A node carries its operator account (name + home; migration 0036, Node.Account,
SetAccount, 'node account' CLI). The account and its home are offered as
machine facts ${machine:account} / ${machine:account-home}, and machineInto
now resolves placeholders in a resource's path and owner (not just content), so
a module writes into a person's home naming what it cannot know. A RosterFile
gains Home: the file is placed under the account's home and chowned to it, its
template sees each node's Account, and a machine with no account gets none —
this is how the ssh Host blocks for every node reach a person's ~/.ssh. Roster
carries per-node accounts (Rendering.Accounts). Tested, including ssh-client
composed end-to-end. Not deployed.
Phase 1 made the set data; a rename still broke every reference to the old
name. This adds the stable identity: a seat's canonical name changes and its
old name becomes an alias that resolves to it forever. SeatNamed and the holder
and display matching resolve a name (former or current) to its seat, so a
manifest's claim, a held record, the git-seat lookup and the build machine's
embedded set all go on working unchanged after a rename. seat_alias table
(migration 0035), inventory Aliases/RenameSeat, openInventory loads them, and a
'seat rename <from> <to>' command does the whole thing — one operation, no
rebuild, no re-registration, no freeze. Behaviour-neutral until a seat is
renamed. Validated against postgres.
The seat set was a Go slice compiled into the controller and referenced by
name everywhere, so changing it meant a rebuild and a freeze-prone deploy. It
is now a table: catalogue keeps the shipped set as defaultSeats (the seed and
the fallback) and a loadable working set; inventory adds the seat table
(migration 0034), Seats to read it, and SeedSeats to fill it idempotently
without overwriting an operator's edit; migrate seeds it; openInventory loads
it, and an empty or unreadable table leaves the compiled defaults in force so
it can never brick the control plane's boot.
Behaviour-neutral: the seeded table equals the defaults. Phase 2 (reference by
a stable id so a rename touches no manifest or code, and the builder reads the
set from the mesh) follows.
Carries MTU from the reported tunnel (mesh-host#28) through inventory,
the overlay graph's TakeOver, into the generated config's [Interface].
A tuned path keeps its MTU across the takeover instead of regressing to
1420 and hanging transfers no ping would reveal. Two emit tests; a
tunnel with no MTU writes no line.
The tunnel the hub took over routes to machines the predecessor knows
by name and the mesh knew only by address — taking the resolver in that
state silences three machines at once. Now the operator states which
machine a carried address is (overlay name <address> <name>), the
statement rides tunnel_peer.named, and namesInTheMesh answers for named
not-yet-enrolled peers — one reading, so the hosts fact, a container's
hosts and the resolver cannot disagree. Enrolment verifies the word:
a machine enrolling under a named peer's key with a different name is
refused where the operator can read it, the stated name keeps the
carried address, and an enrolled peer's name is the node's — naming it
again refuses. The issue's rule holds: a name the predecessor answers
for keeps resolving until the machine behind it is a node.
One assignment of a module per node is now the rule, not a limitation —
the operator dropped the multi-assignment requirement, and the schema's
(node, module) key has been the decision since migration 0005. What
changed: Assign reports whether the assignment was new, and the command
says 'already runs — one node runs one of each (ADR 0115); nothing
changed' instead of printing 'is assigned' for a no-op, which read as
an action that happened. Idempotence stays: a repeat is exit 0, because
a script stating what is already true is not wrong.
Implements novox/hq ADR 0110 and 0111.
The seat set lives in internal/catalogue/seats.go: fourteen seats, each with a scope, what occupying
it delivers, and the record that made it one. A test asserts the count and a decision per entry, so
changing the set means finding the argument, as the host's vocabulary test does. The first set is
every seat already claimed — including the-private-network, which the network module claims from a
manifest composed in this repository's code, not from any module.json — plus npm-package-registry
(ADR 0109) and git (ADR 0111). A test parses every catalogue manifest and this repository's own and
fails on any refused claim, so closing the set refuses nothing in use.
ParseManifest now refuses a claim on a seat the mesh does not define, a seat claimed at another
scope, and a delivering seat claimed by a module that does not provide what it delivers. A
malformed claim is refused once, for being malformed.
Resolution: among several providers of a mesh provision, a pin still wins; then the holder of the
seat that delivers it; then the only provider; otherwise refused as before. ADR 0009's "never
guessed" holds — the seat is the choice made once, mesh-wide, rather than a pin per consumer node.
