8f0d6ae2cc3c0c19ee9f5e9920fe7dbabc778a54
384 Commits
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4e4619514c |
docs(sql): chrome/AdminUI gate PASSED; records the Test-Connect provider-gate defect it found
Also adds the two fixture connection strings to both docker-dev centrals, so the rig can author + browse the Postgres and Oracle fixtures on 10.100.0.35. |
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c89da8eb73 | docs(sql): shared-host live run PASSED (11/11); chrome/AdminUI gate handed to the operator | ||
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d54f3c8342 | merge: Sql driver Postgres + Oracle providers (managed Npgsql/ODP.NET, dialect-owned binding, live-gated fixtures) | ||
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db295c1439 | docs(sql): verification green across five suites; tracker + design status reconciled (Postgres/Oracle shipped) | ||
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e238a71bbc | docs(mtconnect): live gate PASSED against the shared AllowPut fixture (15/15); rig OPC UA leg deferred to the chrome session | ||
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f13a89dbc3 | docs(mtconnect): final-review nits — two stale read-only comments; task statuses | ||
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203000a80a | docs: MTConnect write-back recorded; stale MQTT write-through/browse-gap records reconciled | ||
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ab54fb013a | docs(plan): Sql Postgres + Oracle provider design + implementation plan | ||
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e784545844 | docs(plan): MTConnect write-back design + implementation plan; MQTT P3 recorded as already shipped | ||
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de036c62aa | chore(plan): mark the raw-modal picker live-config gate task complete | ||
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8af5742406 |
docs(raw): live /run gate PASSED for the raw-modal picker live config; records Gitea #539
All three legs pass against the patched AbCip fixture: the edit modal and the manual-entry grid both browse the live nine-tag symbol table, and an unreachable device degrades to the graceful error chip while the modal still saves. The gate also found a defect unrelated to this change and filed it as #539: the AbCip discovery path (LibplctagTagEnumerator, LibplctagTemplateReader) passes libplctag the bare host, so an authored non-default EtherNet/IP port is dropped and the browse reaches whatever answers on 44818 — #534's defect surviving in the discovery half. Discovered because the first negative-leg endpoint differed from the fixture only by port, which never reached the wire. |
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4b88dc6f9a | docs(raw): final-review nits — commit count, closed cross-reference, forced accessibility asymmetry | ||
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c1e8762cd4 |
docs(raw): close the #468 follow-up — raw modals now feed pickers live merged config
Records the outcome in the design doc §6 (including the stale-open race the review found and fixed in both modals), closes the follow-up in the tracking doc and the universal-browser plan, and registers RawBrowseModal's shared race shape in deferment.md §0.1 as the deliberate leftover. |
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ebcf73f72c | docs(plan): implementation plan for the raw-modal picker live-config fix | ||
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3b9009da47 |
docs(drivers): tracker catches up with the #468 gate closure; design for the last dangling follow-up
The tracking doc and program-design §9 still showed Wave 0's live gate open —
it closed 2026-08-01 (
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4bdce91002 |
docs(historian): live gate for #537 and #538 — both PASSED
Ran on the docker-dev central pair against the local HistorianGateway container talking to the real
AVEVA Historian on wonder-sql-vd03 (VPN up), with the host image rebuilt at
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e7fbe97759 |
fix(historian): gate historization capture on the Primary, quarantine a poison tag (#537, #538)
Both defects were found by #491's live gate against a real HistorianGateway and filed rather than fixed at the time, because each one's fix is a design decision rather than a patch. #537 — both nodes of a redundant pair captured every value, so the historian received duplicate live samples for every historized tag (measured: the gateway's write counter advanced twice per value and halved when one central was stopped). The recorder now reads a capture gate per value, fed from the new PrimaryGatePolicy.ShouldRecordHistorizedValues through IHistorizationRoleView — a third verdict on the same RedundancyRoleView object, registered unconditionally on driver nodes rather than alongside the alarm section's IRedundancyRoleView (which only exists when that section is