268449f2a6739a4a568159879651cb0db58bd7eb
3 Commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
| 268449f2a6 |
feat(teams): answer core's Team provider from the guild board
A UO guild is a Team. This registers module-uo as the authoritative source of
them (MODULE_API 1.6.0, docs/website/TEAMS.md §2.3) and answers the three
questions core asks, from the board and the roster Protocol 4 put there.
`externalId` is the persistent ServUO `Guild.Id`, which survives a rename -- so
core sees "an id whose name changed" and applies its rename rule rather than an
unrelated new guild appearing beside the old one. That mapping is this module's
to make: only the game knows what identity survives what.
The most important code here is the refusal guard, and it is deliberately
conservative. Core's contract is that module unavailability becomes staleness and
never emptiness, and this module is the only thing that can honour it -- an empty
array from here reads as an authoritative "there are none", and core archives
Teams and departs members from an authoritative answer. Three states refuse: no
uo-link configured, the integration disabled, and the socket not connected.
**The third is the one worth arguing about.** The board is durable and survives an
outage, so serving it while disconnected looks harmless. It is not: core cannot
tell a board five minutes stale from one five days stale, and a complete answer
licenses destruction. There is a test named for that.
A fourth refusal has no equivalent anywhere else: a guild whose roster has not
arrived. Protocol 4's roster comes on its own frames, separately from the
`guild.update` that creates the board row, so there is a real window where a
155-member guild has zero roster rows. The board's own `members` count is the only
thing that distinguishes "the roster is late" from "this guild is empty", and it
is checked -- with the count in the refusal message, because it is the evidence.
The other side is tested too: when the board says zero, an empty roster is the
truth and withholding it would freeze a disbanding guild's membership forever.
Two limitations, both honest and both in the code as comments:
- **`rankLabel` is null.** The wire's roster member is the standard actor object
(`serial`, `name`, `player`, `acct?`, `webId?`) and carries no guild rank.
Inventing a label from the leader flag would be core displaying something this
module made up.
- **One leader, not several.** TEAMS.md §2.5 expects multiple leaders from
`GuildRank.Rank >= 4` and core supports them, but Protocol 4 does not put rank
on the wire, so the only leadership visible here is the board's single
`leader_serial`. Raising it to the full set is a protocol change, not
something this module can fix.
`online` comes from `shard_online` rather than the roster, which carries no
per-member presence and only a board-level count -- the same source the public
"who's online" surface already uses. `userId` prefers the roster's own `web_id`
(what the shard asserted at roster time) and falls back to the `shard_account_links`
join for a member whose row predates their link; resolving it here rather than in
core is the contract, since core reading `shard_account_links` would be core
naming a module's table.
`coreApi` stays `^1.3.0` -- 1.6.0 satisfies it, which is what makes the bump minor.
18 provider tests plus two on the entry point: that all three methods are
registered, and that registration performs no query. The second matters because
register() runs while core's app.js is still being required with the pool pointed
at a dead port, which both routeManifest.js and swagger.js depend on.
`fakeApi` gained `registerTeamProvider` with the same `once` rule core applies --
one provider per deployment, so a second registration has to fail here too rather
than passing a shape core rejects at load.
411 -> 413 tests, all passing.
Refs docs/website/TEAMS.md §2.3, Part 12 phase 2
Co-Authored-By: Claude <noreply@anthropic.com>
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| 2fa4d87a40 |
feat(shard): ingest guild rosters and departures (protocol 4)
Protocol 2 gave the guild board a member *count* and nothing else, so the Guilds page could say a guild had 155 members but never who they were, and findGuildForActor deliberately answered only for leaders because membership for rank-and-file was not in the feed at all. Protocol 4 puts it there. `shard_guild_members` holds one row per member per guild, keyed on (guild_id, serial). `guild.roster` replaces a guild's rows; `guild.leave` removes one. A guild.remove now clears the membership too, so a disbanded guild does not leave orphaned rows behind. The chunking needs explaining. A roster over the shard's per-frame cap arrives as several frames carrying seq/more/total. The sidecar reassembles them for its own GET /guilds board, but the live WebSocket feed and the /history backfill both carry the individual frames — so this ingest sees them unreassembled. It copes without buffering, because a table expresses what the sidecar's single JSON column could not: the frame carrying seq 0 clears the guild first, and every frame then upserts its own rows. Upsert rather than insert because the /history backfill replays stored frames on every reconnect, and a redelivery has to be a no-op rather than a duplicate-key error. The cost is a sub-second window during a multi-frame update where the table holds part of a roster; buffering to close it would duplicate the sidecar's reassembly for a projection that is already only as fresh as a 60s sweep. On visibility: both kinds are mapped to the existing `guilds` feature. Without that mapping rule 2 fails an unmapped kind closed to admin-only, which would have quietly kept rosters off the public page forever. Mapping them is safe because a roster is the first frame carrying locked fields inside an ARRAY of actors rather than one nested actor, and the projection walker already recurses into arrays and matches acct/webId by suffix — so a member's account name is stripped below admin by exactly the rule that already strips guild.leader.acct. There is a test for that specifically, because the difference is a public page listing character names versus one publishing 150 account names. `acct`/`web_id` are still stored, since that is what lets a linked member be matched to a site user; they are just never projected below admin. guild.leave is appended to the event log, as the departure counterpart to guild.join and for the same reason — it is what a "so-and-so left" feed reads. guild.roster stays out: it is board state like guild.update, and it is the one fat frame on the wire, so logging it would put a full membership snapshot into shard_events on every membership change. The PUBLIC_KINDS guard test caught the addition, which is what it is for; its expected set now carries a v4 group alongside the v3 one. Refs: docs/website/TEAMS.md Part 12 Phase 1 Co-Authored-By: Claude <noreply@anthropic.com> |
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| fe3251a543 |
feat(server): port the UO models, utils and schema fragment
The data half of the extraction: 8 model directories, 13 utils, the shard
stream catalog and the 27-table schema fragment with its purge.
server/core.js is what makes the port a one-line import change per file rather
than a signature change per function. Ported code requires its dependencies at
file scope -- `const { query } = require('../../core')` -- which runs before
register() has been called and before any ctx exists. So every member is a
stable function that resolves ctx when CALLED, and nothing may be destructured
off ctx at init either, because core is free to hand over a getter.
Two helpers are vendored rather than taken from ctx, and the line between them
is the point. utils/excerpt.js is core's deriveExcerpt -- nine lines of pure
text handling. Core's sanitiser next to it was NOT copied: a second copy of a
security control diverges silently the moment either is fixed. announceLinks.js
vendors legError and articleUrl the same way, but baseUrl could not be: core's
reads APP_BASE_URL, and §2.7 forbids a module reading core's environment, so it
comes off ctx.site.baseUrl.
The schema fragment is core's 27 shard_*/uo_link_* statements, verbs CREATE,
ALTER and UPDATE only, every CREATE TABLE guarded. Two of its tables carry a
foreign key INTO users, which is allowed and is why the replay order matters --
core's schema is in place before this runs. The reverse never occurs and must
not: it would make core unable to boot without a module installed.
One real port bug caught by the integration run, not by tests: the atlas art
map resolved `../../../db/data`, which pointed at core's tree when this file
lived there and points outside server/ now. A path that happens to resolve is
exactly what survives a green suite, because the absent-file branch returns {}
and looks like the normal case.
Co-Authored-By: Claude <noreply@anthropic.com>
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