with battery modes on, marks only when a battery
# uses a price mode.
def _modes(*modes, use=(True, True)):
c = make(ARB)
c.tariff_plan, c.tariff_at = c_q.tariff_plan, NOW
c.peak_guard = quiet_guard()
c.modes_on, c.mode_runs = True, _rp
set_modes(c, *modes)
for inv, u in zip(c.inverters, use):
c.store.data[unit_key(inv.name, packmode.USE_KEY)] = u
return {b["kind"] for b in status(c)["plan"]["prices"]}
_F, _L, _C = (packmode.SOLAR_FIRST, packmode.LEFTOVER_SOLAR,
packmode.CHEAP_HOURS)
check("UX-45: battery modes on, every battery follows the house: no marks",
_modes(_F, _F) == {"mid"} and _modes(None, None) == {"mid"})
check("...one battery on Cheap hours or Leftover solar: the marks show",
{"cheap", "dear"} <= _modes(_F, _C) and {"cheap", "dear"} <= _modes(_L, _F))
check("...a price mode on a battery that is switched off does not count",
_modes(_F, _C, use=(True, False)) == {"mid"}
and {"cheap", "dear"} <= _modes(_F, _C, use=(False, True)))
# F4: the day's memory of past marks starts over on a new day.
_s4 = c_q.status_payload()
homeview.build(c_q, level=_s4["level"], checks=_s4["checks"], now=NOW)
_k0 = dict(c_q.home_prices.kinds)
_tom = NOW + timedelta(days=1)
c_q.tariff_at = _tom
homeview.build(c_q, level=_s4["level"], checks=_s4["checks"], now=_tom)
c_q.tariff_at = NOW
check("UX-45: past marks start over on a new day (nothing of yesterday is "
"kept)",
len(_k0) > 0 and c_q.home_prices.day != DAY0
and c_q.home_prices.kinds
and all(k >= DAY0 + timedelta(days=1) for k in c_q.home_prices.kinds)
and len(c_q.home_prices.kinds) <= 96)
# F1: the setup wizard counts hours, not bars.
from app.validate import setup_checks
_o = dict(ARB, price_provider="entsoe_be")
_say = lambda n: [x for x in map(repr, setup_checks(
_o, entities={}, running=_o, prices_known=n)) if "Prices for today" in x]
check("UX-45: 96 quarter prices count as 24 hours in the setup wizard, "
"not 96",
homeview.priced_hours(_pq) == 24
and homeview.priced_hours(s_arb["plan"]["prices"]) == 24
and "for 24 of 24 hours" in "".join(_say(homeview.priced_hours(_pq)))
and "96 of 24" not in "".join(_say(homeview.priced_hours(_pq))))
check("...a half-priced day counts its hours; a hole of one quarter loses "
"no hour",
homeview.priced_hours(_pq[:48]) == 12
and homeview.priced_hours(_hole_bars(5)) == 24
and homeview.priced_hours([dict(b, eur_kwh=None) for b in _pq]) == 0)
check("...a 23-hour day gives 23 and a 25-hour day 24 (clock hours)",
homeview.priced_hours(homeview.price_bars(_sp, _d0, _d1)) == 23
and homeview.priced_hours(homeview.price_bars(
_fb, _f0, _f0 + timedelta(hours=25))) == 24)
check("...and the wizard takes that count",
"known = priced_hours(prices)" in io.open(os.path.join(
HERE, "app", "web.py"), encoding="utf-8").read())
# --------------------------------------------------------------------------- #
print("\n4. a fault in the Home view never costs the page its rows")
+3 -3
View File
@@ -104,7 +104,7 @@ def check(name, cond):
# release/1.0 rather than against release/1.0.
# ---------------------------------------------------------------------------
_DEV = ('{"identifiers": ["goodwe_rs485_controller"], "name": "GoodWe", '
'"manufacturer": "GoodWe (via RS485 meter emulation)", '
'"manufacturer": "GoodWe (via RS485 EMS port)", '
'"model": "ES/BP series"}')
BASELINE = [
@@ -442,7 +442,7 @@ for c_ in unit_cfgs:
print(f" regression pin (sha256 of the eight payloads): {_pin}")
check("the per-unit payloads are the ones this PR was reviewed with "
"(REGRESSION PIN, not a correctness claim - see the comment)",
_pin == "eb5022b0455158d7")
_pin == "b4274714d8557c37")
# ---------------------------------------------------------------------------
print("\n4. zero overlap between A's entities and B's")
@@ -976,7 +976,7 @@ def announce_p2(units=(), omit=(), include=(), modes=(), retract=(),
# `git show ed739d4:goodwe_controller/app/mqtt.py` and this loop.
ROSTERS = [[], ["inverter-a"], ["inverter-a", "inverter-b"], ["a", "b", "c"],
["inverter-b", "Inverter B", "x", "y"], ["café"]]
ED739D4_OFF = "501a7d93782a260b"
ED739D4_OFF = "057be1d8ad7bb582" # DOC-8: ed739d4 digest with only the manufacturer string changed
_h, _n, _subs_off = hashlib.sha256(), 0, []
for _r in ROSTERS:
for _om in [(), ("p1_age",), ("p1_age", "grid")]:
+267
View File
@@ -0,0 +1,267 @@
"""Runnable check for OPT-20. `python3 test_opt20.py`
A refusal probe (OPT-15 F3, SAFETY-73) asks the probing battery PROBE_W and
nothing else. On TEST-23 (OPT-15 g7) the probe made the trade ask 2500 W: B
was pinned at 200 W and the allocator put the other 2300 W on A, which sat in
its maintenance charge phase at 0 W, with the grid at 3100 W for 34 s.
1. modetrade: the ask carries PROBE_W for the probing battery, the other
chargers' ratings as without the probe, and `size()` adds the probe on top
of their share (or asks PROBE_W exactly, or nothing).
2. main: the ask carries PROBE_W for exactly the pins filed this tick, so the
first and the last cycle of a window do not move another battery's share.
3. The real Controller in the lagged replay, with B refusing and probed while
A is (a) in its maintenance charge phase (also with the charge shaped to
0 W), (b) idle, (c) a normal charger in the same run, and the OPT-15 rig's
g7 sequence: A's command is the same through the window as just before it,
B gets PROBE_W, and the commanded charge rises by PROBE_W at most.
4. Battery modes on with no probe: byte-identical to release/1.0 bf9019e.
Out of scope, and unchanged: a normal (non-probing) trade placed on a battery
in maintenance charge (OPT-11 P4 F4) and the action-log wording (UX-38).
Mutations: MUTATION.md says how to run them (purged copies); the 12 of
OPT-20 are listed in the pull request.
"""
import dataclasses
import logging
import os
import sys
from types import SimpleNamespace
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
sys.path.insert(0, os.path.join(HERE, "tools"))
logging.disable(logging.WARNING)
import opt20_scen as sc # noqa: E402
from app import arbitrage, modetrade, packmode # noqa: E402
from app import control as ctl # noqa: E402
from app import main # noqa: E402
from app.arbiter import Claim, P_SAFETY # noqa: E402
fails = []
def check(name, cond):
print(f" {'ok ' if cond else 'FAIL'} {name}")
if not cond:
fails.append(name)
PW = ctl.PROBE_W
A, B = sc.A, sc.B
# ============================================================================ #
print("1. modetrade: the ask and the size")
_runs = SimpleNamespace(on=True, cheap=SimpleNamespace(holds=lambda n: True),
charge_useful=lambda: True, give_at=lambda n: None,
sell=None)
def _dec(packs, **kw):
args = dict(charge_ok=True, sell_ok=True, trade_why=None, price_now=0.1,
headroom_w=3000.0, floor_pct=20.0, ceiling_pct=95.0,
house_w=800.0)
args.update(kw)
return modetrade.decide(_runs, sc.UTC0, packs, **args)
_pb = modetrade.Pack(B, True, packmode.CHEAP_HOURS, False, 2500.0, 30.0, 10.0,
refused=-1, probing=True)
_pa = modetrade.Pack(A, True, packmode.CHEAP_HOURS, False, 2500.0, 50.0, 10.0)
_pm = dataclasses.replace(_pa, mode=packmode.SOLAR_FIRST, idle=False)
_pi = dataclasses.replace(_pa, mode=packmode.SOLAR_FIRST)
_t_alone = _dec([_pb, _pm])
check("a probe beside a battery in maintenance asks PROBE_W and no more",
_t_alone.action == modetrade.CHARGE and _t_alone.ask_w == -PW
and _t_alone.probe_w == PW)
check("...beside an idle battery that cannot charge from the grid too",
_dec([_pb, _pi]).ask_w == -PW and _dec([_pb, _pi]).probe_w == PW)
_t_two = _dec([_pb, _pa])
check("...beside a normal charger the ask is that charger's rating plus "
"PROBE_W", _t_two.ask_w == -2500.0 - PW and _t_two.probe_w == PW)
_t_np = _dec([dataclasses.replace(_pb, probing=False), _pa])
check("no probe: the ask is the chargers' ratings, probe_w is 0 (as before)",
_t_np.ask_w == -2500.0 and _t_np.probe_w == 0.0
and _dec([_pa, _pm]).ask_w == -2500.0
and modetrade.Tick({}, {}, None, 0.0, None).probe_w == 0.0)
def sz(ask, probe_w, lo, room, action=modetrade.CHARGE):
t = modetrade.Tick({}, {}, action, ask, None, probe_w)
return modetrade.size(t, (lo, 2500.0), room)
check("size, a probe alone: PROBE_W, whatever the headroom above it",
sz(-PW, PW, -(PW), 3000.0) == -PW and sz(-PW, PW, -2700.0, 9000.0) == -PW)
check("...exactly PROBE_W or nothing: a headroom or a bound under it files "
"no trade (a smaller ask voids the pin and the allocator would place "
"it elsewhere)",
sz(-PW, PW, -2700.0, PW - 1) == 0.0 and sz(-PW, PW, -(PW - 1), 3000.0)
== 0.0 and sz(-PW, PW, -2700.0, 0.0) == 0.0
and sz(-PW, PW, -2700.0, PW) == -PW)
check("size with another charger: its share is sized as without the probe, "
"the probe's PROBE_W is added on top",
sz(-2700.0, PW, -2700.0, 3000.0) == -2700.0
and sz(-2700.0, PW, -2700.0, 1000.0) == -1200.0
and sz(-2700.0, PW, -1700.0, 3000.0) == -1700.0
and sz(-2700.0, PW, -2700.0, 0.0) == 0.0)
check("size with no probe is what it was (ask, bound, headroom)",
sz(-2500.0, 0.0, -2700.0, 3000.0) == -2500.0
and sz(-2500.0, 0.0, -2700.0, 1000.0) == -1000.0
and sz(-2500.0, 0.0, -1800.0, 3000.0) == -1800.0
and sz(-2500.0, 0.0, -2700.0, None) == 0.0
and modetrade.size(modetrade.Tick({}, {}, None, 0.0, None),
(-5.0, 5.0), 3000.0) == 0.0)
# ============================================================================ #
print("\n2. main: the ask carries the pins filed this tick")
def trade(tick, pins, bound=(-2700.0, 2500.0), room=3000.0):
"""The trade `_mode_trade()` files: (claims, size or None)."""