enabled; piggybacking is the #511 registration accident). Two things are deliberate and easy to get backwards: * It gates the CAPTURE, not the drain — the opposite of the alarm sink. That queue is in LocalDb and replicates, so the Secondary already holds the Primary's rows. The historization outbox is a node-local FasterLog replicating to nobody, so a drain-only gate would leave the standby appending forever to a queue no one empties: unbounded disk, then a flood of stale duplicates the moment it is promoted. Entries a node already captured are still drained by that node. * The peer it stands down for must RECORD THE SAME REFS, not merely hold the same rows — a Primary in this node's own per-cluster mesh. A node carrying no cluster-scoped role cannot establish that and never stands down: under a fleet-wide election the elected Primary is usually running a different cluster's configuration, and deferring to it would end this cluster's historization silently, with the drain reporting success on an empty outbox forever. That is the scope mismatch that once suspended the alarm drain on every node of the rig. An unknown role captures, matching the alarm drain — a duplicate sample is recoverable, a hole in the trend is not. #538 — the drain writes every per-tag group and then acks all-or-nothing (deliberate: RemoveAsync truncates THROUGH an id, so partial acking could drop older unwritten entries). One permanently failing tag therefore pinned the FIFO head while every healthy tag in the batch was re-submitted to the historian on every pass, indefinitely — duplicate samples and an outbox that never truncated, observed live at 8.3 MB from a single unprovisionable tag. The drain now tracks consecutive failures per historian tag and abandons that tag's entries once it exceeds MaxWriteAttempts (new, default 5), so the head advances. The counter only advances on a pass where some OTHER tag wrote successfully: that is what separates "this tag is poison" from "the backend is down". A count-only quarantine looks identical on the poison-tag case and silently discards the whole backlog during an ordinary gateway restart, turning a duplicate-samples bug into a lost-history one. Abandonment is also deferred until every failing tag is over budget, so nothing is discarded on a pass that could not have advanced the head anyway. Each abandonment logs a Warning naming the tag; the total rides RecorderStatus.AbandonedEntries. Capacity also gains a non-zero default (500,000 entries) as the disk backstop for the one case the quarantine deliberately cannot resolve — a historian refusing every write, where retaining is correct. Set 0 to restore unbounded retention. Every new test was falsified by reverting the production change it guards, and each one reddens alone: * drop the backend-reachable evidence -> only A_backend_that_fails_every_tag_abandons_nothing * never abandon -> only A_permanently_failing_tag_is_abandoned_so_healthy_tags_stop_being_rewritten * latch the capture gate at construction -> only The_capture_gate_is_re_read_per_value... * treat any Primary as a scope peer -> only the two scope-mismatch cases Full suite green. (Four OpcUaClient.Browser failures during the run were the opc-plc fixture being down on the shared Docker host; brought it back up and they pass.) Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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e77ea4aa73 |
docs(historian): close #491 — read-back and EnsureTags proven against wonder-sql-vd03
The 2026-08-01 run closed every leg except read-back, which no reachable historian could
serve that day (the LAN instance accepts writes but serves no reads under a licence tag-count
violation; the licensed one needed the VPN). With the VPN up the run was repeated against
wonder-sql-vd03 and the remaining legs pass:
- EnsureTags provisioning: ensured=2, failed=0 — the path the LAN box could not exercise at
all (it is RemoteGrpc-only and that CAP was not listening).
- Read-back: two Modbus registers carrying DISTINCT NON-ZERO constants were historized, and
each read back as its own value (HR20 -> 8224, HR3 -> 120, quality 192). A first attempt
read back 0, which proves nothing — the same trap #536 recorded, so the proof was rebuilt
on values a crossed or fabricated answer could not fake.
Found during the run and FILED rather than fixed:
- #538 — one permanently-failing tag re-writes every healthy tag on every drain pass, forever.
DrainOnceAsync writes EVERY per-tag group and then acks all-or-nothing, so a tag whose
historian tag does not exist stops the FIFO head advancing while the healthy tags' values
are re-submitted every drain interval; the outbox never truncates (Capacity defaults to 0 =
unbounded, observed at 8.3 MB). The all-or-nothing ack is deliberate — RemoveAsync truncates
THROUGH an id, so partial acking could drop older unwritten entries — so the fix changes the
outbox contract and does not belong in this commit.