A provider now carries the module it came from, because a provider is a (node, module) pair and the
pair is what tells a holder from a neighbour on the same machine.
The planner's second pass is now given the first pass's holdings. Without them, a node consuming a
seat-delivered provision was refused there, and a refused node's own claims dropped out of what the
mesh holds — letting a second holder of one of its seats pass unrefused.
`seats [--json]` lists every seat, what it delivers, and each holder, derived from assignments
every time and never stored. Unheld seats are listed. A stored claim outside the set — possible
for a manifest registered before the set closed, since stored manifests are not re-validated — is
shown rather than hidden.
`build --self <owner>/<repo>` builds from a repository on the git seat's holder. The clone URL is
composed at build time from the holder's node and what it serves for git; the recorded source is the
path and the seat (migration 0032), never an address, so a moved forge changes nothing recorded.
Nobody holding the seat refuses self-hosted builds and says so; external URLs are unchanged. An
address passed with --self is refused rather than recorded as a path.
Replaces three foundation tests that defended the builder's carried package binding. The catalogue
removed that binding when the builder began requiring the registry through a real grant, so the
tests were already failing on main; they now assert the builder requires what the npm seat delivers
and carries no copy of its own, and that the forge holds the npm and git seats.
Verified: go vet clean; the whole suite passes against a throwaway Postgres (make postgres), the new
inventory tests included; gofmt clean apart from cmd/mesh-builder/stdout_test.go, which fails on
main too.
Review of the ADR 0105 build (hq ADR 0105). Four things it got wrong and one
path it lacked:
- A predecessor spoke's tunnel names one peer, the hub, routed the whole
range; recording refused it and the whole enrolment failed. Range-routed
peers are skipped now — only the hub's peers are ever carried.
- The range and the carried peers were conditions on the node being adopted,
so converging the hub would have renumbered the mesh and dropped the peers
still reaching it. They are facts of the tunnel record now, mode aside; the
takeover alone is declared to an adopted node. Converging the hub is refused
while a carried peer has not enrolled, naming it.
- A push composed a takeover for a hub whose address or endpoint disagreed
with the tunnel, which would have the host stop the found interface and
raise the mesh's where no peer listens. The graph refuses to compose it,
naming both and the placement that fixes it.
- The host's account said taken or not; "found down and the mesh's not up"
read as not taken. Three states now, and an account on every takeover.
- A hub that enrolled before this feature holds a key of its own, and
re-enrolling would rotate every key the mesh sealed credentials to. A node
now rekeys in a report, signed with its identity key over the key it
leaves, the key it takes and the tunnel; the mesh verifies against the live
key, refuses a stale or foreign proof, records key and tunnel, and moves a
hub to the tunnel's address. `overlay show` names the path for a hub that
found no tunnel.
Also: a carried IPv6 peer is routed /128, and identity.ForTest exists so the
link can be tested against a real identity store.
On an adopted hub the private network takes over the tunnel it finds rather
than running beside it (hq ADR 0105): two tunnels leave the mesh's unreachable
through the provider's filter, so no machine can ever join.
The node presents the found tunnel when it enrols, under the key it took as
its own; the inventory records it (node.tunnel, tunnel_peer — migration 0031)
and the mesh composes from it: the overlay's range is the adopted tunnel's,
the hub is placed at the tunnel's address on the tunnel's port, and every
peer the tunnel had is carried in the hub's peer list as a peer of the
tunnel, not a node of the mesh, until a node enrols with that key — which
then keeps the address the tunnel had for it. A fresh node never gets an
address the tunnel holds. The hub's declaration tells the host which unit to
take over; the host's account of carrying it is recorded and shown.
Every reader of the range follows the setting; nothing stores it. A found
tunnel under another key is recorded and not adopted, so ADR 0100's
non-overlap rule keeps applying where a tunnel is left running beside the
mesh's. A lab bed and test skeleton for "How it is checked" are under lab/.
A secrets object with one local name delivered no file. Two requirements could share
a local name. secret recover and the export could not tell two locals apart. The
recipe check missed continued lines and read heredoc bodies as bases. repo:tag@digest
kept the tag in the repository. ask now publishes mandatory, so a tool nothing serves
is said at once rather than after the wait.
secrets: maps a requirement to several files under local names. Each local name is
its own need, its own pair credential (the pair is keyed on it: migration 0027),
its own file on the consumer, its own holder at the provider (the identity with the
local name after it) and rotates apart from the others. The plain shape is
unchanged and every existing row is the credential it was (novox/hq 04-ISSUES/069,
ADR 0094).