claims = [Claim.set("refused", P_SAFETY, -PW * 1.0, ctl.PROBING,
actuator="x") for _ in range(pins)]
me = SimpleNamespace(
mode_tick=tick, loop_bound=lambda cl: bound, arb_headroom_w=room,
mode_runs=SimpleNamespace(
cheap=SimpleNamespace(start=sc.UTC0, end=sc.UTC0,
mean_eur_kwh=0.1),
sell=None, level_eur_kwh=0.1),
arb=None, _arb_action=None, log_event=lambda *a, **k: None)
filed = main.Controller._mode_trade(me, claims, sc.UTC0)
t = [c for c in claims if c.source == arbitrage.SOURCE]
return filed, (t[0].value if t else None), me.mode_tick
_t0 = modetrade.Tick({}, {A: modetrade.CHARGE}, modetrade.CHARGE, -2500.0,
None, 0.0)
check("the pin is filed but decide() ran before it (the window's first "
"cycle): the charger keeps its whole ask and the pin is added",
trade(_t0, 1)[1] == -2700.0 and trade(_t0, 1)[2].probe_w == PW)
check("the window closed after decide() (its last cycle): the probe's PROBE_W "
"leaves the ask, so no battery is handed it",
trade(_t_two, 0)[1] == -2500.0
and trade(_t_alone, 0) == (False, None, trade(_t_alone, 0)[2])
and trade(_t_alone, 0)[2].action is None)
check("pin and ask agree: nothing changes",
trade(_t_two, 1)[1] == -2700.0 and trade(_t_alone, 1)[1] == -PW
and trade(_t0, 0)[1] == -2500.0)
# ============================================================================ #
print("\n3. the real Controller: B refuses and is probed")
def charge(r):
return -sum(min(0.0, v) for v in r["shares"].values())
def window_checks(rows, label):
"""Per probe window: A as just before, B at PROBE_W (or 0 when nothing is
traded), the charge up by at most PROBE_W."""
win = sc.windows(rows)
ok_a = ok_b = ok_sum = ok_grid = True
for i, j in win:
pre = rows[i - 1]
lo, hi = max(0, i - 3), min(len(rows) - 1, j + 3)
ext = rows[lo:hi + 1]
base_sum = sum(min(0.0, v) for v in pre["shares"].values())
ok_a &= all(abs(r["shares"].get(A, 0.0) - pre["shares"].get(A, 0.0))
< 1e-6 for r in ext)
bs = [r["shares"].get(B, 0.0) for r in ext]
if any(r["action"] for r in rows[i:j + 1]):
ok_b &= set(bs) <= {0.0, -PW} and bs.count(-PW) >= 20
else: # a drain comes first: the window trades nothing
ok_b &= set(bs) == {0.0}
ok_sum &= all(charge(r) <= charge(pre) + PW + 1e-6 for r in ext)
ok_grid &= max(r["grid"] for r in ext) <= pre["grid"] + PW + 50.0
n_ch = sum(1 for r in rows if r["probing"] and r["action"])
print(f" {label}: {len(win)} window(s), {n_ch} probing cycles with a "
f"trade, highest grid "
f"{max(r['grid'] for r in rows):.0f} W")
return win, ok_a, ok_b, ok_sum, ok_grid
SCEN = {
"(a) A in its maintenance charge phase": (
sc.day(sc.SF_CH, a_maint=sc.MAINT_CHARGE), "same"),
"(a') ...with the charge shaped to 0 W": (
sc.day(sc.SF_CH, a_maint=sc.MAINT_CHARGE, shaped=True), "same"),
"(b) A idle at 0 W (Solar first, the sun covers the house)": (
sc.day(sc.SF_CH, house_w=-10.0), "same"),
"(c) A a normal charger in the same run": (sc.day(sc.CH_CH), "same"),
"(g7) the OPT-15 rig: drain, then maintenance charge at 0 W": (
sc.g7(), "same"),
# Not the fix's: A gives the house, and a charge ask means no other
# battery gives (OPT-11 owner answer 3), so A rests, as on bf9019e.
"(b2) A gives 800 W to the house": (sc.day(sc.SF_CH), "rests"),
}
for _name, (_rows, _kind) in SCEN.items():
win, ok_a, ok_b, ok_sum, ok_grid = window_checks(_rows, _name)
check(f"{_name}: a probe happens (non-vacuous)", len(win) >= 1)
if _kind == "same":
check(f"{_name}: A's command is the same through each window, first "
"and last cycle included", ok_a)
check(f"{_name}: the grid rises by PROBE_W at most (plus 50 W of "
"noise)", ok_grid)
else:
check(f"{_name}: A stops giving for the window (the one-sign rule, "
"as on bf9019e), charges nothing and gives back after it",
all(r["shares"].get(A, 0.0) == 0.0 for i, j in win
for r in _rows[i + 1:j]) and all(
_rows[j + 4]["shares"].get(A, 0.0) > 0.0 for i, j in win))
check(f"{_name}: B gets PROBE_W and nothing else", ok_b)
check(f"{_name}: the commanded charge rises by PROBE_W at most", ok_sum)
# The g7 sequence in detail: the probe after the drain.
_g7 = SCEN["(g7) the OPT-15 rig: drain, then maintenance charge at 0 W"][0]
_w7 = sc.windows(_g7)
_after = [w for w in _w7 if _g7[w[0]]["now"] > sc.at(18.3, sc.GUTC0)]
_peak7 = max(r["grid"] for r in _g7 if r["now"] > sc.at(18.3, sc.GUTC0))
print(f" g7: probes after the drain at "
f"{[_g7[w[0]]['now'].astimezone(sc.L).strftime('%H:%M:%S') for w in _after]}"
f", grid after the drain at most {_peak7:.0f} W (TEST-23: 3100 W)")
check("g7: the probe after A's drain asks B for 200 W with A at 0 W "
"(TEST-23: -2300 W on A, the grid at 3100 W)",
_after and all(
abs(r["shares"].get(A, 0.0)) < 1e-6 for i, j in _after
for r in _g7[i:j + 4]) and _peak7 <= 800.0 + PW + 50.0)
check("g7: during the drain no probe trades (a drain comes first)",
all(r["action"] is None for r in _g7
if sc.at(18.0, sc.GUTC0) <= r["now"] < sc.at(18.28, sc.GUTC0)))
_acts = [r["reason"] for i, j in _after for r in _g7[i:j + 1]
if r["action"]]
check("g7: the action log's trade line names the probe's watts, 200 W",
_acts and all(f"{PW:.0f} W on {B}" in a for a in _acts))
check("no opposite-direction split on any of these cycles",
not [r for _r, _ in SCEN.values() for r in _r
if any(v > 0 for k, v in r["shares"].items() if r["action"])
and any(v < 0 for v in r["shares"].values())])
# ============================================================================ #
print("\n4. battery modes on, no probe: byte-identical to release/1.0 bf9019e")
# Printed by tools/opt20_scen.py on release/1.0 bf9019e (2026-10-15),
# goodwe-addon-checks:1.
AT_BASE = {
"sf_ch": "422d6578a7decf1ae3749edd1898ff3cd0541d904c95f636cdd9b1de8c1a07c9",
"ch_ch": "15fc25dd34186e56d34b752d37c9e8613295ba737938c92454acca08c83080fb",
"ch_ch_maint":
"e46e3c666dd63ab33b56e83c0a560c07cec7774a9a70560f55c62a6ae6f55920",
}
_got = sc.no_probe_digests()
for _k in AT_BASE:
print(f" {_k} {'same' if _got[_k] == AT_BASE[_k] else 'DIFFERS'} "
f"{_got[_k][:16]}")
check("with no refusal every share, grid, trade sentence, role and plant "
"power of a scripted cheap run equals bf9019e's (A Solar first, A "
"charging, A in maintenance charge)", _got == AT_BASE)
print()
if fails:
print(f"{len(fails)} FAILED:")
for f in fails:
print(f" - {f}")
sys.exit(1)
print("all checks passed")
+375
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"""SAFETY-118: the peak forecast is read in its own unit. `python3 -B test_safety118.py`
`peak_forecast_entity` used to be read as a bare number and anything under 50
was multiplied by 1000, so a W sensor reading 17 W was taken as 17 kW. It is
now read through `pv.watts()` by its own `unit_of_measurement`. No unit, or a
unit that is not power: the forecast is not used, as if the option were empty.
1. The reader through the real `read_inputs()`: W, kW, MW, no unit, kWh, bad state.
2. The warning: once, again only when the cause changes, never every cycle.
3. One state read per cycle, as before.
4. The maintenance charge headroom and the charge-only clamp act on the
converted value (real `cycle()`).
5. The validator, the status row and the strings.
Mutating a module this file grades? Read MUTATION.md first (purge __pycache__).