Also re-confirmed live: EnsureTags provisioning fires only for newly-ADDED historized tags, so
flipping an existing tag's historianTagname provisions nothing (Issue 5 of
2026-06-27-historian-gateway-integration-issues.md).
No production code changes — the recorder fix shipped in
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ad74473452 |
fix(historian): the recorder died on its first value — live gate for continuous historization (#491)
Ran #491's live gate against a real ZB.MOM.WW.HistorianGateway talking to a real AVEVA Historian, and it found a production-fatal defect on the first value it ever saw. ContinuousHistorizationRecorder.OnValueChangedAsync touched `Self` after awaiting IHistorizationOutbox.AppendAsync(...).ConfigureAwait(false). ConfigureAwait(false) discards Akka's ActorTaskScheduler synchronization context, so `Self` — which reads ActorBase.Context — threw NotSupportedException. The throw escaped into supervision, which RESTARTED the actor; because production seeds an EMPTY ref set (the deployed set arrives later via UpdateHistorizedRefs), the restart silently discarded every historized ref. Net effect: one value captured, then nothing, with no further error to show for it. Fixed by capturing `IActorRef self = Self` before the await — the idiom the GetStatus handler already applied to Sender. Thirteen unit tests missed it because InMemoryOutbox.AppendAsync returned ValueTask.CompletedTask: a completed ValueTask never yields, so the continuation ran inline with the context still installed. The production FasterLog outbox fsyncs per entry and does yield. The first regression test was itself vacuous — `await Task.Yield()` posts back to the CAPTURED context, so the append still completed on the actor thread and reverting the fix left the test green. The fake must complete on a POOL thread (Task.Delay(1).ConfigureAwait(false)), as a real fsync does; with that, reverting the fix reddens exactly one test. The rig could not run this gate at all: docker-dev carried ServerHistorian__* but no ContinuousHistorization__* keys, so the recorder could never spawn. Both centrals now carry them (default OFF — the recorder needs ContinuousHistorization:Enabled AND ServerHistorian:Enabled), with the outbox on the per-node named volume so it survives a container recreate. ServerHistorian__UseTls was hard-coded true and is now parameterized; a plaintext h2c gateway was unreachable without it. Gate results: outbox append, drain, WriteLiveValues accepted by a real historian, and restart convergence (capture resumes after a restart with no new deployment) all pass. The read-back hop is NOT proven — the LAN historian accepts writes but serves no reads under a "License violation: Database tag count exceeds license tag count", and the licensed corporate one needs the VPN. EnsureTags provisioning is likewise unexercised there (RemoteGrpc-only, and that CAP is not listening). #491 stays open for the read-back hop alone. Also recorded, not fixed: the recorder has NO Primary gate, unlike the alarm store-and-forward sink, so both nodes of a redundant pair send duplicate live values. Gating it would introduce a failover window with no capture — that is a design decision, not a cleanup. Evidence: docs/plans/2026-08-01-continuous-historization-live-gate.md Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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6b3da93151 |
fix(browse): commit the browsed data type, and fix the probe classification the fixture was hiding (#536)
A browse-committed AB CIP / TwinCAT / FOCAS tag bound with its model's DEFAULT
data type, not the one the device reported. A browsed REAL committed as
`{"tagPath":"Pump_1_Speed","dataType":"DInt"}` — and those three drivers decode
the wire bytes by that field, not by the raw row's OPC UA DataType — so the tag
read four bytes of a float through an integer decoder and published a plausible
wrong number with no error raised anywhere. FOCAS was missed when #536 was filed.
The type is CARRIED, not derived. Reverse-mapping the leaf's driver-agnostic
DriverDataType looks like the smaller fix and is wrong: SInt/Int/DInt/USInt/UInt
all collapse into Int32 on the way out of the driver, so that version would bind
a 16-bit INT as a 32-bit DINT while appearing to fix the REAL. Drivers now state
their own type name on DriverAttributeInfo.NativeDataType, which reaches the
picker as AttributeInfo.AddressFields["dataType"] and the commit mapper from
there. A leaf that states nothing keeps the model default — the pre-#536
behaviour, kept deliberately as the fallback rather than a guess.
