Pinning an afternoon stop sorted that one and left the hotel it was booked around
sitting behind it. The day's auto-sort reads each stop's own hour, and a booked
night has none: nobody types a time into a hotel row, they type a check-in, and
that lives on the booking. It counts now, so the night moves with everything else
instead of staying where it was dropped.
The assignments e2e builds its own tables and had neither the accommodation
column nor day_accommodations, so every create in that file 500'd as soon as the
insert learned to carry a booking id. Both are there now.
And the shared lint, which is stricter than the other two and which I had not run:
three leftovers from taking the check-out out of the chain, none of them used any
more.
The stop went to the end of the day, always, on the reasoning that a night ends
the day. It usually does — but a check-in at eleven says the traveller is at the
desk before whatever they pinned to the afternoon, and putting the stop behind it
built a drive that reaches the hotel at seventeen past five after a sixteen
hundred it was booked around. The order looked like the traveller's and was not;
it was this code's default.
A booking with a check-in now takes the place its hour asks for: ahead of the
first stop pinned later, and still last when nothing is. Editing the check-in
re-seats it, in both directions, read off the chain rather than recomputed —
the index a fresh insert would get is not the index a row already holds.
Stops without an hour of their own are passed over in either direction. Their
place in the chain came from the traveller, not from a clock, and a night has no
business pushing past one.
The container refused to boot: Nest will not export a provider that belongs to an
imported module, and the service moved into the domain module in the commit
before. Re-exporting that module gives every importer the same service it always
got, and the wiring test now asserts the shape that actually boots rather than
the one that only typechecks.
Neither tsc nor the unit tests could see this — the module metadata is only read
when a container is built. The e2e harness does build one, and that is what
catches it.
A stay whose place was deleted kept its row with place_id NULL: still drawn in the
day header, still naming a hotel through its partner booking, and pointing
nowhere. Nothing could reach it any more and nothing cleaned it up.
It goes with the place now, through the accommodations domain rather than a
DELETE in the places path, because a stay takes its partner booking, that
booking's expense and the day stop it wrote with it — none of which is the places
domain's business to know. Both delete paths, single and bulk.
The service moves into an AccommodationsDomainModule, the assignments-domain
precedent: the service never touches PlacesService, only the MCP tool that writes
a place and a stay together does, so it can sit in a module PlacesModule is free
to import without closing a loop. AccommodationsModule keeps exporting it, so
every existing consumer is unchanged.
The row shapers name every column they pass on, and accommodation_id was in
none of them. So the field the day list hides on never reached the client, and
the booked night was listed as an ordinary place next to the overnight block
that already named it. The stop was correct in the table the whole time; the
three read paths just dropped it on the way out.
The stamp on the freshly written stop had the same hole from the other side: the
INSERT went in without the booking id and an UPDATE added it afterwards, so the
row handed back in the answer, the one the client that booked the night puts
straight into its store, carried none. It goes in with the INSERT now.
The shared link gains the same filter. It has no road trip view to need the stop
and already shows the booking as its own chip on the day, so the row was only
ever the same hotel twice.
The booking form wrote the stay row itself, so it was the one door that left the
day stop out. A hotel entered there stayed invisible to road trip mode, which is
the same complaint as before with a different way in: enter the place twice or it
is not on the route.
It writes the stop now, through AccommodationsService rather than a second copy of
its SQL. The permission argument for not doing so does not hold: the night already
shows in the day header the moment the booking is saved, and the stop is that same
night in the other view, not a second edit to the plan.
Two holes go with it. Moving the booking left the stop on a day nobody sleeps there
any more, and deleting it left the stop behind entirely — in both cases still
carrying the booking's id, which is what the day list hides on, so nobody could
reach it to remove it. The stop now follows the stay and goes with it, and only
once the trip_id guard has confirmed the stay was this trip's to delete.
Six lines and four functions the mirror brought in were never entered by a test,
which is what took the domain under its coverage floor.
The keepStop branch of a delete, the plugin surface's own update, and the
transaction that has to roll a place and its stay back together. Plus every
sender a surface hands announceMirror: REST and the three plugin methods build
one each, and a fixture that swallowed the call let all four go unexercised --
the one link between a stay write and the sockets everyone else is watching.