"""
import asyncio
import logging
from pathlib import Path
from app import main as _main
from app import messages, pv, validate
from app.main import Controller
fails = []
def check(name, cond):
print(f" {'ok ' if cond else 'FAIL'} {name}")
if not cond:
fails.append(name)
def st(value, unit=None):
attrs = {} if unit is None else {"unit_of_measurement": unit}
return {"state": str(value), "attributes": attrs}
class _Store:
def __init__(self, data=None):
self.data = dict(data or {})
def set(self, k, v):
self.data[k] = v
def get_time(self, *a):
return None
def set_time(self, *a):
pass
class _Pub:
enabled = False
def publish(self, *a, **k):
pass
def close(self):
pass
class _Hass:
def __init__(self, fc=None, prices=None):
self.fc = fc
self.prices = prices or {}
self.reads = []
self.writes = []
async def limits(self, entity):
return (-5000.0, 5000.0, 1.0)
async def state(self, entity):
self.reads.append(entity)
if entity == "sensor.fc":
return self.fc
v = {"sensor.grid": 0.0, "sensor.soc": 50.0, "sensor.batt": 0.0,
**self.prices}.get(entity)
return None if v is None else st(v, "W")
async def number(self, entity, invert=False):
obj = await self.state(entity)
try:
return float(obj["state"]) if obj else None
except ValueError:
return None
async def set_number(self, entity, value):
self.writes.append(float(value))
return True
async def call(self, domain, service, data):
return True
OPTS = {"setpoint_entity": "number.sp", "meter_entity": "sensor.grid",
"soc_entity": "sensor.soc", "batt_entity": "sensor.batt",
"meter_source": "off", "heartbeat_s": 10, "stale_input_s": 15,
"max_w": 5000.0, "gain": 0.6, "slew_w": 400.0, "deadband_w": 15,
"step_w": 10, "target_grid_w": -10.0, "stale_input_s": 15,
"peak_cap_w": 5000, "peak_margin_w": 0,
"peak_forecast_entity": "sensor.fc"}
class _Rec(logging.Handler):
def __init__(self):
super().__init__(logging.DEBUG)
self.rows = []
def emit(self, r):
self.rows.append((r.levelno, r.getMessage()))
def make(fc, store=None, prices=None, **over):
hass = _Hass(fc, prices)
c = Controller(dict(OPTS, **over), hass, _Store(store), _Pub(),
stop=asyncio.Event())
c.auto, c.dev_min, c.dev_max = True, -5000.0, 5000.0
return c, hass
def reads(c):
asyncio.run(c.read_inputs())
return c.peak_fc
def peak_of(state):
c, _h = make(state)
return reads(c)
print("1. the reader")
CASES = [("W 17", st(17, "W"), 17.0), ("W 820", st(820, "W"), 820.0),
("kW 0.82", st(0.82, "kW"), 820.0), ("kW 0.017", st(0.017, "kW"), 17.0),
("MW 0.0008", st(0.0008, "MW"), 800.0), ("W 49", st(49, "W"), 49.0),
("W 50", st(50, "W"), 50.0), ("kW 30", st(30, "kW"), 30000.0),
("W 0", st(0, "W"), 0.0)]
for label, s, want in CASES:
got = peak_of(s)
check(f"{label} -> {want} W (got {got})",
got is not None and abs(got - want) < 1e-6)
for label, s in [("no unit", st(820)), ("empty unit", st(820, "")),
("kWh", st(820, "kWh")), ("percent", st(20, "%")),
("unavailable", st("unavailable", "W")),
("unknown", st("unknown", "W")), ("missing entity", None),
("not a number", st("sunny", "W"))]:
check(f"{label} -> None (got {peak_of(s)})", peak_of(s) is None)
c, _h = make(st(820, "W"), peak_forecast_entity="")
check("option empty -> None and the entity is never read",
reads(c) is None and "sensor.fc" not in _h.reads)
print("2. the warning")
rec = _Rec()
lg = logging.getLogger("goodwe")
lg.addHandler(rec)
lg.setLevel(logging.DEBUG)
def warns():
return [m for lv, m in rec.rows if lv >= logging.WARNING]
c, h = make(st(820, "kWh"))
for _ in range(5):
reads(c)
check(f"kWh: five cycles, one WARNING ({warns()})", len(warns()) == 1)
check("...short, plain, and says it is not used",
warns()[0] == "The 15-minute demand forecast is not in a power unit, so "
"it is not used." and len(warns()[0].split()) <= 25)
h.fc = st(820, "MWh")
reads(c)
check("the same cause with another unit warns again (the cause changed)",
len(warns()) == 2)
h.fc = st(820)
reads(c)
check("no unit is a different cause and warns", len(warns()) == 3
and "has no unit" in warns()[2])
reads(c)
check("...and only once", len(warns()) == 3)
USED = (logging.INFO, "The 15-minute demand forecast is used again.")
def used():
return [r for r in rec.rows if r == USED]
h.fc = st("unavailable")
reads(c)
check("unavailable adds no warning and no 'used again'",
len(warns()) == 3 and not used())
h.fc = st(820, "W")
reads(c)
check("a good unit is read again: one INFO, no new warning",
c.peak_fc == 820.0 and len(warns()) == 3 and len(used()) == 1
and rec.rows[-1] == USED)
n = len(warns())
for s in (st(820, "W"), st(0.8, "kW")):
h.fc = s
reads(c)
check("W and kW never warn", len(warns()) == n)
rows = [r for r in c.checks() if r.get("id") == "peak_forecast"]
check("a good forecast has no peak_forecast row", not rows)
h.fc = st(820, "kWh")
reads(c)
rows = [r for r in c.checks() if r.get("id") == "peak_forecast"]
check("the status page carries a caution row for the unit fault",
len(rows) == 1 and rows[0]["warn"] and not rows[0]["ok"]
and rows[0]["text"] == messages.row_peak_forecast_unit("kWh"))
lg.removeHandler(rec)
print("3. one state read per cycle")
c, h = make(st(0.82, "kW"))
reads(c)
check(f"one read of the forecast entity per read_inputs() ({h.reads})",
h.reads.count("sensor.fc") == 1)
print("4. maintenance headroom and the charge-only clamp use watts")
seen = []
_real = _main.maintenance_charge_floor
def spy(charge_w, fc, cap):
out = _real(charge_w, fc, cap)
seen.append((charge_w, fc, cap, out))
return out
_main.maintenance_charge_floor = spy
try:
def cycle(fc, **kw):
c, h = make(fc, store={"phase": "charge"},
prices={"sensor.pnow": 1.0, "sensor.pavg": 2.0},
price_now_entity="sensor.pnow",
price_avg_entity="sensor.pavg", **kw)
seen.clear()
asyncio.run(c.read_inputs())
asyncio.run(c.cycle())
return c, h
# cap 2500 W, charge rate 2000 W: 820 W of forecast leaves 1680 W, 17 W
# leaves the whole 2000 W (the size rule read 17 as 17 kW and left 0).
c, h = cycle(st(0.82, "kW"), peak_cap_w=2500)
check(f"cheap-window headroom is cap - 820 W = 1680 W ({seen})",
len(seen) == 1 and seen[0][1] == 820.0 and seen[0][0] == 2000.0
and abs(seen[0][3] - 1680.0) < 1e-6)
c, h = cycle(st(17, "W"), peak_cap_w=2500)
check(f"a 17 W forecast leaves the full 2000 W charge rate ({seen})",
len(seen) == 1 and seen[0][1] == 17.0 and abs(seen[0][3] - 2000.0) < 1e-6)
# charge-only clamp: not cheap, shaping suspended only if the forecast is
# over the aim. 6 kW is over 5000 W; 17 W is not (the old rule read it
# as 17 kW and suspended).
def clamp(fc):
c, h = make(fc, store={"phase": "charge"})
asyncio.run(c.read_inputs())
asyncio.run(c.cycle())
return c._maint_shape_suspended
check("kW 6.0 (6000 W, over the 5000 W aim) suspends the charge-only clamp",
clamp(st(6.0, "kW")) is True)
check("W 17 leaves the charge-only clamp in place",
clamp(st(17, "W")) is False)
check("kW 0.017 leaves the charge-only clamp in place",
clamp(st(0.017, "kW")) is False)
check("no unit: forecast unused, clamp in place, as with the option empty",
clamp(st(6000)) is False)
finally:
_main.maintenance_charge_floor = _real
print("5. validator and strings")
def notes(unit, key="peak_forecast_entity"):
ent = {"sensor.fc": {"entity_id": "sensor.fc", "unit": unit,
"state": "1"}}
return [n for n in validate.config_notes(
{key: "sensor.fc", "meter_source": "off"}, entities=ent)
if key in n.keys]
check("validator: W no note", not notes("W"))
check("validator: kW no note", not notes("kW"))
check("validator: MW no note", not notes("MW"))
nu, kw = notes(""), notes("kWh")
check(f"validator: no unit warns ({nu})", len(nu) == 1 and nu[0].tier == "warn"
and "has no unit" in nu[0].text)
check(f"validator: kWh warns ({kw})", len(kw) == 1 and kw[0].tier == "warn"
and "not in a power unit" in kw[0].text)
check("validator: the false 'taken as watts' claim is gone for this entity",
not any("taken as watts" in n.text for n in nu + kw + notes("kW")))
check("validator: another watt key keeps its claim",
len(notes("kW", "batt_entity")) == 1
and "taken as watts" in notes("kW", "batt_entity")[0].text)
check("WATT_ENTITY_KEYS no longer holds the peak forecast",
"peak_forecast_entity" not in validate.WATT_ENTITY_KEYS
and "batt_entity" in validate.WATT_ENTITY_KEYS)
print(" EN no unit :", messages.peak_forecast_unit(""))
print(" EN bad unit:", messages.peak_forecast_unit("kWh"))
print(" NL no unit :", messages.peak_forecast_unit("", "nl"))
print(" NL bad unit:", messages.peak_forecast_unit("kWh", "nl"))
check("the strings differ by cause and by language",
len({messages.peak_forecast_unit(u, l) for u in ("", "kWh")
for l in ("en", "nl")}) == 4)
print("6. a missing reading leaves the unit fault as it was (F1)")
lg.addHandler(rec)
def prow(c):
return [r for r in c.checks() if r.get("id") == "peak_forecast"]
def flap(first, gap, last):
"""first, gap, first again (or last): the log rows and the status row
after each cycle."""