The host's error text may carry a duration or a counter, and a resource looping on
it would never have read as stuck. The previous row is read and compared here.
Stuck needs a start to say. A container may mount the file a binding lands in; the
runtime socket is declared under both of its spellings; the catalogue-wide test
takes MESH_CATALOG.
secret accept grows --provider: the value is sealed to the consumer's node, the
provider's node and the operator's key, and the pair records origin 'accepted'.
An accepted pair is not remade when a key changes (the mesh does not hold the
value; the read is refused naming the remedy) and rotate refuses it (accepting a
new value is the rotation). The vault's third species has its entry
(novox/hq 04-ISSUES/070, ADR 0092).
The mesh kept one report per machine, replaced, so a resource nothing can ever apply
looked like a failure that had just happened, every reconcile interval, for ever.
The row now keeps when the current failure began and how many reports in a row have
said it — the same outcome, refusal and failed resources; anything different starts
again and a clean apply clears it. Three make the machine stuck, and status says so
beside the failure, in words and in JSON (novox/hq 04-ISSUES/065, ADR 0090).
From review: the export counted any operator-sealed row as recoverable, so a
secret sealed to a replaced key was reported as openable with the current one;
replacing the key counted orphans in one table of two; and a pair credential
held from two providers was recovered as whichever row came first. The export
now lists what the current key opens, what an earlier key opens, and what has
no copy; `secret recover` takes --provider and refuses ambiguity; files that
must not exist are created exclusively; one constructor builds the export for
the operator's file and the vault's disk alike.
The secret the vault provides a module is the credential of the consumer↔vault
pair, and so is every credential a provider grants; sealing only own secrets
to the operator left exactly those unrecoverable. Same column, same call; the
export and `secret recover` address a pair by consumer node, module and the
provision's name, and say which kind each entry is.
novox/hq ADR 0085, amended: the mesh's root secrets — the store's superuser,
the broker's administrator, every secret a module holds for itself — were
sealed to a node key and nothing else, so a lost node took them with it.
Now the mesh records an operator's public sealing key and seals every own
secret to it as well, minted or accepted. The private half is written once
by `operator key new` to a file the operator keeps off the mesh; the mesh
holds one more blob per secret that it cannot open.
`secret recover` opens a secret with that key, to a 0600 file, from the
store or from an export; `secret export` writes every operator-sealed copy
as ciphertext. A module that `keeps` (the vault) is handed that export as a
declared file on its own disk, so recovery survives the store.
Secrets made before the key exists have no operator copy and are said so —
the plaintext was discarded — until each is issued again.
One name per thing, per the HQ glossary: the module/container/image/binary/repo
becomes mesh-controller, the seat the-controller, and the store+broker pair the
foundation (embedded base bundles, default template and example lock renamed with
their go:embed directives). No behaviour change — a pure vocabulary rename.
Claude-Session: https://claude.ai/code/session_01D6qtiYU3P9jk3pnAXyAFyx
Its event queue is durable, so a running catalogue misses nothing. What it cannot
have is what was announced before it first ran — and on a fresh mesh that is never
arbitrary: the shared base, the store the catalogue runs on, and the catalogue
itself are each necessarily built BEFORE a catalogue exists to hear about them.
The graph's foundation is the part it never sees.
So it says it is catching up, and the control plane re-announces what it
recorded, oldest first, marked as a replay. Oldest first because a graph is built
in the order things happened: registering a module that stands on a base before
the base would point an edge at a version nothing has seen, and the shape of a
fresh mesh guarantees the base is both first and the one that was missed.
The replayer hands announcements back rather than publishing them, because the
wire belongs to the link package and a replay building its own events could drift
from what the builder emits — the one thing it must match exactly, since the
catalogue has a single handler for both.
Its own queue and its own consumer: two consumers on one queue split its
messages, and a catch-up request going to whichever half was not listening is a
gap that looks like a working mesh.
Toward novox/hq 04-ISSUES/050.
Claude-Session: https://claude.ai/code/session_01D6qtiYU3P9jk3pnAXyAFyx
The builder announces a build with the resolved manifest, the path inside the
repository, and every artifact it stood on. The control plane received all of it
and kept none of it.