Three things the first pass got wrong.
A stop a booking puts on the day is for road trip mode, which needs the
hotel in the driving chain. The day planner already shows that booking as
its own overnight block, so the row there would be the same hotel twice.
It is hidden in Days whatever the service-stop switch says, and the switch
goes back to meaning what it says: the petrol stations the traveller added.
Cancelling a night from the road trip popup took the stop with it. That
control means "this is a pause now, not a night", and the stop sits
mid-drive where re-adding it would land it at the end of the day. The
booking now hands the stop over instead of deleting it.
Moving a booking whose stop belongs to the traveller put a second one on
the new day and left the first behind, which is the duplicate this change
exists to remove. Only a booking's own stop moves now. Stays booked before
this shipped get theirs from the migration, not from the next edit they
happen to receive.
A road-trip stop is a day assignment: the rail, the server-side plan and the
map all build their stops from day_assignments and only look the stay up
afterwards, to hang check-in and check-out on one. A stay written without an
assignment was therefore invisible to every routing surface, so a hotel entered
in the day planner never reached the road-trip view and had to be entered a
second time as an ordinary place. The road-trip side has always written both
halves in one go; this is the day planner catching up, in the domain that
writes the stay.
Booking a night now also assigns its place to the check-in day, inside the
transaction that already writes the stay and its partner hotel reservation, and
types the place as a hotel stop when it carries no type of its own, so it reads
exactly like a night booked in the road trip. Only the check-in day gets a
stop; the later nights ride on the stay row. A place already planned for that
day gets no second stop and the booking claims none, so cancelling it cannot
delete a stop somebody placed by hand. Moving the booking moves its own stop,
deleting it takes its own stop back, and a trip re-date carries it along with
the stay. All four write surfaces (REST, plugin RPC and both MCP tools) run the
same write and announce the same events; the answers carry the stop too,
because the broadcast skips the socket that sent the request.
New nullable day_assignments.accommodation_id marks a stop as a booking's own.
It stays NULL for every existing row on purpose: everything planned before this
was planned by hand, and no backfill rewrites a finished trip. A stay booked
earlier picks up its stop the next time somebody saves it.
The booking form keeps writing stays on its own: that surface is gated on
reservation_edit and the day stop is day_edit work.
Three cases fired their reads through `Promise.all`. The Nest app under
test is never told to listen, so supertest binds an ephemeral port on the
first request; four of those at once race four `listen(0)` calls on the
same server and the losers come back as ECONNRESET. It held here and
failed on a loaded runner. The reads run one after the other now, which
is all they ever needed.
A new `integrations/dawarich` domain behind its own addon. Each reader
connects their own instance; the API key is encrypted at rest and never
returned. Nothing is written back to Dawarich, and no raw position is
kept in TREK: the recorded route is fetched per request for the window
being looked at and thrown away again.
What it produces are suggestions, never facts. A recorded stay becomes a
proposed place or journal entry, a country or city becomes a proposed
Atlas mark, and a stay near a wish becomes a proposed tick-off; each one
waits for the reader to confirm it. Identity is (user, Dawarich visit),
so a second sync neither duplicates nor overwrites what was accepted,
and deleting the result puts the suggestion back on the list.
The sync runs as a job on the central scheduler, one user at a time,
guarded against overlapping runs.
A key could only ever read everything a user owns. When a second service
reads TREK on that user's behalf, that is more than it needs: Dawarich
wants trips, days and places, not notes, bookings or the wish list.
Keys can now be minted with an explicit list of areas, checked in the
guard and shown when the key is listed. Keys that existed before this
keep full read access, so nothing that works today stops working. A key
marked as limited whose list cannot be read grants nothing rather than
everything.
With Amap in the keyed slot every reverse lookup went to Amap first,
worldwide. Outside its box that buys a round trip and an empty answer
before Nominatim is asked anyway, which is latency on every right click in
Lisbon. The client side of the same question already filters by the box
(placeNavigation.ts); isOutsideChina is the shared helper both use.
The two fixtures in the file that were cast to any now carry a type: the
key row and the fetch spy whose calls the reverse case reads back.