rec.rows.clear()
c, h = make(first)
out = []
for s in (first, gap, last):
h.fc = s
reads(c)
out.append((len(warns()), len(used()), len(prow(c)), c.peak_fc))
return out
for label, first, gap in [
("kWh -> unavailable -> kWh", st(820, "kWh"), st("unavailable", "kWh")),
("kWh -> unknown -> kWh", st(820, "kWh"), st("unknown", "kWh")),
("kWh -> failed read -> kWh", st(820, "kWh"), None),
("kWh -> non-numeric -> kWh", st(820, "kWh"), st("sunny", "kWh")),
("no unit -> failed read -> no unit", st(820), None),
("no unit -> unavailable -> no unit", st(820), st("unavailable"))]:
r = flap(first, gap, first)
check(f"{label}: one WARNING, no 'used again', row on all 3 ({r})",
[x[0] for x in r] == [1, 1, 1] and [x[1] for x in r] == [0, 0, 0]
and [x[2] for x in r] == [1, 1, 1]
and [x[3] for x in r] == [None, None, None])
r = flap(st(820, "kWh"), st("unavailable", "kWh"), st(820, "W"))
check(f"kWh -> unavailable -> W: the fault clears only on the W reading ({r})",
[x[1] for x in r] == [0, 0, 1] and [x[2] for x in r] == [1, 1, 0]
and [x[0] for x in r] == [1, 1, 1] and r[2][3] == 820.0)
rec.rows.clear()
c, h = make(st(820, "W"))
for s in (st(820, "W"), st("unavailable", "W"), None, st("sunny", "W")):
h.fc = s
reads(c)
check(f"good unit, reading {s and s['state']!r}: no row, no log",
not prow(c) and not warns() and not used())
rec.rows.clear()
c, h = make(st(820, "kWh"))
reads(c)
for s in (st("unavailable", "kWh"), None):
h.fc = s
reads(c)
check("fault row stays while the reading is missing",
len(prow(c)) == 1 and prow(c)[0]["text"]
== messages.row_peak_forecast_unit("kWh"))
c, h = make(st(820, "W"))
h.fc = st("unavailable", "W")
reads(c)
check("good-unit sensor only unavailable: the fault row stays away",
not prow(c))
lg.removeHandler(rec)
check("has_reading: numbers only",
pv.has_reading(st(0, "kWh")) and pv.has_reading(st("1.5"))
and not pv.has_reading(None) and not pv.has_reading(st("unavailable"))
and not pv.has_reading(st("unknown")) and not pv.has_reading(st("x")))
check("pv.unit_fault: None for a good unit and for a missing reading (has_reading tells them apart)",
pv.unit_fault(st(1, "kW")) is None and pv.unit_fault(None) is None
and pv.unit_fault(st("unavailable")) is None
and pv.unit_fault(st(1)) == "" and pv.unit_fault(st(1, "kWh")) == "kWh")
src = (Path(__file__).parent / "app" / "main.py").read_text(encoding="utf-8")
check("the size rule is gone from main.py", "abs(raw) < 50" not in src)
print()
print("FAILED: " + "; ".join(fails) if fails else "all checks passed")
raise SystemExit(1 if fails else 0)
+667
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"""Runnable check for SAFETY-119: no "Battery is not keeping up" when the
loop takes the wire back from another owner. `python3 test_safety119.py`
During a maintenance charge with no usable peak forecast, the measured peak
guard steps in during a quarter's last seconds and hands back. On the cycle
the loop gets the wire back, its integrator is re-seeded from the other
owner's command and kicked by a meter reading taken before the battery moved.
It crossed its rail for one or two cycles, the loop's ask beat the one-sided
limit, so the cycle counted as the loop's own and raised
`goodwe_integrator_bound`. The battery gave what it was told. Now the loop's
bound does not count until the plant's settle (SHORT_CYCLES cycles and
SHORT_SPAN_S) has passed since the hand-back. Round 3: across all
hand-backs the bound is hidden on at most ROLLING_BUDGET[cycle length] cycles
(10 up to a 3.5 s cycle, 8 up to 11 s, 6 up to 16 s, 4 beyond) in any
ROLLING_S seconds, so a bound that stays warns when the guard and the charge
keep taking turns. DECISIONS/SAFETY-119-bound-after-hand-back.md.
1. The rig's shape (1 s meter that lags the battery, 1 s battery lag, house
800 W, rating 2500 W, limit 2500 W, margin 50, charge 2000 W, no
forecast), 2 h, three seeds: no notification, the cap held, every command
the same as without the fix; without the fix it warns.
2. A genuine integrator bound still warns: the loop in charge with the house
over the rating (at once, as before), and the loop at its rail after a
hand-back (after the settle).
3. With a usable forecast: the same commands and the same alarms as without
the fix.
4. Repeated hand-backs (N=2, the guard and the charge take turns), 2, 5, 10
and 15 s meters: it warns (every quarter at 2, 5 and 10 s, every other
quarter at least at 15 s); the quarter-edge case stays silent at 2, 5, 10
and 15 s, including the 2 s seed where a fixed budget of 8 warns; a start
or a blind cycle is not a hand-back; a slow meter delays by cycles.
5. The rule at its boundaries (`Controller._settling`): the settle, and the
rolling budget.
6. test_safety84's and test_safety87's re-pinned digests: the same commands
and claims; only OUTPUT_CLAMP log rows differ.
Mutations (MUTATION.md, purged copies) are listed in the pull request.
"""
import logging
import math
import os
import random
import sys
import time
from datetime import timedelta
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
sys.path.insert(0, os.path.join(HERE, "tools"))
logging.disable(logging.WARNING)
import opt11_identity as rig # noqa: E402
import safety79_identity as s79 # noqa: E402
import safety84_identity as s84 # noqa: E402
import app.main as app_main # noqa: E402
from app import messages # noqa: E402
from app.main import Controller # noqa: E402
from app.p1 import make_sample, split_signed # noqa: E402
from named_absence import first, nth, present # noqa: E402
fails = []
OPT0 = dict(s84.OPT)
CAP = 2500.0
QUARTER = 900.0
def check(name, cond):
print(f" {'ok ' if cond else 'FAIL'} {name}")
if not cond:
fails.append(name)
async def _call(self, *a):
"""The rig's Home Assistant, recording each notification (time, id)."""
if len(a) >= 3 and a[1] == "create" and isinstance(a[2], dict):
self.__dict__.setdefault("notes", []).append(
(self.t, a[2].get("notification_id")))
return True
def _power(self, u, lag=1.0):
"""The TEST-23 plant's battery: 800 W/s ramp, 1 s first-order lag."""
st = self.__dict__.setdefault("_plant", {})
a, tgt, tl = st.get(u, (0.0, 0.0, self.t))
for _ in range(int(round((self.t - tl) / 0.1))):
d = self.cmd[u] - tgt
tgt += math.copysign(min(abs(d), 80.0), d)
a += (tgt - a) * (1 - math.exp(-0.1 / lag))
st[u] = (a, tgt, self.t)
if self.cut(u, self.t) and self.cmd[u] >= -4.0:
return -4.0
return float(round(a))
_real_number, _real_power = rig._Hass.number, rig._Hass.power
_real_feed = s79._feed
async def _number(self, e, invert=False):
"""sensor.fc: a usable demand forecast of 800 W (part 3)."""
if e == "sensor.fc":
return 800.0
return await _real_number(self, e, invert)
rig._Hass.call, rig._Hass.power, rig._Hass.number = _call, _power, _number
rig.TICK = 1.0
DELAY = [1]
def _feed(c, t):
"""The P1 meter `DELAY` ticks behind the battery, as on the rig (the
meter reached HA after the battery reading). Records the true grid."""
h = c.hass.__dict__.setdefault("grid_true", [])
h.append((t, c.hass.grid()))
g = h[max(0, len(h) - 1 - DELAY[0])][1]
imp, exp = split_signed(g)
c.p1.submit(make_sample("ha_signed", imp, exp, phases=1,
ingest_ts=rig.BASE + timedelta(seconds=t),
ingest_mono=time.monotonic()))
s79._feed = _feed
def house(seed, base=800.0, step=None):
"""800 W +- 30 W, a new value each second; `step` = (t, W) from then."""
rnd = random.Random(seed)
noise = [rnd.uniform(-30.0, 30.0) for _ in range(4000)]
def load(t):
if step is not None and t >= step[0]:
return step[1]
return base + noise[int(t) % 4000]
return load
def run(load, *, n=1, dur=7200.0, delay=1, extra=None, cheap=True, cut=None,
charging=True, blind=0.0):
"""One run of `n` inverters of 2500 W; `charging=False`: no maintenance,
the loop in charge; `blind`: no meter reading until that second."""
extra = dict(extra or {})
s84.OPT = dict(OPT0, peak_cap_w=int(CAP * n), peak_margin_w=50,
maintenance_charge_w=2000)
if not charging:
extra.update(maintenance_enabled=False, peak_cap_w=20000)
for k in [k for k in extra if k in s84.OPT]:
s84.OPT[k] = extra.pop(k)
DELAY[0] = delay
try:
feed = s84.feed(cheap)
def before(c, t):
if t >= blind: # before that: no meter reading
return feed(c, t)
return s84.run(n, load=load, cheap=cheap,
store=(s79.store_charging(n) if charging
else rig._Store()),
soc=lambda u, t: 60.0, dur=dur, cut=cut,
before=before if blind else None,
extra=dict({"max_w": 2500, "slew_w": 0}, **extra))
finally:
s84.OPT = OPT0
def patched(obj, name, value):
def wrap(fn):
real = getattr(obj, name)
setattr(obj, name, value)
try:
return fn()
finally:
setattr(obj, name, real)
return wrap
no_fix = patched(Controller, "_settling", lambda self, owns, now: False)
def notes(c):
return [t for t, i in getattr(c.hass, "notes", [])
if i == messages.ID_LOOP_BOUND]
def quarters(c, tick=1.0):
"""Each whole quarter's true average import (W)."""