That was survivable while the catalogue heard the same announcement directly. It
stops being survivable the moment the catalogue was not there to hear it — which
on a fresh mesh is always, and always for the same modules: the shared base, the
store the catalogue runs on, and the catalogue itself are each necessarily built
BEFORE the catalogue exists to hear about them. The graph's foundation is the
part the graph never sees.
Replaying those builds needs what they said, not a summary. Without the manifest
there are no requires/provides edges; without `against` there are no build edges,
which are the ones that answer "a base moved, what must be rebuilt". A replay
carrying neither would restore the module list and leave the question the
catalogue exists for still wrong, while looking fixed.
Kept null rather than empty where a build predates this, so a replay can say it
is holding nothing instead of inventing an empty declaration for a module that
certainly had one. And `built_against`, not `built_on`: that column exists and
means the machine, which is a different fact about a different subject.
Toward novox/hq 04-ISSUES/050.
Claude-Session: https://claude.ai/code/session_01D6qtiYU3P9jk3pnAXyAFyx
The check read "declares no resources" as "runs nowhere", and those are not
the same. The private network declares no resources either — the control plane
computes them when it composes a machine's declaration — and it is assigned to
every machine that has to reach another one. Refusing it stopped a four-machine
bed at its first assignment.
The signal is narrower: it builds an artifact and places nothing. Made a
function of its own, because a judgement with a wrong answer this expensive
should be testable without a database — nothing guarded it, which is how it
shipped.
The image every module in the scripted toolchain is compiled on top of is
registered as a module so the mesh can build, version and depend on it. It is
not one: nothing about it belongs on a machine. Assigning it succeeded, the
machine was sent a declaration containing nothing of it, and everything
reported success — the operator had said run this here and the mesh had agreed
to something it cannot do.
A module whose resources are worked out per node is asked about separately, so
it stays assignable, which is the point of it.
A fingerprint written into a recipe names one particular copy of the base — the
copy on whichever machine the person typing it was using. On any other mesh that
copy has never existed, so the build stops on its first line with a message
about an image nobody can look up. Three modules in the catalogue were in
exactly that state, and the line each of them replaced was equally dead.
A module now names the module and artifact instead, and the mesh answers with
what it holds. The builder is still a thing that clones, builds and answers: the
answer travels with the question, because only the mesh knows what it has.
A base the mesh has not built is refused before anything is built, naming which
module has to exist first.
The builder says what it built and the catalogue decides whether that was an
upgrade. Only the control plane knows which machines run the thing, so it is
the one that acts — and what it does is a choice somebody recorded, not a
behaviour compiled in: record that they are behind, or send it, one machine at
a time or together.
Recording is the absence of an action rather than a second path: a machine not
running what the mesh would send it is already something the mesh reports.
Defaulted to recording. A mesh that rolls out everything it builds the moment
it builds it is reasonable to want and a bad thing to arrive by default — the
first module to inherit it would be the control plane, upgrading itself out
from under the push applying it.
The builder cloned a repository and read the manifest at its root, which means one
repository per module. Nothing we have is shaped that way, so the builder could be
asked to build nothing that exists (novox/hq ADR 0069).
The path travels the whole way — named when asking, carried in the request, used
to read the manifest and as the context everything is produced from, echoed back
in the result, and recorded as part of where a module came from. Without that last
part the mesh could notice a module was behind its source and then be unable to
rebuild it, which is the worst of both.
A path climbing out of the clone is refused: a machine whose job is building other
people's repositories must not read whatever else is on its disk.
Claude-Session: https://claude.ai/code/session_01D6qtiYU3P9jk3pnAXyAFyx
0056 is 'the authority is the control plane, not a database'. A citation
pointing at the wrong decision is worse than none: it reads as corroboration.
Claude-Session: https://claude.ai/code/session_01LrgweAeERJYBg88c5cKDzF
`module forget` cascaded. The settings, the module's own secrets and the ports the mesh
chose all name the module by a foreign key that cascades, so removing the row took all
three and reported "forgotten" — an action succeeding into a state its own verify would
reject (novox/hq 04-ISSUES/017). A sealed secret is not recoverable afterwards, because
the mesh discarded the plaintext when it made it.
It now reads what it would destroy, names each thing one at a time, and refuses.
