bfa0b537eee7f7d82a788b861fba9cfe6f358804
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Commits
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bfa0b537ee |
i18n: ship the UI in English and German
ci / build-test (push) Failing after 35s
The last open item on the M7 list. Number and currency formatting was already locale-aware, but every string in the UI was an English literal, so a German instance read half in each language -- German data, English chrome. This translates all of it and adds the machinery to keep it translated. Strings live in Localization/Strings.resx (English, neutral) and Strings.de.resx. The neutral file generates a strongly-typed accessor at build time, aliased as S in _Imports.razor, so components reference compiled properties -- @S.Common_Save, not a string key. That choice is the point: across 4,500 lines of markup, a key lookup that silently falls back to its own name is a defect you find in production, while a renamed property is a build error. Generation runs in MSBuild rather than the IDE designer, so dotnet build alone reproduces it anywhere. Resource fallback is the hazard here. Ask for a key the German satellite lacks and ResourceManager quietly serves the English one -- correct at runtime, disastrous at release time, because a half-translated build looks perfectly healthy. StringResourceTests reads each satellite with tryParents: false, which is the only way to see what one actually contains, and fails on a missing or blank translation, a placeholder that changed arity, an orphan, or a key nothing references. Three things needed more than substitution: - Domain enums reached the screen as bare identifiers. They stay bare in the model -- they are persisted as text and appear in the REST API, so their names are part of the data contract -- and DisplayNames is now the single place that decides how each value is spoken. Every arm ends in a fallback returning the identifier, so a value added later cannot throw mid-render; EnumDisplayNameTests is what stops that safety net quietly becoming the shipping behaviour. - Infrastructure was writing display text: FlowService's "Other (X)", MeterPeriodView's "Generation"/"Consumption", the HA connection-test verdicts, the updater's snackbar, the CSV importer's row warnings. Each now returns an outcome value and the UI supplies the words, which is where the reader's language is known. Diagnostics that are not ours -- an HTTP status, systemd's stderr, an exception message -- are passed through untranslated, and every English summary is kept alongside the outcome so log lines never move with the UI language. The UpdateRunner change is additive only; no gate was touched. - Importer warnings carry their arguments rather than a finished sentence, so the numbers inside them pick up the reader's grouping. A register that reads 2.940,19 everywhere else must not read 2940.19 only inside a warning. Switching language is a redirect through /culture/set followed by a full reload, not an interactive state change: a Blazor Server circuit is fixed to the culture of the request that opened it. That makes the endpoint a redirector taking its target from the query string, so anything but a local path is refused rather than followed. Preference order is the cookie, then Accept-Language, then MeterVault__Locale -- an instance can be pinned to one language and a reader can still switch. Locale keeps its documented default of "en". Format now follows CurrentCulture instead of a hardcoded de-DE, so an instance with nothing configured and a browser asking for English will show English number formatting where it previously showed German; set MeterVault__Locale=de to pin the old behaviour. The importer's de-DE parsing is untouched and stays that way -- that dialect is a property of the spreadsheets, not of whoever is looking at the dashboard. Anything that comes from the database -- meter names, energy-type display names, category names -- is user data and is never translated. Claude-Session: https://claude.ai/code/session_0112ezeWqaZ85kTj5bYu9JHx |
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8fe5f4411b |
Fix defects found auditing the ingestion, import and connector changes
ci / build-test (push) Successful in 1m16s
An audit of this session's commits found several real problems, three of which
lose or expose data. Ordered by severity.
Live recompute was not atomic. RecomputeMeterAsync clears a meter's series with
ExecuteDelete, which commits by itself when no transaction is ambient, and only
then adds the rebuilt rows. Between the two the meter had *no* consumption:
a dashboard read reported zero, and a crash or cancelled request made the loss
permanent, for data the SDD treats as the long-term source of truth (§5.5).
Import and the events API already wrapped their recomputes; live ingestion,
which I added this session, did not. Now shares one transaction, joining an
ambient one rather than nesting.