The rebase kept maps.service.ts as dev has it: the TREK index and
OpenStreetMap answer every search first, and a keyed provider only fills
what they leave empty. Amap now sits in that slot next to Google instead
of behind an extracted Google provider, which is dropped.
places_provider (auto | google | amap | openstreetmap) decides which keyed
provider holds the slot; auto keeps whatever the install already used.
An amap: id opens against the Amap key regardless of the setting, takes
the plain details lookup on expand, never reaches Google's photo call,
and a pasted Amap link resolves through parseAmapUrl. Reverse geocoding
asks Amap at the instance key before Nominatim.
The migration carries users.amap_api_key, which the rebase had left at a
stale array position, and places.amap_poi_id for the next commit.
The three figures under a traveler's final budget came from the server, netted
in integer trip cents at the rate frozen on each expense. The rows listed under
them did not: both shells converted the expense list again with whatever live
rate they had, and with none loaded yet (first render, offline) the raw foreign
amount went out under the display currency's symbol. On any trip with a
foreign-currency expense the rows could not add up to the line above them.
The settlement response now carries the rows with the figure: `sources` on each
finalBudgets entry lists what the person fronted per expense, the recorded
transfers on their side and the open flows, in display cents. They are filled
by the same two loops that fill the totals, so an expense with no split members
stays out of them as it stays out of the ledger, and each list is spread over its
figure's already allocated cents with the same largest-remainder split, so the
sum is exact in every display currency. The shells print those cents and only
resolve names; the rows carry the sign of the line they sit under.
The settle-up view says who owes whom, but nothing on the Costs screen
answers "what did the trip cost me": the balances move every time a
payment is recorded, and the tiles only describe the signed-in user.
The settlement response now carries finalBudgets, one row per participant
in the ledger: expenses (what they fronted on split expenses), reimbursed
(recorded transfers, received minus sent), pending (their current
balance) and final = expenses - reimbursed - pending.
- Computed in calculateSettlement from the same integer trip cents as the
balances, filled by the same loops, so the breakdown can never
contradict the balance printed next to it. Each component is converted
to the display currency as its own set and the final is subtracted in
display cents, so the three lines add up to the total in any currency.
- A "Final budget" card on desktop, the narrow desktop layout and the
mobile Costs tab: one amount per traveler, and a tap opens the three
lines plus the expenses, transfers and open flows behind them. The
filtering lives in CostsPanel.helpers so both shells share it.
- Contract in shared (budgetParticipantFinalSchema); the MCP
get_settlement_summary description mentions the new field it returns.
- Four new costs.* keys, translated in every locale.
The e2e settlement round trip now sends settled_at on create and update
and reads it back from the column, including a PUT that clears it to
NULL. The service test covers the clear branch for null and the empty
string the date picker sends.
The unit test mocking db.run for applySettlementUpdate asserted the exact
positional argument list, which the settled_at column added two more
positions to (its CASE-WHEN flag and value, mirroring currency/exchange_rate).
The settle-up form only exposed from/to/amount and silently dated the
payment by created_at, unlike a regular expense which has an editable
date. Add a settled_at column (independent of created_at, same split as
expense_date) through the schema, migration, service, REST and MCP
surfaces, and the desktop + mobile forms; the ledger groups a payment by
settled_at, falling back to created_at for rows recorded before the
column existed.
Sharing a list works between people on the same TREK. This is the other
case: giving one to somebody who runs their own, or keeping a copy. Export
sits beside Edit and Share in the list header and downloads the open list;
Import sits beside New list in the rail, reads a file, shows what is in it
and makes a new list of it. Desktop only, which the route already decides.
What travels is what somebody wrote down: the list's name, colour and
description, its labels, and each place with its address, coordinates,
notes, status, contact details, category name and labels. A file is dull
JSON on purpose, so it can be read and edited by a person.
What does not travel is everything that only means something on the instance
it came from. Ids of every kind, since the receiver issues its own and a
category crosses over by name. Star ratings and members, because a rating is
an opinion somebody gave the people on that list. Provenance into trips,
which points at rows the receiver cannot see. And an image path under
/uploads, which resolves on the sender's server: only an absolute https URL
survives.