q = {}
for t, g in c.hass.grid_true:
q.setdefault(int(t // QUARTER), []).append(g)
return [sum(v) / len(v) for v in q.values()
if len(v) == QUARTER / tick]
def commands(rows):
return [(r[0], r[1], r[2]) for r in rows]
def guard_steps(c):
return sum(1 for e in c.events if "PEAK_GUARD:" in e)
# ============================================================================ #
print("1. a maintenance charge with no forecast, the guard steps in at each "
"quarter's end, 2 h")
NEW, OLD = {}, {}
for seed, delay in ((1, 1), (2, 1), (3, 2)):
NEW[seed] = run(house(seed), delay=delay)
OLD[seed] = no_fix(lambda: run(house(seed), delay=delay))
print(f" seed {seed} meter {delay} s behind: notifications "
f"{notes(NEW[seed][1])} (without the fix {notes(OLD[seed][1])}), "
f"highest quarter {max(quarters(NEW[seed][1])):.0f} W, guard "
f"step-ins in the last 40 log rows {guard_steps(NEW[seed][1])}")
check("⭐ no 'Battery is not keeping up' notification, cycle or episode",
all(notes(c) == [] and c.clamp_wd.bound == 0
and c.clamp_wd.bound_episodes == 0 for _r, c in NEW.values()))
check("⭐ the peak cap is held: every quarter's average is under 2500 W",
all(len(quarters(c)) == 8 and max(quarters(c)) < CAP
for _r, c in NEW.values()))
check("⭐ control is unchanged: every command the same as without the fix",
all(commands(NEW[k][0]) == commands(OLD[k][0]) for k in NEW))
check("...the charge ran and the guard stepped in near each quarter's end",
all(any(r[1] == -2000.0 for r in rows) and any(
r[-1][1] and r[-1][1][0] and r[0] % QUARTER >= QUARTER - 40
for r in rows) for rows, _c in NEW.values()))
check("non-vacuous: without the fix every run warns, at a quarter's edge",
all(len(notes(c)) >= 1 for _r, c in OLD.values())
and all(min(t % QUARTER, QUARTER - t % QUARTER) <= 40
for _r, c in OLD.values() for t in notes(c)))
# ============================================================================ #
print("\n2. a genuine integrator bound still warns")
_rail = run(house(1, base=4000.0), dur=600.0,
charging=False)
_rail_old = no_fix(lambda: run(house(1, base=4000.0), dur=600.0,
charging=False))
print(f" loop in charge, house 4000 W over the 2500 W rating: "
f"{notes(_rail[1])}, without the fix {notes(_rail_old[1])}")
check("⭐ the loop in charge at its rail warns (log and notification), at "
"the same cycle as before",
len(notes(_rail[1])) >= 1 and notes(_rail[1]) == notes(_rail_old[1])
and _rail[1].clamp_wd.bound == _rail_old[1].clamp_wd.bound
and any("OUTPUT_CLAMP episode" in e for e in _rail[1].events))
# The charge sets the wire until 600 s, then a solar surplus of 6000 W: the
# loop takes the wire back and stands at its -2500 W rail.
_hb = run(house(1, step=(600.0, -6000.0)), dur=1200.0,
extra={"peak_cap_w": 20000})
_hb_old = no_fix(lambda: run(house(1, step=(600.0, -6000.0)), dur=1200.0,
extra={"peak_cap_w": 20000}))
_first = notes(_hb[1])[:1]
print(f" hand-back to a loop at its rail at 600 s: first notification "
f"{_first}, without the fix {notes(_hb_old[1])[:1]}; command at the "
f"end {_hb[0][-1][1]}")
MB = 10 # the budget at a 1 s cycle
check(f"⭐ the loop at its rail after a hand-back still warns, once "
f"{MB} of its bound cycles are hidden (1 s meter: {MB} s)",
_first and 600.0 + MB <= _first[0] <= 600.0 + MB + 4.0
and _hb[0][-1][1] == -2500.0
and _hb[1].clamp_wd.bound > 100)
check("...without the fix it warned at once (non-vacuous)",
notes(_hb_old[1])[:1] and notes(_hb_old[1])[0] < 600.0 + MB)
# The same charge with no forecast; at 1795 s, under the guard's step-in at
# the quarter's end, the house goes to 4000 W, over the 2500 W rating.
_up = run(house(1, step=(1795.0, 4000.0)), dur=1900.0)
_up_old = no_fix(lambda: run(house(1, step=(1795.0, 4000.0)), dur=1900.0))
print(f" guard step-in, then the house over the rating from 1795 s: "
f"{notes(_up[1])}, without the fix {notes(_up_old[1])}")
check("⭐ a genuine bound in the rig's own scenario still warns, within the "
"settle of the guard's hand-back",
notes(_up[1]) and 1795.0 <= notes(_up[1])[0] <= 1795.0 + 40.0
and any("OUTPUT_CLAMP episode" in e for e in _up[1].events))
# ============================================================================ #
print("\n3. with a usable forecast (800 W): unchanged")
FC = {"peak_forecast_entity": "sensor.fc"}
_fc = run(house(1), extra=FC)
_fc_old = no_fix(lambda: run(house(1), extra=FC))
print(f" notifications {notes(_fc[1])} (without the fix "
f"{notes(_fc_old[1])}), highest quarter "
f"{max(quarters(_fc[1])):.0f} W, charge "
f"{min(r[1] for r in _fc[0][:300]):.0f} W")
check("⭐ the same commands and the same alarms as without the fix, and "
"the cap held",
commands(_fc[0]) == commands(_fc_old[0])
and notes(_fc[1]) == notes(_fc_old[1])
and _fc[1].clamp_wd.engagements == _fc_old[1].clamp_wd.engagements
and max(quarters(_fc[1])) < CAP)
check("...the forecast was used (the charge is shaped under -2000 W)",
-2000.0 < min(r[1] for r in _fc[0][:300]) < 0.0)
# ============================================================================ #
print("\n4. repeated hand-backs: the guard and the charge take turns")
def round1(self, owns, now):
"""Round 1's rule, kept here to show what it hid: every hand-back
restarts the window, so a loss within the settle never lets it end."""
d = self.__dict__
if not owns:
d["_r1"], d["_r1_n"] = True, None
return False
if d.get("_r1"):
d["_r1"], d["_r1_n"] = False, (now, 0)
if d.get("_r1_n") is None:
return False
t0, n = d["_r1_n"]
d["_r1_n"] = (t0, n + 1)
if n + 1 >= app_main.SHORT_CYCLES and (
now is None or t0 is None or now - t0 >= app_main.SHORT_SPAN_S):
d["_r1_n"] = None
return False
return True
# N=2 (2 x 2500 W), a cheap-window charge, no usable forecast, the house 50 W
# over the 5000 W rating from 300 s: the loop never held the wire for more
# than 10 cycles. Round 1: no notification in 2 h; round 2: none at 10 s or
# 15 s meters.
def never(tick, hw=5050.0, fix=True):
rig.TICK = tick
try:
f = lambda: run(house(1, step=(300.0, hw)), n=2)
return f() if fix else no_fix(f)
finally:
rig.TICK = 1.0
def per_quarter(c):
return [sum(1 for t in notes(c) if int(t // QUARTER) == q)
for q in range(8)]
_nv = {t: never(t) for t in (2.0, 5.0, 10.0, 15.0)}
_nv_old = {t: never(t, fix=False) for t in (2.0, 5.0, 10.0, 15.0)}
_nv_r1 = patched(Controller, "_settling", round1)(lambda: never(5.0))
for _t in _nv:
print(f" N=2, {_t:.0f} s meter, house 5050 W: notifications "
f"{len(notes(_nv[_t][1]))} (per quarter "
f"{per_quarter(_nv[_t][1])}), without the fix "
f"{len(notes(_nv_old[_t][1]))}, highest quarter "
f"{max(quarters(_nv[_t][1], _t)):.0f} W")
print(f" round 1's rule at 5 s: {len(notes(_nv_r1[1]))}")
check("⭐ 2 s and 5 s meters: it warns in every quarter after the first",
all(per_quarter(_nv[t][1])[q] >= 1 for q in range(1, 8)
for t in (2.0, 5.0)))
check("⭐ 10 s meter: it warns in every quarter after the first (round 2 "
"gave none)",
all(per_quarter(_nv[10.0][1])[q] >= 1 for q in range(1, 8)))
check("⭐ 15 s meter: it warns at least every other quarter after the first "
"(round 2 gave none)",
not any(a == 0 and b == 0 for a, b in zip(
per_quarter(_nv[15.0][1])[1:], per_quarter(_nv[15.0][1])[2:])))
check("non-vacuous: round 1's rule (a window per hand-back) never warned "
"here, and the fix still hides some of what was raised without it",
notes(_nv_r1[1]) == [] and all(
_nv[t][1].clamp_wd.bound < _nv_old[t][1].clamp_wd.bound
for t in _nv))
check("...every command is the same as without the fix, at 2, 5, 10 and "
"15 s",
all(commands(_nv[t][0]) == commands(_nv_old[t][0]) for t in _nv))
check("...and at 5 s the cap held",
len(quarters(_nv[5.0][1], 5.0)) == 8
and max(quarters(_nv[5.0][1], 5.0)) < 5000.0)
# The quarter-edge case (part 1) at the slower meters: still no warning.
# The meter's own lag limits the cap there, the same with and without the fix.
_qe = {}
# Seeds 1 to 3 are the brief's fixed set; 2 s seed 25 is the one where the
# sweep's fixed budget of 8 warned (DECISIONS), kept here so that stays seen.
for _t in (2.0, 5.0, 10.0, 15.0): # with part 1: 1, 2, 5, 10, 15 s
rig.TICK = _t
for _seed, _dl in ((1, 1), (2, 1), (3, 2)) + (
((25, 2),) if _t == 2.0 else ()):
_qe[_t, _seed] = (run(house(_seed), delay=_dl),
no_fix(lambda: run(house(_seed), delay=_dl)))
rig.TICK = 1.0
print(f" {_t:.0f} s meter, quarter edge: notifications "
f"{[len(notes(r[0][1])) for k, r in _qe.items() if k[0] == _t]} "
f"(without the fix "
f"{[len(notes(r[1][1])) for k, r in _qe.items() if k[0] == _t]})")
check("⭐ the quarter-edge case at 2, 5, 10 and 15 s meters, seeds 1 to 3 "
"and (2 s) 25: no notification",
all(notes(r[0][1]) == [] and r[0][1].clamp_wd.bound == 0
for r in _qe.values()))
check("...every command the same as without the fix; without it the false "
"alarm is there at each meter (non-vacuous)",
all(commands(r[0][0]) == commands(r[1][0]) for r in _qe.values())
and all(any(len(notes(_qe[_t, k][1][1])) >= 1 for k in (1, 2, 3))
for _t in (2.0, 5.0, 10.0, 15.0)))
rig.TICK = 2.0
_q25_8 = patched(app_main, "ROLLING_BUDGET", ((math.inf, 8),))(
lambda: run(house(25), delay=2))
rig.TICK = 1.0
print(f" 2 s meter, seed 25, a fixed budget of 8: notifications "
f"{notes(_q25_8[1])}")
check("...2 s seed 25 is the sweep's known case: a fixed budget of 8 warns "
"there (why the budget follows the cycle length)",
len(notes(_q25_8[1])) >= 1)
check("the budget is the one the sweep chose. Changing it means re-running "
"the sweep in DECISIONS/SAFETY-119-bound-after-hand-back.md",
app_main.ROLLING_BUDGET == ((3.5, 10), (11.0, 8), (16.0, 6),
(math.inf, 4))
and app_main.ROLLING_BOUND_CYCLES == 8 and app_main.ROLLING_S == 900.0)