The MQTT backfill migration counted brokers without regard to is_enabled. One
live broker plus a disabled leftover counted two, declined to backfill, and left
those sources unbound — which under endpoint-scoped routing means silently and
permanently dead. The "two or more is ambiguous" reasoning did not hold there:
the worker only ever connected to enabled endpoints. Corrected by a follow-up
migration rather than an edit, since the original may already have run; it
touches only rows still NULL, so hand-made bindings are safe.
A mapping edited after a dry run committed the *old* staged rows under the
*new* mapping. Readings went to the previous meter while the batch recorded the
current mapping — wrong data, provenance contradicting it, no exception. The
earlier fix re-validated but did not detect staleness. Commit now compares the
mapping against the one the preview was staged under and refuses.
"Test connection" sent a stored token to whatever Base URL was in the dialog.
Encrypting secrets at rest means the UI can decrypt what the operator can no
longer read, so this turned the button into an exfiltration primitive: point it
at any host, the token arrives as a Bearer header. A stored token now only goes
to the origin it was saved for; testing elsewhere requires typing it again.
A source that cannot ingest looked identical to a healthy one. Endpoint-scoped
routing made unbound and mis-bound sources silently dead, while the Sources tab
showed no connector at all and the delete dialog still promised sources would be
"unlinked". Added a Connector column that names the fault, stopped offering
disabled connectors (both workers filter on IsEnabled), and made the delete
warning say ingestion stops.
Virtual meters rendered four zero tiles: they evaluate on read and only
materialize when a cost category references them (§14.1), so summing
consumption is a confident lie about a working meter. They now report nothing
and the page explains why.
Re-importing an overlapping file failed at the database with EF's "An error
occurred while saving the entity changes", naming neither meter nor date — the
diagnosis problem
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cedd60ab45 |
Audit fixes: batch recompute, negative-baseline percentages, key-ring persistence
ci / build-test (push) Successful in 1m17s
Three defects found reviewing the last few commits. Deriving consumption on ingest made the batch reading endpoint quadratic. A recompute rewrites a meter's entire consumption series, and POST /api/v1/readings ran one per reading -- 500 readings for one meter meant 500 full rewrites. IngestByMeterAsync takes renormalize:false and the endpoint normalizes each touched meter once after the batch. Percentage change divided by a possibly negative baseline. A net-export meter going from -100 to -150 exported half again as much and would have been reported as "+50%", reading as more consumption. A non-positive baseline now reports no basis rather than a confident lie. The data-protection key ring had no persistent home outside Docker Compose. The LXC installer now creates /var/lib/metervault/keys at 0700 -- the app would otherwise create it under the default umask, leaving a key ring world-readable -- and the Unraid template maps it, since without that every UI-entered secret was lost whenever the container was recreated. README documents the variable and the trust boundary: keys on disk protect against leaked database content, not against an attacker who already has the host. Claude-Session: https://claude.ai/code/session_01V6joyergfvVLFEizH1hJLd |
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95c51842e8 |
Meter detail: lead with periods and change, not register totals
ci / build-test (push) Successful in 1m23s
The headline tiles were lifetime consumption, a raw reading count and the register span. None of those answer why someone opens a meter: how much this month, more or less than last, where the year lands, what it costs. A cumulative counter's register value is an accident of when the meter was installed. MeterPeriodService buckets consumption by calendar month in the instance timezone -- via date_trunc(... AT TIME ZONE) rather than EF grouping, because a reading at 00:30 local on 1 January is 23:30 on 31 December in UTC and would be booked to the wrong month (SDD §10). It reports generation for a generation counter and consumption otherwise, so a PV meter stops claiming it consumed 0 kWh. Month- and year-to-date are compared against a projection of the current period rather than its running total. Three days into a month, "12 kWh vs 340 kWh last month" reads as a collapse in usage when nothing has changed. The projection is straight-line on elapsed days -- wrong for anything seasonal, but the honest reading of "at this rate" -- and the UI marks it with a leading ~. A 12-month bar strip gives the shape at a glance. A meter with nothing normalized yet returns an empty history rather than a flat line, which would look like a meter reading zero. Register span, reading count and lifetime total move into a collapsed panel. Still there when needed for an audit, no longer the first thing you see. Claude-Session: https://claude.ai/code/session_01V6joyergfvVLFEizH1hJLd |