A file is a stranger's JSON and is read as one. It is parsed in the browser
that chose it and never uploaded; the parsed list goes through the same
contract on both sides; and a link that is not http(s) arrives as nothing
rather than as an anchor. Strict where it must refuse, forgiving where it
can drop: a file that does not say what it is never reaches the importer,
while one unreadable place inside it is skipped and counted, and one bad
field on a good place costs that field alone.
An import is always a new list. Importing into an existing one would mean
deciding what happens to a place that is already there, and every answer to
that is a merge nobody asked for.
A public link showed a stop as its name and one line under it, the address
or the description, whichever came first. The owner had written both, and
a note on the place and another on the day, and had set how long they meant
to stay and how to reach it. All of that shows now, laid out the way the
planner lays it out, and every link leaves the page in a new tab with no
opener. A booking shows the note the owner attached and the page they
linked, labelled by where it goes.
What travels to the page is chosen column by column now, where it used to
be the whole row. The whole row of a booking carried its confirmation
number, its import trail and its raw metadata, and the metadata is where an
imported ticket keeps its seat and its record locator; the whole row of a
place carried the owner's booking notes on it and the Google identifiers.
None of that belongs to somebody holding a link. Metadata keeps the parts
that describe the journey, by an allow-list, so a field the import starts
writing tomorrow does not become public by appearing. Links are accepted
only as http or https, on the server and again on the page.
TREK searches its own place index and OpenStreetMap. Neither carries a rating,
so "the best rated hotel around here" has never been answerable, and an operator
with a better index for their region had no way to reach the search box at all.
The searchProvider hook is that way in: a plugin is handed the query, a limit,
the language and the coordinate the search is biased toward, and answers with
places in the same shape the core search returns, plus a rating.
It sits beside the core search rather than inside it. The plugin runtime already
imports PlacesModule, which imports MapsModule, so asking the providers from the
maps service would close a module cycle — the same reason the other fourteen
contribution controllers stand next to what they contribute to. The client asks
both at once and merges, at the single point every caller already goes through,
so all nine search surfaces get plugin hits without knowing the hook exists.
A plugin index may never hold up the list: the client stops waiting at two and a
half seconds and the host gives a provider two, which is also why the budget is
the shortest of any hook here. With no such plugin installed the route answers
without reaching the runtime at all.
Every hit is normalized host-side and shared by the REST route and the MCP tool,
so a cap that holds for the browser holds for the assistant: coordinates are
range-checked, strings capped, the rating clamped to 0..5, a website must be
http or https, and ids are namespaced so they can never collide with an OSM one.
search_places_via_plugins is the MCP half, because what the user can see the
assistant has to be able to see; search_place now points at it.
Two people shaping one drive were each editing their own copy: a via dragged on
one screen reached the other only on the next reload, and the route it changed
looked settled until then. Every write in the domain now announces itself over
the websocket the rest of the trip already uses — the five REST routes and the
matching MCP tools alike, so an assistant moving a stop is as visible as a
person doing it.
Two new trip-scoped events carry it: roadtripVia:changed with the day's whole
via list, and roadtripTrack:changed. The whole list rather than a delta, because
a via is identified by its position in a chain and a delta protocol would need
an ordering guarantee to be worth anything.
The originating socket is excluded through the X-Socket-Id header the other
domains already forward, so nobody watches their own change arrive twice.
The fill level was one figure for the whole trip, and a trip does not have one.
A motorway rapid charger is worth about 80 % because the last fifth costs as
long again; the charger at the hotel is worth all of it because the car stands
there all night. Between those two the difference is a whole leg, and a single
setting has to be wrong about one of them.
So the badge on a refuelling stop is now the way in: it shows what that stop
will actually fill to, its own figure or the traveller's, and opens a panel of
the six answers people actually give. Under them it says what the choice buys in
kilometres, because 80 % is an abstraction and "about 290 km from here" is the
thing being decided. Picking the figure a stop already has hands it back to the
setting, the same gesture the kind picker uses to un-pick a kind.