# A start, or a blind cycle, is not a hand-back: the loop at its rail after
# 20 s of not running warns at once (R2: a restart counted as a hand-back).
_bl = run(house(1, base=4000.0), dur=120.0, charging=False, blind=20.0)
_bl_old = no_fix(lambda: run(house(1, base=4000.0), dur=120.0,
charging=False, blind=20.0))
print(f" the loop not running until 20 s, then at its rail: "
f"{notes(_bl[1])}, without the fix {notes(_bl_old[1])}")
check("⭐ a start after a blind spell is not a hand-back: it warns at the "
"same cycle as without the fix",
notes(_bl[1])[:1] and 20.0 <= notes(_bl[1])[0] <= 26.0
and notes(_bl[1]) == notes(_bl_old[1]))
# The budget is cycles, not seconds (R4): at a 5 s meter the loop at its
# rail after a hand-back warns 8 cycles (40 s) later, not 8 s.
MB = 8 # the budget at a 5 s cycle
rig.TICK = 5.0
_sl = run(house(1, step=(600.0, -6000.0)), dur=900.0,
extra={"peak_cap_w": 20000})
rig.TICK = 1.0
_sl1 = [t for t in notes(_sl[1]) if t >= 600.0][:1]
print(f" 5 s meter, hand-back to a loop at its rail at 600 s: first "
f"notification {_sl1}")
check(f"⭐ at a 5 s meter the budget is cycles, not seconds: the first "
f"warning comes {MB} cycles ({MB * 5} s) after the hand-back",
_sl1 and 600.0 + MB * 5.0 <= _sl1[0] <= 600.0 + MB * 5.0 + 10.0)
# ============================================================================ #
print("\n5. the rule at its boundaries")
class _C:
_settling = Controller._settling
def __init__(self):
self._wire_lost, self._handback, self._hidden = False, None, ()
self._settle_t, self._settle_dt = None, None
self.loop_clamped = (False, "", False)
def seq(c, steps):
"""(owned, time[, the loop's bound that cycle]) -> does it count not."""
out = []
for st in steps:
c.loop_clamped = (len(st) > 2 and st[2], "", False)
out.append(c._settling(st[0], st[1]))
return out
N, SPAN = app_main.SHORT_CYCLES, app_main.SHORT_SPAN_S
M, ROLL = 8, 900.0 # the chosen budget, written out on purpose
_c = _C()
check("from the start, owned every cycle: never settling (no hand-back)",
seq(_c, [(True, float(i)) for i in range(30)]) == [False] * 30)
_c = _C()
_out = seq(_c, [(False, 0.0)] + [(True, 2.0 * i) for i in range(1, N + 3)])
check(f"after another owner: settling for {N - 1} owned cycles, then not "
f"(12 cycles at 2 s span {SPAN:.0f} s)",
_out == [False] + [True] * (N - 1) + [False] * 3)
_c = _C()
_out = seq(_c, [(False, 0.0)] + [(True, 0.5 * i) for i in range(1, 60)])
_end = _out.index(False, 1) if False in _out[1:] else -1
check(f"at a 0.5 s meter the span decides: settling until {SPAN:.0f} s",
_end == 1 + int(SPAN / 0.5) and all(_out[1:_end]))
_c = _C()
_out = seq(_c, [(False, 0.0), (True, 2.0), (True, 4.0), (False, 6.0),
(True, 8.0), (True, 10.0)])
check("losing the wire again restarts the settle",
_out == [False, True, True, False, True, True]
and _c._handback == (8.0, 2))
_c = _C()
check("no monotonic clock: the cycle count alone decides",
seq(_c, [(False, None)] + [(True, None)] * (N + 1))
== [False] + [True] * (N - 1) + [False] * 2)
# The rolling budget: the loop's bound is hidden on at most M cycles in any
# ROLL seconds, across all hand-backs. T = the loop's bound that cycle.
assert M < N - 1, "the budget is meant to run out inside one settle"
def turns(c, tick, lost, periods, first=0.0, bound=True):
"""A hand-back, then `periods` x (1 owned cycle with the loop's bound,
`lost` cycles away). Returns [(time, hidden)] of the owned cycles."""
t, out = first, []
for _ in range(lost):
c._settling(False, t)
t += tick
for _ in range(periods):
c.loop_clamped = (bound, "", False)
out.append((t, c._settling(True, t)))
t += tick
for _ in range(lost):
c._settling(False, t)
t += tick
return out, t
_c = _C()
_o = seq(_c, [(False, 0.0)] + [(True, 5.0 * i, True) for i in range(1, N)])
check(f"one hand-back at 5 s, the bound on every cycle: {M} are hidden, "
f"then it counts for the rest of the settle ({N - 1} cycles)",
_o == [False] + [True] * M + [False] * (N - 1 - M))
_c = _C()
_o, _ = turns(_c, 5.0, 3, 60)
_hid = [t for t, h in _o if h]
check(f"across hand-backs (one bound cycle per turn, 5 s): the first {M} "
"are hidden, then every one counts",
[h for _t, h in _o[:M + 5]] == [True] * M + [False] * 5)
check(f"...never more than {M} hidden in any {ROLL:.0f} s, and they come "
f"back as the oldest ages out (exactly {M} in the first {ROLL:.0f} s "
"after the first)",
all(sum(1 for x in _hid if t <= x < t + ROLL) <= M for t in _hid)
and sum(1 for x in _hid if x < _hid[0] + ROLL) == M
and any(x >= _hid[0] + ROLL for x in _hid))
_c = _C()
_c._hidden = (0.0,) * M
_c._wire_lost, _c._handback = False, (ROLL - 30.0, 0)
_c.loop_clamped = (True, "", False)
_a = _c._settling(True, ROLL - 1.0)
_c.loop_clamped = (True, "", False)
_b = _c._settling(True, ROLL)
check(f"the budget refills {ROLL:.0f} s after the oldest hidden cycle: "
f"counted at {ROLL - 1:.0f} s, hidden again at {ROLL:.0f} s",
_a is False and _b is True)
_c = _C()
_o1, _t = turns(_c, 2.0, 3, 20)
for _ in range(N): # the wire away a whole settle
_c._settling(False, _t)
_t += 2.0
_o2, _ = turns(_c, 2.0, 3, 5, first=_t)
check("the budget is not per hand-back or per run: after a whole settle "
"with the wire away, a new hand-back within the same "
f"{ROLL:.0f} s hides nothing more",
[h for _t2, h in _o1[:M]] == [True] * M
and not any(h for _t2, h in _o2))
_c = _C()
_o1, _t = turns(_c, 2.0, 3, 20)
_ = [_c._settling(True, _t + 2.0 * i) for i in range(N + 1)]
_c._settling(False, _t + 40.0)
_c.loop_clamped = (True, "", False)
check("the loop holding the wire a whole settle ends the window: the next "
"hand-back hides nothing more while the budget is spent",
_c._settling(True, _t + 42.0) is False)
_c = _C()
_c._wire_lost = True
_t = 0.0
for _ in range(M + 4): # an over-rating: always counts
_c.loop_clamped = (True, "", True)
_c._settling(True, _t)
_c._wire_lost = True
_t += 5.0
_c._settling(False, _t)
_c.loop_clamped = (True, "", False)
check("an over-rating does not use up the budget",
_c._settling(True, _t + 5.0) is True and len(_c._hidden) == 1)
# The budget follows the cycle length: bound cycles hidden before the first
# one counts, one hand-back per turn.
_bud = {}
for _tick in (1.0, 2.0, 3.0, 5.0, 10.0, 15.0, 20.0, 30.0, 60.0):
_c = _C()
_o, _ = turns(_c, _tick, 1, min(14, int(880.0 // (2 * _tick))))
_bud[_tick] = sum(1 for _t2, h in _o if h)
print(f" hidden before the first counts, by cycle length: {_bud}")
check("the budget by cycle length: 10 at 1-3 s, 8 at 5-10 s, 6 at 15 s, 4 "
"at 20-60 s",
_bud == {1.0: 10, 2.0: 10, 3.0: 10, 5.0: 8, 10.0: 8, 15.0: 6,
20.0: 4, 30.0: 4, 60.0: 4})
_c = _C()
_o, _t = turns(_c, 2.0, 3, 8)
_o2, _ = turns(_c, 121.0, 1, 3, first=_t + 119.0)
check("a gap over two minutes is not a cycle length: the 2 s budget (10) "
"stays",
[h for _t2, h in _o + _o2] == [True] * 10 + [False])
# No monotonic clock: the budget cannot refill, so a bound that stays is
# counted after the budget however often the wire changes hands.
_c = _C()
_nc = []
for _ in range(40):
for _ in range(3):
_c._settling(False, None)
_c.loop_clamped = (True, "", False)
_nc.append(_c._settling(True, None))
check("no monotonic clock, repeated hand-backs: the budget holds (8 hidden, "
"then every bound counts)", _nc == [True] * M + [False] * (40 - M))