`--and-what-it-holds` is how somebody says they mean it, and the removal then reports
what went — this being the only record that any of it ever existed.
Reported as "operator settings do not persist, because re-registering a module
cascade-deletes them". Half of that is wrong, and the test now says so out loud: the
upsert is on the name, so `module add` at a new version leaves the settings, the secrets
and the ports exactly where they were. The command that destroyed them was `forget`, and
a wrong belief about which command destroys data is expensive in both directions — it
sends people looking for a fault that is not there, and leaves the real one unexamined.
Checked by internal/inventory/forget_test.go, which writes all three, re-registers the
module at a new version, reads them back, and only then tries to forget it.
Claude-Session: https://claude.ai/code/session_01LrgweAeERJYBg88c5cKDzF
A public route used to carry its whole hostname as a literal in the module
manifest, so running the same catalogue against a different domain meant
overriding that literal on every routed module, per node. The mesh was, in
effect, holding a map of names to services: the one thing it should never hold,
because the subdomain is the operator's choice and the domain is the node's.
Compose instead. A route contribution carries a `label` (the subdomain); a node
carries its `public_domain` as node-level configuration; the mesh joins
`<label>.<public-domain>` and grants exactly that, interpreting neither half.
Held as a node property beside the node's other node-level facts (endpoint,
site, overlay address), not in a module's settings — the ADR calls it
node-level, and the settings table is keyed per module.
Additive, so an unmigrated catalogue keeps working: a contribution that still
carries a full `name` and no `label` passes through unchanged, and the catalogue
can migrate module by module. A labelled contribution on a node with no public
domain composes nothing, reading downstream as a route that named no host.
And propagate: each granted route name is published into internal resolution
mesh-wide, mapped to the node that serves it, alongside the `<node>.internal`
names every container already gets. So a container — and an internal ACME
validator, which cannot complete a challenge for a name it cannot reach —
resolves a routed name to the proxy that serves it. Name-agnostic throughout:
the mesh propagates whatever names it was told to serve and knows nothing about
what they mean.
novox/hq 02-DECISIONS/0056
Claude-Session: https://claude.ai/code/session_01LrgweAeERJYBg88c5cKDzF
The report carries the digest of the declaration it applied (mesh-host
8211d8b), and the mesh stores it beside the outcome. `reported` rows in
the status JSON now say `current`: whether the machine's last word
names the declaration last sent.
Not derivable from the timestamps beside it, which is why they were
not enough: an apply begun under the previous declaration reports
after the next send — newer, and still about the old words. The lab
lost exactly that race between one test's closing push and the next
test's opening one.
Empty digests — every host from before reports carried one — read as
not current, which errs toward waiting rather than toward asserting on
files that are not there yet.
"Not waiting" says the declaration is current, not that the machine
finished applying it: the sent digest is recorded at send. So a test
that pushed, saw waiting clear, and asked the machine what it was
running found containers that did not exist yet — the certificate fix
made compositions stable, and the settling that used to fail first had
been hiding the gap behind it.
The mesh already held the missing half: every machine's last report,
with its time. It just was not in the JSON. `reported` now sets each
machine's last word beside when the current declaration went to it, and
"has it caught up" becomes a comparison of two timestamps the mesh
recorded itself — a report newer than the send means the machine acted
on what was sent; older means it is still working, which waiting alone
cannot distinguish.
Three faults, one file split. All from reading, all verified to bite.
Unassign now releases the module's ports. ReleasePorts existed, said
"for when it is unassigned" in its own comment, and was called by
nothing — so a fixed port stayed claimed in the name of a module that
was gone, and the next module needing it was refused by a ghost.
Kept-once-chosen is a promise about a module that is still here.
MachineSide reads addressed mappings. "127.0.0.1:8080:80" was split at
the first colon, "127.0.0.1" failed to parse as a port, and the mapping
was silently skipped — putting the filter back on the declared port,
the exact fault the function was written to end. The machine side is
the second-from-last part, which is the reading the host already
applies, and the substrate bundle writes that shape today.
An allocation race answers in the mesh's words. Two concurrent picks of
the same port used to surface as a Postgres constraint violation,
verbatim. The table has two keys, so the collision is one of two facts:
the racer was this same assignment — then its answer is the answer,
kept-once-chosen does not care who chose — or another module took the
machine port, and an unfixed pick is simply made again against the
moved free list. A fixed port that lost the race is refused by name.