The value lives in places.fill_percent, beside stop_type, because it is a
property of the stop rather than of the person. Null means "follow the setting",
which is every stop that predates the column and every stop nobody has an
opinion about, so nothing changes for a trip that never touches it.
Two pieces of shared machinery came out of it rather than being copied. The
popover chrome — measure before showing, flip when the window is short, close on
an outside click, Escape or a scroll — is one component now, used by the kind
picker and this one. So is the assembly of the range from seven settings, which
the routes hook and the rail both need and which would have drifted the first
time a field was added.
Dragging a via somewhere else on the map changed where the point IS and never where it
sits in the chain. The anchor that decides which two stops it is threaded between was
worked out once, when the point was dropped, and the drag sent only coordinates —
`roadtripViaUpdateRequestSchema` carried a lat and a lng and nothing else.
So a via pulled past the stop it used to precede kept claiming the earlier leg. The
router then drove out to it and turned back before carrying on, which on screen is not a
subtly wrong route: it is a spur that reads as the drag having done nothing at all, with
the original road still sitting there unchanged.
The anchor is not a property of the point but of where the point sits along the drive, so
it is recomputed on a drag the same way it is on a drop. The projection that did that was
inline in addRoadtripVia; it moves to a shared `anchorFor` and both callers use it.
A drag differs from a drop in two ways, both deliberate. It measures against its OWN day:
letting the nearest day win, which is right for a click on open map, would hand the via to
a neighbouring day whose road happens to pass closer and make it disappear from the day it
was dragged in. And it has no 2 km guard: pulling a via well off the current road is
exactly what the gesture is for, and the anchor only says which leg gets bent.
`after_order_index` is optional on the way in, so a drag inside one leg and an older
client still send just the coordinates, and the stored pin is then left alone rather
than cleared.
The switch a road tripper keeps asking for has never worked. OSRM's `exclude` is the only
avoidance TREK has, and the two public hosts it ships with answer it HTTP 400 on every
leg: their car profile is built without excludable classes, and their own Lua says why
("no memory for classes on demo server"). So "drive this without the tolls" produced
nothing at all on a default install, and the fallback inside the alternatives bar quietly
gave up after one refusal per host.
FOSSGIS runs a public Valhalla on the whole planet next to that OSRM, keyless, and there
avoidance is a runtime weighting rather than a profile that has to be rebuilt. This adds
it as a second engine asked only the questions the first cannot answer, and puts three
switches under the road trip settings that change the road itself rather than offering an
alternative beside it. Paris to Lyon measured 465.8 km / 297 min with tolls against
492.0 km / 454 min without; Hamburg to Copenhagen comes back ferry-free at 469.8 km,
which OSRM cannot produce at all — where a ferry IS the crossing it answers NoRoute
rather than driving round.
Four things the docs would have got wrong, all measured against the live instance:
- `format=osrm` does not carry `has_toll`. That flag is the entire reason for doing this,
and it exists only in the native answer — which is also 5.7x smaller, because the OSRM
shape drags every intersection along. So the adapter translates instead of borrowing a
familiar envelope.
- Without a `radius` Valhalla refuses a point it cannot bind to a road, where OSRM still
snaps one. Vienna's Stephansdom, in a pedestrian zone, answers error 442 until a search
radius is allowed. TREK is full of such places, so every location carries one.
- Ten locations is a hard cap and a road trip day is bundled into one request. A day over
it is split into runs overlapping by one point, which is exact rather than approximate:
a measured six-stop day came back within two metres and under a second of the same day
asked whole.
- Its drive times run 5.4 % above OSRM's over ten European legs and 36 % above on one, and
those times feed the arrival clocks of a day. So a day is answered by one engine or by
neither, never by both, and a piece that will not answer loses the whole day rather than
half of it — the schedule chains leg times blindly and would otherwise print a complete,
plausible, silently wrong timetable.
Because the weighting can fail, the honest surface is the answer rather than the request.
`use_tolls: 0` still returns a tolled road where there is no untolled crossing, so what
the road actually turned out to be is read back per leg, and a day that could not avoid
what it was asked to avoid says so on its own header instead of wearing a label the road
disproves. The switches disable themselves, with a reason, on an instance pointed at its
own OSRM: that operator chose against public hosts, and a second one they never asked for
would undo the choice.