# An over-rating (a command over `max_w`) is a bug, never settled away.
_ctl = _hb[1]
_ctl.loop_clamped = (True, "x", True)
_ctl._wire_lost, _ctl._handback, _ctl._hidden = True, None, ()
class _Res:
winner, bound_by, target_w = "loop", "", 0.0
unit_bounds = {}
class _D:
held, target_w = False, 0.0
_ctl._loop_decision, _ctl.allocation = _D(), None
_ctl._loop_alarm_input(_Res())
check("an over-rating on a hand-back cycle still counts (bug=True kept)",
_ctl.loop_clamped == (True, "x", True) and _ctl._handback is not None)
_ctl.loop_clamped = (True, "y", False)
_ctl._loop_alarm_input(_Res())
check("...while the integrator bound on the next cycle is not counted",
_ctl.loop_clamped[0] is False)
_ctl._wire_lost, _ctl._handback = True, (1.0, 3)
_ctl._loop_decision = None # stopped or blind
_ctl._loop_alarm_input(_Res())
check("a stop clears it: the next start is not a hand-back, and the stop "
"is not a cycle length",
(_ctl._wire_lost, _ctl._handback, _ctl._settle_t)
== (False, None, None))
# ============================================================================ #
print("\n6. the pinned digests of test_safety84 and test_safety87: only the "
"log changes")
# Those harnesses run at the 5 s tick with a battery that follows at once.
rig._Hass.power, rig.TICK, s79._feed = _real_power, 5.0, _real_feed
rig._Hass.number = _real_number
import safety87_identity as s87 # noqa: E402
RUNS = dict({f"s84 {k}": (lambda v=v: s84.run(**v))
for k, v in s84.SCENARIOS.items()},
**{f"s87 {k}": (lambda v=v: s87_run(v))
for k, v in s87.SCENARIOS.items()})
def s87_run(v):
v = dict(v)
return s84.run(1, dur=s87.DUR, store=s87.store(v.pop("store", None)), **v)
_moved, _gone = [], 0
for k, fn in RUNS.items():
new, old = fn()[0], no_fix(fn)[0]
same = all(a[:-1] == b[:-1] and a[-1][:4] == b[-1][:4]
for a, b in zip(new, old)) and len(new) == len(old)
logs = {e for r in old for e in [r[-1][5]] if e} - {
e for r in new for e in [r[-1][5]] if e}
_gone += len(logs)
if not same or any("OUTPUT_CLAMP episode" not in e for e in logs):
_moved.append(k)
print(f" {k}: commands and claims "
f"{'the same' if same else 'DIFFER'}, log rows differ {len(logs)}, "
f"digest {s84.digest(new)[:16]}")
check("⭐ in all twelve, every command, loop field, claim, guard decision "
"and phase is the same as without the fix; the only log rows that "
"differ are OUTPUT_CLAMP rows (gone, or a lower count)",
not _moved and _gone > 0)
print()
if fails:
print(f"FAILED: {len(fails)} check(s)")
for f in fails:
print(f" - {f}")
sys.exit(1)
print("all SAFETY-119 checks passed")
+11 -7
View File
@@ -472,19 +472,22 @@ print("\n8. the N=1 and N=2 digests")
# charge pin stands. n2_charge and _banked change only the loop's reason and
# claim on 2 cycles; n2_charge_dear changes commands on 98 cycles, where A's
# pin lifts (t=1800) and B no longer jumps 1390 W, and after the surplus step.
# SAFETY-119 re-pinned all six: only the log. OUTPUT_CLAMP rows from the
# loop's bound just after the guard hands back are gone; every command and
# claim is the same (test_safety119.py part 6).
PINNED = {
"n1_charge":
"0ed25c856456b97acb07a39299a8cb7b1a762c4d0005b88a0823c03057a80be5",
"19781f90b9751b10994dedeaafb38e42d48ad2551640792e601336b7f9b5bb4f",
"n1_charge_dear":
"c25340b56060d4581f7204e200b07e7c8618711be2baca3b1667b7ebeb600dc3",
"eeeb0fa19a6fdc04d44a0838bb2bb911f506a936b0f93d8a6f4d87159053ec74",
"n1_charge_banked":
"2619acdd06b04e56c000b168d64e1d044346c6ba3f929c94258d6ad8189ec609",
"a51f125a8c1c98fdbb009fce72b6781d20d384bdf0f5ce7bbfe367d86e5477db",
"n2_charge":
"b16d692128f14bcce3d87b142d290e0d6b13724289680e44a05215c9eaa24a7c",
"e37e98390baa5dad9128991fabf8b170894395fe026d8a33c8a51de7ed0789cc",
"n2_charge_dear":
"00a197d89a5dd1e8b3ae6a5d1af66329a4dc4850476569c5931c125fa4d9eaee",
"7727372de423f62d77b4426a7226eae31a30f3bb89a3cf70272cc7c1823d7263",
"n2_charge_banked":
"a6973faea916e4c88ca1770047f94478346eeb1efa4889b154fad0747f91267f",
"c77e26006c026b953e9c3dcc9a02f3993589f885cb52c7cbceac6bd59b600551",
}
_now = s84.digests()
for k in PINNED:
@@ -492,7 +495,8 @@ for k in PINNED:
f"{_now[k][:16]}")
check("⭐ at N=1 a charge in and out of a cheap window and under a banked "
"month peak is byte-identical to 9d5b7d1 (commands, reasons and every "
"claim), and N=2 outside a cheap window matches its SAFETY-85 pin",
"claim; the log as re-pinned by SAFETY-119), and N=2 outside a cheap "
"window matches its SAFETY-85 pin",
all(_now[k] == PINNED[k] for k in ("n1_charge", "n1_charge_dear",
"n1_charge_banked",
"n2_charge_dear")))
+10 -5
View File
@@ -518,17 +518,21 @@ check("...a stopped controller still says so: the peak alarm does not take "
# ============================================================================ #
print("\n9. N=1 is byte-identical to release/1.0 b8ddfd7")
# SAFETY-119 re-pinned n1_crossing, n1_above and n1_charge_low: only the
# log. The loop's bound just after a hand-back is not counted, so OUTPUT_CLAMP
# rows are gone or count fewer; every command and claim is the same
# (test_safety119.py part 6).
PINNED = { # tools/safety87_identity.py on b8ddfd7
"n1_under":
"d2395ef8d74fb23607ad864d5a4bf62c03044bbd9367e873675d7ad10e8c169f",
"n1_crossing":
"97f7321017d9d34ee17a40dfd4abf73d915f25b9faef086a483d2b5cd124b198",
"20f8e542c1ee3eb3a58c8fd6ba3b3e5b6b1486800cd63b675abc68bc222a172b",
"n1_above":
"45726a285aa84f40542d56482652397c3c1e212ba4fe2009f6cc52f537ccad52",
"3a79f1394b2b49fa88f3c054da1d9da450153ad5f0d2a2c2f960d02a7abe2208",
"n1_under_banked":
"a2876c7cc873bc4c974d2b4bd98e23bba2d007b84545587d2fe0b713b0a6249b",
"n1_charge_low":
"91336e3c0314985a3b00f314c79b5ffb5a740d218de3ad44f88a4db6e4235b32",
"2e1ee6db0d4f9f18836c4cbbe406fddd496656b54b97f329da513a1591f0ce6c",
"n1_hold":
"0a1df347754c69166b20d04c15ee878bbcefb02abb824b9b452334f68f03e46d",
}
@@ -536,8 +540,9 @@ _now = s87.digests()
for k in PINNED:
print(f" {k} {'same' if _now[k] == PINNED[k] else 'DIFFERS'}")
check("⭐ every N=1 digest (claims, commands, the guard's decision and the "
"log) equals b8ddfd7's, under, crossing and above the reserve, in a "
"charge and a HOLD, and under a banked peak",
"log) equals b8ddfd7's (the log as re-pinned by SAFETY-119), under, "
"crossing and above the reserve, in a charge and a HOLD, and under a "
"banked peak",
_now == PINNED)
# ============================================================================ #
+16
View File
@@ -286,6 +286,22 @@ check("app/uitext.py falls back to English per key and reads nl-BE as nl",
and uitext._merge({"a": {"b": 1, "c": 2}}, {"a": {"b": 3}})
== {"a": {"b": 3, "c": 2}})
# ============================================================================ #
print("\n7. the dynamic contract choice says 15 minutes, never hourly (UX-44)")
# Belgian day-ahead prices are per 15 minutes since 2025-10-01.
HOURLY = re.compile(r"hourly|per hour|\bhour\b|per uur|\buur\b|uurprijs",
re.I)
_dyn = {"en": EN["choices"]["contract"]["dynamic"],
"nl": NL["choices"]["contract"]["dynamic"]}
check(f"the label reads 'Dynamic, every 15 minutes' / 'Dynamisch, per "
f"kwartier' ({_dyn})",
_dyn == {"en": "Dynamic, every 15 minutes",
"nl": "Dynamisch, per kwartier"})
check("neither language calls the dynamic contract hourly",
not any(HOURLY.search(t) for t in _dyn.values()))
check("mutation: the old labels are caught",
all(HOURLY.search(t) for t in ("Dynamic, hourly", "Dynamisch, per uur")))
print()
if fails:
print(f"{len(fails)} FAILED")
+60
View File
@@ -327,6 +327,66 @@ check("days the editor has no choice for stay in the Configuration tab, and "
["ui.periods"] is None and edit(dict(SITE, static_profile=_raw), gain=0.5)
["static_profile"] == _raw)
print("\n8. UX-43: tariff prices take five decimals")
from app import uilayout as _L # noqa: E402
_PX = 0.34512
_TARIFF = ("ui.fixed_price", "ui.day_price", "ui.night_price", "ui.periods")
_steps = {k: _L.field(k).step for k in _TARIFF}
check("the four tariff price fields step 0.00001 EUR/kWh",
sorted(_steps) == sorted(_TARIFF)
and all(v == 0.00001 for v in _steps.values()))
_f5 = edit(DEFAULTS, ui__contract="fixed", ui__fixed_price=_PX)
check("fixed price 0.34512 is saved exactly and read back exactly",
'"eur_per_kwh": 0.34512}' in _f5["static_profile"]
and U.options_to_ui(_f5)["ui.fixed_price"] == _PX
and trip(_f5) == _f5)
_d5 = edit(SITE, ui__contract="daynight", ui__day_price=_PX,
ui__night_price=0.26789)
check("day price 0.34512 and night price 0.26789 are saved and read back exactly",
'"eur_per_kwh": 0.34512' in _d5["static_profile"]
and '"eur_per_kwh": 0.26789' in _d5["static_profile"]
and U.options_to_ui(_d5)["ui.day_price"] == _PX
and U.options_to_ui(_d5)["ui.night_price"] == 0.26789
and not validate_startup_config(_d5))
_n5 = edit(SITE, ui__contract="daynight", ui__day_price=0.3, ui__night_price=_PX)
check("night price 0.34512 alone is saved and read back exactly",
U.options_to_ui(_n5)["ui.night_price"] == _PX)
_r3 = rows(("00:00", "07:00", "mon-sun", 0.12345), ("07:00", "22:00", "mon-sun", _PX),
("22:00", "24:00", "mon-sun", 0.05001))
_p3 = periods(_r3)
check("three windows with five-decimal prices save and read back exactly",
[p.eur_per_kwh for p in parse_static_profile(_p3["static_profile"]).periods]
== [0.12345, _PX, 0.05001]
and [r["price"] for r in U.options_to_ui(_p3)["ui.periods"]]
== [0.12345, _PX, 0.05001] and trip(_p3) == _p3
and "e-" not in _p3["static_profile"])
check("a two-decimal price still works", U.options_to_ui(
edit(DEFAULTS, ui__contract="fixed", ui__fixed_price=0.31))
["ui.fixed_price"] == 0.31)
_old = dict(SITE, price_provider="off", static_profile=json.dumps({"periods": [
{"name": "day", "from": "07:00", "to": "22:00", "days": "mon-fri",
"eur_per_kwh": 0.34},
{"name": "night", "from": "22:00", "to": "07:00", "days": "mon-fri",
"eur_per_kwh": 0.26},
{"name": "night", "from": "00:00", "to": "24:00", "days": "sat,sun",
"eur_per_kwh": 0.26}]}))
check("a stored profile with two-decimal prices is unchanged by load and save",
trip(_old) == _old)
_js = open(os.path.join(HERE, "app", "static", "settings.js"),
encoding="utf-8").read()
check("the window editor's price input takes its step from the field, not a "
"hard-coded 0.01", 'step: "0.01"' not in _js
and "step: String(f.step || 0.01)" in _js)
for _lang in ("en", "nl"):
with open(os.path.join(HERE, "app", "ui_text", f"{_lang}.json"),
encoding="utf-8") as _fh:
_flds = json.load(_fh)["fields"]
_hint = "34.512" if _lang == "en" else "34,512"
_eq = "0.34512" if _lang == "en" else "0,34512"
check(f"[{_lang}] the c€/kWh hint sits on all four tariff price fields",
all(_hint in _flds[k]["description"] and _eq in _flds[k]["description"]
for k in ("fixed_price", "day_price", "night_price", "periods")))
print()
if fails:
print(f"{len(fails)} FAILED")
@@ -105,6 +105,13 @@ class _Hass:
return self.power(u)
return None
async def state(self, e):
"""SAFETY-118: the peak forecast is read as a state object; every
number this rig serves is in watts."""