Told apart by re-reading the row, not by the constraint's name, so this
does not couple to the migration's spelling.
And the artifact-store cycle tests moved to bootstrap_cycle_test.go;
machineside_test.go had quietly become three subjects.
object-store.json and minio.json described the same thing: same image,
same provision at the same scope, same provisioner. Not two
implementations a person could choose between — one module written
twice. Assigning both to a node would have collided on `s3-bucket`.
It exists because it was written first, to pair with photos.json for the
README's worked edge, and minio.json was the fuller version of the same
module written later. Nobody removed the first.
The pair test keeps its point and now reads the surviving one. Checked
across the rest: this was the only duplicate.
The other half of ADR 0038, and what 04-ISSUES/028 was actually about.
A module can now avoid colliding with another module; until this it
could not avoid colliding with the mesh itself.
The substrate is not a module. A node raises it from the bundle it
carries before any mesh exists, so the control plane had never heard of
the store, the broker, or its own container — and handed a database
module 5432, which the store already had.
So the machine says. The host records what each resource binds,
distinguishing what it carried from what the mesh sent — a distinction
that already existed so the two never remove each other — and reports
the carried ones. The node states and this context writes, which is the
shape of every message between them.
What the declaration binds, not what is open. A machine's open ports are
a moving target, and assigning around them would mean a port that was
free when it was asked for and taken when it was used.
Replaced whole each time rather than merged: a machine that gave a port
back must be believed about that too, and a set that only grows keeps a
port reserved for something no longer there.
Tested against a real database, and the tests bite — removing the check
hands the module 20000, which the machine had said it holds.
novox/hq ADR 0038. A module cannot choose a port: it is written once and
assigned anywhere, so any number it picks is a guess about a machine it
has never seen. A database module met the mesh's own store on 5432 and
was told, by a container runtime three layers down, that the port was
already allocated.
The number used to appear three times in every module — the rule set,
what a consumer is told, and what the runtime publishes — agreeing only
because one person wrote all three. Now it appears once, in `listens`,
and the other two are derived: the container publishes `20000:5432`, the
consumer is told 20000, and the rule set opens 20000.
An assignment is made once and kept, as a credential is. A port that
moved on every declaration would restart both ends each time and hand a
consumer a number that was true when it was read.
Ports the protocol fixes — mail on 25, submission on 587, DNS on 53 —
say so, and are then claims: one holder per machine, and the second is
refused by name at assignment. That is the mechanism the mesh already
has for what is singular on a machine, pointed at ports.
A mapping written the long way is left exactly as it is. Some things
must be pinned by hand, and quietly overruling somebody who wrote both
halves would be worse than not offering the short form.
Still open, and known: the substrate is not a module, so the mesh has
never heard of its own store and cannot yet assign around it. That is
what 028 will still be about after this.
novox/hq 04-ISSUES/022. A credential was keyed by provision, consumer
node and provider node, so "who is asking" was answered by naming a
host. The node this mesh exists to take over runs eight modules against
one database server.
The symptom had two halves and only one was loud. The provider refused,
naming the modules and explaining they would share one credential, which
reads as a decision rather than a limit. The consumer did not refuse: it
resolved cleanly, wrote one module's credential file and left the others
absent — a service that starts and cannot authenticate, with nothing
saying why. That is 021 again on a different axis.
Three modules wanting one database produced one need, carrying whichever
module mentioned it first, because the resolution walk is a work-list
over names. The fan-out now happens in one place, after the walk. The
record path already did this correctly and said why: a consumer here is
a module on a machine. It is the same rule.
Downstream: the secret's key gains the consuming module, the grant file
is named after both halves, needs are matched by provision and module
rather than provision alone, and the provisioners name the role and the
access key after the module. The refusal in ContributionsTo is gone
because there is nothing left to refuse.
Worth stating plainly: without that refusal, gitea's login would have
opened keycloak's database. From the provisioner's side it created
exactly what it was asked to create.
Existing secrets are discarded rather than backfilled. They cannot say
which module they were for, and a secret is remade and delivered to both
ends on the next push — so this costs one rotation and invents nothing.
Also guards the role name against PostgreSQL's 63-byte truncation, which
is a notice rather than an error and would reintroduce exactly this
collision at a length nobody tests.
Three faults injected — the fan-out removed, needs matched by name
alone, the grant file named after the machine — each caught.
jschoubben
jochen