A person was in exactly one project, chosen at approval, and could not
use the gateway before that. People belong to several teams and to
none, so:
- memberships: a person is a member of any number of organizations,
teams and projects, or of none; a member of a team or organization
may use every project in it. users join/leave, and the people page
adds and takes out from either side. Approval no longer needs a
project.
- personal keys: a key may have an owner and no project. /profile asks
what a new key spends against; keys create --for does the same.
auth.personal sets default limits for personal use or turns it off.
- limits for people: --scope user holds a person across every key,
project and the chat page; --per-member on an org, team or project
gives each member their own share there. Resolution folds the tree,
each per-member limit for the key's owner, and the owner's own, each
in its own pool; the quotas page shows and sets both.
- the chat page asks what to spend against and checks it per message.
- usage records who spent it, so a person's budget survives a restart,
personal use and chat included; restore no longer drops rows with no
project.
Leaving a project revokes the keys made there unless another membership
still reaches it. A personal key keeps no threads or notes, which are
per project, and is refused rather than dropped into the anonymous pool.
Migration 0010 turns each person's project into a membership, adds
usage.user_id and backfills it, and makes api_keys.project_id nullable.
SQLite cannot drop NOT NULL, so the table is rebuilt; that needs foreign
keys off, which only works outside a transaction, so migrations marked
for it run on one connection with foreign_key_check before commit.
Tested on a populated SQLite store with claims, and on a copy of the
cluster's PostgreSQL store: 5 people became members, 17 keys and 3
claims intact, 145 of 577 usage rows and all 69 chat rows attributed.
The PostgreSQL store tests, including new membership cases, pass on 16.
users move is gone; join and leave replace it.
Co-Authored-By: Claude Opus 5.5 (1M context) <noreply@anthropic.com>
A path is still SQLite and a postgres:// URL is PostgreSQL, so every existing
configuration keeps working untouched and moving is one line changed rather
than a new setting to find. An address of the form @/path/to/file reads the
real one out of that file, which is how a DSN carrying a password stays out of
a configuration that gets copied, diffed and pasted into issues.
The driver is pgx, which is pure Go. That is not a preference: the whole binary
is built with CGO_ENABLED=0 so it runs on a node whose libc is older than the
builder's, and a cgo driver would take that away from every deployment,
including the ones still on SQLite.
Tested against a real PostgreSQL, which found two things nothing else could.
The schema_migrations table is created in Go rather than in a migration file,
so it escaped the port and still said INTEGER — 64 bits in SQLite, 32 in
PostgreSQL, and a millisecond timestamp does not fit, so the very first
migration failed to record that it had run. And the memory migration uses an
FTS5 virtual table with three triggers keeping it in step, which has no
counterpart: PostgreSQL derives a tsvector from the row, so there is nothing
to keep in step and no trigger to forget.
That leaves exactly one query that is not the same sentence in both dialects —
the note search, MATCH against @@ — and it is written out twice rather than
hidden behind a shared spelling that would mean something subtly different in
each. Everything else is one set of queries.
The text search uses the 'simple' configuration rather than English. These are
an agent's own notes, in whatever language it chose, and stemming English
rules over Turkish would quietly stop finding things.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Phase 5 begins. This is the persistence layer for the things the cluster
cannot reconstruct — who may call, what they are allowed, what they used.
Everything else llmgw knows is still derived from the fleet, which cannot be
wrong about itself the way a database can (§6.5).
SQLite behind an interface. The plan justified that by write volume, which was
the wrong argument: the write path is batched anyway, and a 500-row
transaction every 200ms is nothing for either engine. The real argument is the
failure mode. Postgres is a second service, and a gateway that stops serving
because its accounting database is unreachable is worse than one that buffers
some accounting. Embedded means the store shares the gateway's fate instead of
adding an independent way to be down. That reasoning stops holding at two
instances, where budgets have to be counted somewhere shared — so the
interface is here from the start, the SQL is portable, and migrations are per
dialect with shared version numbers.
Keys are stored as sha256 and nothing else, so a database leak hands over no
working credential. The fast hash is deliberate: the input is 256 random bits
with no dictionary to attack, so argon2 would buy nothing and charge tens of
milliseconds per request. That assumption is written down next to the code
that depends on it.
Two things the schema now says that it did not: budgets are integer
micro-units, because repeated addition of floats drifts; and an empty model
allowlist forbids everything while an absent one permits everything, which the
resolver has to keep distinct.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