Two things that would have broken quietly and did not:
- The route cache keys on `profile:unit:coords` and is shared with the day planner, the
studio and the booking geometry. Without the avoidance in the key, flipping a switch
returns the old road out of cache in under a millisecond — and worse, an avoiding answer
stored under the plain key hands those other callers a road nobody drives.
- `snapped` is OSRM-only and carries the dashed kerb-to-door spur from #2273. Valhalla
echoes the coordinates it was given and never says where it bound them, but the ends of
a leg's line are exactly those points: measured against Füssen, its first vertex matches
OSRM's snapped location to the digit.
The alternatives bar gets the same engine, which finally makes its "no motorway" and "no
tolls" offers appear on a default install, plus a ferry-free one. `sameRoad` now compares
geometry rather than numbers there, because two engines' distances for the same road sit
kilometres apart and the old 200 m tolerance called that a discovery.
Desktop only, like the whole road trip mode: nothing under client/src/mobile renders it.
The half of the change that saves the pick from a text search for its own
label was covered by nothing. MAPS-AUTO-010 reads `source` and stops there;
the client test writes the coordinates into its own mock and then asserts them.
Delete `lat: p.lat, lng: p.lng` from the service and both stay green, while the
fallback quietly goes back to searching for "Tokio Hauptbahnhof, 東京駅丸の内駅舎"
and taking whatever comes back first.
So the server test now asserts the coordinates on the wire for both indexes,
and the mobile sheet — which carries a copy of the same fallback and had no
test for it at all — gets one for the fallback and one for the source mark.
Seit die Tipp-Suche beide Schichten fragt, ist ihre Liste gemischt — die
Antwort nennt aber weiterhin EINE Quelle fuer die ganze Liste, und die heisst
'trek-places'. Der Client beschriftet damit jede Zeile, auch die aus
OpenStreetMap. Wer tippt, liest also acht Mal "TREK" und schliesst daraus, die
OSM-Schicht antworte gar nicht. Sie antwortet, sie steht nur unter falschem
Namen da. Auf der Suchstrecke daneben stimmt es laengst: dort traegt jeder Ort
sein eigenes `source`, und genau deshalb liest sich diese Liste richtig.
Also traegt es jetzt auch die Zeile. Das Feld ist optional, weil Google und der
Nominatim-Rueckfall je aus einer Quelle antworten; eine Zeile ohne eigene
Angabe faellt weiter auf den Namen der Liste zurueck.
Dazu die Koordinaten, die der Vorschlag ohnehin schon kennt. Bisher wurden sie
weggeworfen, und wenn der Details-Aufruf nicht antwortete — Kill-Switch, ein
ueberlasteter Overpass-Spiegel, irgendein Fehler oben — baute der Client eine
Textsuche aus Name und zweiter Zeile. Bei einer OSM-Zeile ist die zweite Zeile
aber keine Adresse, sondern der ortsuebliche Name: gesucht wurde dann nach
"Tokio Hauptbahnhof, 東京駅丸の内駅舎", und dessen erstes Ergebnis wurde
kommentarlos als der Ort genommen, den der Nutzer angeklickt hatte. Jetzt
nimmt der Rueckfall den Punkt, den die Zeile mitbringt.
Und das Abzeichen gibt es endlich auch mobil. Die Marke und ihre Tabelle
liegen dafuer in client/src/utils/placeSource.ts, weil beide Oberflaechen
dieselben Listen zeigen und ein Zeichen, das nur auf einer davon steht,
schlimmer ist als keines.
Was hier NICHT drin ist, obwohl es dazugehoert: dass der richtige Bahnhof in
der Liste steht. Das liegt am Dienst, nicht an TREK, und ist dort gemessen und
behoben — Rangfolge nach Art des Ortes plus die Verkehrsknoten, die der
OSM-Schicht ganz fehlten.
The satellite toggle has worked on Leaflet for as long as it has existed and did
nothing at all on a GL map, which is the default renderer since the vector basemap
landed. Not for want of the layer: connect-src never named server.arcgisonline.com.