v = await self.number(e)
return None if v is None else {
"state": str(v), "attributes": {"unit_of_measurement": "W"}}
async def set_number(self, e, v):
self.cmd[e[-1]] = float(v)
return True
+160
View File
@@ -0,0 +1,160 @@
"""OPT-20: the refusal-probe scenarios, on the REAL Controller in the lagged
replay (tools/opt11p3_replay.py). Uses only the API bf9019e has, so the same
file runs on both trees (test_opt20.py pins the digests printed on bf9019e).
Battery B is Cheap hours and refuses to charge; it is probed every 15 minutes
inside the cheap run (OPT-15). A is, per scenario, in its maintenance charge
phase, idle (Solar first), or a normal charger in the same run.
"""
import hashlib
import logging
import os
import sys
from datetime import datetime, timedelta, timezone
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
sys.path.insert(0, os.path.dirname(HERE))
logging.disable(logging.WARNING)
import opt11p3_replay as rp # noqa: E402
from app import packmode # noqa: E402
from app.maintenance import CHARGE, DRAIN, MaintResult # noqa: E402
L = timezone(timedelta(hours=2))
A, B = "inverter-a", "inverter-b"
LAG = rp.Lag(tau_s=0.05, ramp_w_s=1e9)
SF_CH = {"a": (True, packmode.SOLAR_FIRST, False),
"b": (True, packmode.CHEAP_HOURS, False)}
CH_CH = {"a": (True, packmode.CHEAP_HOURS, False),
"b": (True, packmode.CHEAP_HOURS, False)}
# A day of the owner's kind: cheap 02:00-04:00 local, flat otherwise.
D0 = datetime(2026, 9, 9, 0, 0, tzinfo=L)
UTC0 = D0.astimezone(timezone.utc)
_PR = [0.30] * 192
for _i in range(8, 16):
_PR[_i] = 0.10
WPTS = [(UTC0 + timedelta(minutes=15 * i), 900, p) for i, p in enumerate(_PR)]
# OPT-15 rig g7: prices 0 from 17:45 to 18:45 local, flat 0.06 otherwise.
G0 = datetime(2026, 10, 13, 0, 0, tzinfo=L)
GUTC0 = G0.astimezone(timezone.utc)
_GP = [0.06] * 192
for _i in range(71, 75):
_GP[_i] = 0.0
for _i in range(76, 78):
_GP[_i] = 0.5
G7PTS = [(GUTC0 + timedelta(minutes=15 * i), 900, p)
for i, p in enumerate(_GP)]
def at(h, base=UTC0):
return base + timedelta(hours=h)
def _rows(rows):
def cb(c, h, now, pr):
sh = dict(c.allocation.shares) if c.allocation is not None \
and c.allocation.shares else {}
rows.append(dict(
now=now, grid=h.grid(), shares=sh,
action=getattr(c.arb, "action", None),
reason=getattr(c.arb, "reason", None) or "",
probing=c.inverters[1].probe_from is not None,
roles=dict(c.mode_tick.roles) if c.mode_tick else {},
p={u: p.p for u, p in h.plants.items()}))
return cb
def day(choice, *, a_maint=None, shaped=False, refuse=("b",), hours=0.5,
house_w=800.0):
"""02:00..: a cheap run, `house_w` house. `a_maint` is A's forced maintenance
result from 5 minutes in (B's refusal stands by then); `shaped` closes the
maintenance charge's own watts (charge-only shaping, hi = 0)."""
rows = []
def patch(c):
if shaped:
c._charge_headroom = lambda floor, claims: 0.0
if a_maint is None:
return
m, real = c.maints[0], c.maints[0].tick
def tick(now, soc, blocked_by=None, gate_open=True):
if now >= at(1.9 + 5 / 60):
return a_maint
return real(now, soc, blocked_by=blocked_by, gate_open=gate_open)
m.tick = tick
rp.run("p3_ch_sell", [(UTC0.timestamp() - 10, house_w)], WPTS, at(1.9),
3600 * hours, check=_rows(rows), lag=LAG, n=2,
soc0={"a": 50.0, "b": 30.0}, choice=choice, refuse=refuse,
patch=patch, extra={"cycle_cost_threshold_eur": 0.10})
return rows
def g7():
"""The OPT-15 rig's g7: B refuses from the start of the cheap run, A
drains 18:00 to 18:17:04 and then sits in its maintenance charge phase
(charge-only) at 0 W. The probe after the drain used to put the trade's
2500 W on A."""
rows = []
t_end = at(18 + 17 / 60 + 4 / 3600, GUTC0)
def patch(c):
m, real = c.maints[0], c.maints[0].tick
def tick(now, soc, blocked_by=None, gate_open=True):
if at(18.0, GUTC0) <= now < t_end:
return MaintResult(DRAIN, True, 2000.0, False, [])
if now >= t_end:
return MaintResult(CHARGE, False, None, True, [])
return real(now, soc, blocked_by=blocked_by, gate_open=gate_open)
m.tick = tick
rp.run("p3_ch_sell", [(GUTC0.timestamp() - 10, 800.0)], G7PTS,
at(17.6, GUTC0), 3600 * 1.1, check=_rows(rows), lag=LAG, n=2,
soc0={"a": 17.0, "b": 73.0}, choice=SF_CH, refuse=("b",),
patch=patch, extra={"cycle_cost_threshold_eur": 0.10})
return rows
MAINT_CHARGE = MaintResult(CHARGE, False, None, True, [])
def windows(rows):
"""[(first, last)] row indexes of each probe window."""
out, i = [], 0
while i < len(rows):
if rows[i]["probing"]:
j = i
while j + 1 < len(rows) and rows[j + 1]["probing"]:
j += 1
out.append((i, j))
i = j + 1
else:
i += 1
return out
def digest(rows) -> str:
keep = [(r["now"].isoformat(), sorted(r["shares"].items()),
round(r["grid"], 3), r["action"], r["reason"],
sorted(r["roles"].items()), sorted(r["p"].items()))
for r in rows]
return hashlib.sha256(repr(keep).encode()).hexdigest()
def no_probe_digests() -> dict:
"""Battery modes on, no refusal, so no probe: a scripted cheap run."""
return {
"sf_ch": digest(day(SF_CH, refuse=(), hours=1.2)),
"ch_ch": digest(day(CH_CH, refuse=(), hours=1.2)),
"ch_ch_maint": digest(day(CH_CH, a_maint=MAINT_CHARGE, refuse=(),
hours=1.2)),
}
if __name__ == "__main__":
for k, v in no_probe_digests().items():
print(k, v)
+1 -1
View File
@@ -165,7 +165,7 @@ configuration:
description: "The add-on aims this much below the peak limit, so a 15-minute period that ends a little high still stays under it."
peak_forecast_entity:
name: "Limits · 15-minute demand forecast entity (W)"
description: "Optional. A forecast of this 15-minute period's average power. Leave it empty and there is no peak limit."
description: "Optional. A forecast of this 15-minute period's average power, in W or kW. With no power unit it is not used. Leave it empty and there is no peak limit."
peak_soc_floor:
name: "Limits · Peak reserve (%)"
description: "Peak limiting will not draw the battery below this level, but ordinary use can. Derived value, leave it unchanged."
+1 -1
View File
@@ -146,7 +146,7 @@ configuration:
description: "De add-on mikt zoveel onder de piekgrens, zodat een kwartier dat iets hoger uitvalt er toch onder blijft."
peak_forecast_entity:
name: "Grenzen · Entiteit kwartierprognose (W)"
description: "Optioneel. Een prognose van het gemiddelde vermogen in het lopende kwartier. Laat u dit leeg, dan is er geen piekgrens."
description: "Optioneel. Een prognose van het gemiddelde vermogen in het lopende kwartier, in W of kW. Zonder vermogenseenheid wordt ze niet gebruikt. Laat u dit leeg, dan is er geen piekgrens."
peak_soc_floor:
name: "Grenzen · Piekreserve (%)"
description: "De piekbeperking laat de batterij niet onder dit niveau zakken, gewoon verbruik wel. Afgeleide waarde, laat ze ongewijzigd."