Leaflet asks for a tile as an <img>, and img-src waves every https: host through,
so the gap could sit there unnoticed for as long as Leaflet was the only renderer
that showed the imagery. A GL map reads the raster through fetch to hand it to
WebGL, and that lands on connect-src instead, where the host is missing. The
browser refuses it in the document, which is the worst shape a failure can take
here: the switch flips, the layer goes on, the source is there, and no tile ever
arrives. Nothing in the app can see it either, because a CSP refusal is not an
error the fetch can catch.
The prefetcher asks for the same tiles the same way, with mode 'no-cors', which
relaxes CORS and not CSP, so the imagery was never cached for offline use either.
Same shape as #2180, which added the other two raster presets for exactly this
reason and did not reach this host.
Typing "Tokio station" from Tokyo suggested a weigh station in Ritzville and a
station in Tuxtla Gutiérrez, and typing "Tokyo Station" put Japan in seventh
place behind Markham, Arlington, Calgary, Milano and Melbourne. The station
itself was never in the list.
The service has had the answer all along. Its OpenStreetMap layer carries 14.6M
travel places with every name form each is known under, including the exonyms a
traveller actually types, and it is not the same data as the index: Overture
holds businesses, so a search for a station finds the shops inside it. The layer
returns "Tokio Hauptbahnhof" for the German spelling and 東京駅 for the Japanese.
It was never asked. `sources` defaults to the index alone and trekPlacesSearch
never sent the parameter, so no caller here has ever seen a layer row.
Sent on the autocomplete path only. The explicit search asks Nominatim in
parallel and would get the same OpenStreetMap places twice; this path asks
nobody else, because Nominatim's usage policy names autocomplete as
unacceptable use. So the layer is not a second opinion here, it is the only
place those names live.
A layer row has a different shape, and that shape is why this is more than one
parameter. It has no `gers` and no address block, and its id reads
`osm:node/9712313` where this file resolves `node:9712313`. Passing it through
untranslated would hand the client an id getPlaceDetails does not know, and the
failure would land after the user had already picked the suggestion. The
secondary line falls back to the local name, which is what is written on the
building and more use under a translated label than an empty line.
Measured against the service before the change, same query, same coordinates:
"Tokio station" index only -> Tokio Weigh Station, Ritzville US
with layer -> Tokio Hauptbahnhof in second place
"東京駅" index only -> six restaurants inside the station
with layer -> 東京駅 itself in the list
Every route is calculated in the browser against the public FOSSGIS hosts, so the
server never sees a routing request and nobody has a number: not how many a real trip
costs, not how big they are, not how much already goes to a self-hosted engine.
Deciding whether TREK could run its own router without that number is guessing at the
bill, and the counters have to be collecting before the question comes up.
Counters, not a log. A row is a day, a profile, a request kind and an engine kind with
totals on it: how many requests, how many waypoints, roughly how far, how many were
refused. No query, no coordinate, no route, no user, no trip. Nothing leaves the
instance: its own database holds them and its own admin reads them at
GET /api/route-usage/summary.
The client tallies in memory and flushes in batches — on a timer, past a threshold and
when the page is hidden — because a counter that cost a request of its own would
measure the load by adding to it. Routing all funnels through one fetch in
RouteCalculator, so that is the only place instrumented.
On by default and switchable off with route_usage_enabled, unlike the shadow log next
door: that one stores what people typed, this one stores four integers about a day.
`ReturnType<typeof of>` resolves against the zero-argument overload, so the
stub only accepted `Observable<never>` and SPOOL-001 could not hand it the
`of('ok')` it needs. tsc -p tsconfig.tests.json broke on it, which sank the
server preflight job and with it every coverage job that needs it.
The chat images never reached a test: committing them to storage, taking them
back out when a later one fails, and dropping them again when the reply target
turns out to be gone. The interceptor that removes the spool when a request
dies before the handler had none either, and it sits in a domain pinned at 99%
function coverage. Both filters are pinned too, including the disguised
extensions that were the point of changing them.
The three collab:link events were broadcast and landed nowhere: the links
panel held its own list and never listened, so a link somebody else added
showed up on the next reload. It listens now, the same shape the notes panel
uses, and the events are classified in the client's WS policy, which is the
ratchet that caught this.
Four e2e harnesses build their own trip_files and one asserts the collab
feature set, so the new message_id column and the new links flag had to reach
them too. Two MCP unit tests pinned the old four-key feature object.
The desktop layout rendered notes and links as a pair and dropped whichever of
the two was on its own, so turning the new Links feature off on an otherwise
default install made the Notes panel disappear. Both rows are now split by kind
and rendered only when they hold something, and one function decides what a
panel id renders, because the branch that lost a panel did so by not listing it.
The message and its attachment rows are written in one transaction. The caller
has already committed the image bytes by then, so a message that landed without
them left those bytes with nothing pointing at them and nothing to sweep them.
Deleting one now drops the blobs after the rows are gone rather than before.
A body the Zod pipe rejects used to leave up to four spooled images on disk:
pipes run after interceptors, so multer had already written them and the
handler's own cleanup was never reached. An interceptor removes them on any
failure before the handler, which also covers every other schema mismatch, and
the length check that could never fire is gone.
Adding, pinning and deleting a link now says something when it fails instead of
raising an unhandled rejection, the list has real types, and the rejected-image
toast is translated in all 23 locales rather than shipping English everywhere.
The picking, previewing and clearing of chat images moved into one hook both
shells use: it was copied into two, and both rebuilt every preview on each
change and leaked an object URL per image per pick.
Tests: the four link routes end to end with the validation pipe the harness was
missing, the image filter against the disguised-extension case, and the layout
combinations that drop a panel.
The chat image filter believed the Content-Type the client put on the part.
The stored name keeps the extension of the name the client sent, and the
download route derives what it serves from that extension and sends it inline,
so pwn.html declared as image/png came back as HTML on our own origin. The
filter now checks the extension as well, against the blocked list and against
the types it claims to accept, because a per-route filter fully replaces the
module-level one it looked like it was adding to.
The multipart message route also kept its guard decorators. Guards run before
the interceptor, so a refusal went out while the client was still streaming up
to four images and the socket died as ECONNRESET rather than carrying the
error. The checks moved into the handler, where the other upload route in this
file already does them, and a test pins both refusals.
The three collab:link events were missing from the shared registry, which the
server typecheck refuses, and the admin Links switch could never be saved
because the Zod contract had no key for it. Both are in now. Migrations moved
to the end of the list and the column add uses the pragma guard rather than a
caught duplicate-column error.
The message-required string keeps its old wording for a request without a file
part, so a client from before this route took images sees what it always saw.
listFiles projects linked_budget_item_ids now, so the harness table it selects
from needs budget_item_id or every list call in that file answers 500. Same
gap the collab harness had.
Attaching a receipt no longer lets the budget domain delete one. Trashing the
file was reachable from the REST route, the MCP tool and the plugin RPC, none
of which check file_delete, and a receipt id is any file on the trip, so anyone
who could edit an expense could trash a document they were not allowed to
touch. A concurrent edit could do it by accident: the client sends the full set
of receipt ids from a snapshot taken when the form opened, so saving an expense
someone else had just attached a file to moved that file to the trash. Removing
a receipt now removes the link and nothing else.
The link row is treated as shared, because it is. One row can tie a file to a
place and to an expense at once, so the sync clears only the receipt half and
leaves the rest, the foreign key is SET NULL rather than CASCADE, and a receipt
already in the trash keeps its link so restoring it comes back attached.
The upload and its rollback moved into one module both shells call. It was
copied into six places, and all six rolled back with the permanent-delete
route, which only accepts a file that is already in the trash and therefore
answered 404 every time: a failed save left every uploaded file on the trip,
attached to the expense, and the next attempt uploaded another copy. It now
trashes first, keeps the pending files for the retry, and says so when a file
could not be removed instead of swallowing it.
Escape in the receipt viewer no longer closes the expense form behind it, the
download fallback uses a real accent class rather than a utility that does not
exist, and the upload indicator is actually switched on.
Tests: the receipt link behaviour on both service paths, the four new branches
in the files service, the upload module, and the viewer.
Maurice