Numeric strings are refused before parsing: Enum.TryParse accepts "9" for any
enum and Enum.IsDefined then confirms it, so an unguarded parse would bind a tag
to a type nobody named. A test caught this in the first version of the guard.
--- and the other half, which the fixture was hiding ---
Test Connect on a device with NO authored tags — every AB CIP device at the
moment an operator first presses the button — reported "CIP handshake failed"
against a healthy controller. That was written down as a fixture limitation
("ab_server doesn't implement @raw_cpu_type"). Both halves of that were wrong:
* @raw_cpu_type is not a libplctag special tag at all (only @raw, @tags and
@udt/ are), so it goes out as an ordinary symbolic name that no controller
defines, and the controller's "tag does not exist" IS the successful answer.
* ab_server answered an unresolvable tag path with CIP 0x03 where a Logix
controller answers 0x04 — ErrorBadParam vs ErrorNotFound, which the probe
classifies oppositely. Fixed in vendored patch 0002.
* With the fixture then telling the truth, the real defect surfaced:
AbCipDriverProbe.IsReachableException matched the native C status spellings
("STATUS_NOT_FOUND"), but libplctag.NET throws with the MANAGED enum name
("ErrorNotFound"). Those substrings can never match, so the reachable
classification could not fire on the exception path — which is the path every
no-authored-tags probe takes. This was failing on real hardware too, not just
against the sim. It now recovers the Status and defers to IsReachableStatus,
so there is one classification rather than two that can drift.
Rejected: switching the fallback to @tags. libplctag builds a tag-listing tag
with NO network I/O, so it reports OK against any TCP listener — measured green
against a Mosquitto broker.
Verification: full solution suite green. Falsification runs confirm exactly the
intended tests go red — 9 for the type carry, 3 (the reachable statuses only) for
the probe classification. Live on docker-dev: browse-committed TestString/
Motor_Run/TestSINT now store String/Bool/SInt, alongside last session's
Pump_1_Speed still holding the wrong DInt. TestSINT is the falsifier — its row
DataType is Int32, identical to TestDINT's, so no reverse map could have produced
"SInt".
Known consequence: pre-existing browse-committed tags keep their wrong dataType;
the fix applies to new commits only.
Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo
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c2c3c52274 |
fix(abcip): unblock the controller-browse gate, and fix the decoder it exposed (#468)
The AbCip controller browse could never be verified end to end: libplctag's ab_server answers CIP service 0x55 (Get Instance Attribute List) on the Symbol Object class with "unsupported", so the `@tags` walk had no backend. #468's own definition of done offered a sim that serves `@tags` as an alternative to real hardware; this is that. The fixture now applies a vendored patch teaching ab_server to serve the Symbol Object listing, with partial-transfer paging. Correctness is checked against libplctag's own `list_tags_logix` rather than against our decoder — our decoder is the thing under test, so its agreement would prove nothing. The clone is also pinned to a concrete tag: the Dockerfile called `--branch release` "pinned" while tracking a branch that moves. That immediately exposed a real defect. CipSymbolObjectDecoder advanced to an even byte boundary after each symbol name, but entries are packed with no padding — libplctag walks them by sizeof(entry) + string_len, and a captured reply confirms it. Any odd-length name therefore desynchronised every entry behind it, and odd-length names are ordinary. In the live browse below, `Motor_Run` is 9 bytes and first on the wire, so the old decoder would have shown that one tag and silently dropped the other eight. Every existing multi-entry test passed throughout, because the test builder padded exactly as the decoder did: the two agreed with each other and neither agreed with a controller. The builder no longer pads, and the layout is pinned by a captured reply (CipSymbolObjectWireCaptureTests) instead of by a second statement of the assumption. Restoring the alignment step reddens exactly the three new tests and none of the 29 others. Live gate on docker-dev, all three of #468's criteria: - populated tree — all nine seeded tags render as leaves, in wire order - refresh re-captures - leaf commit — Pump_1_Speed + TestDINT saved with their CIP tag paths The gate also surfaced two things it was not asked about: browse-commit drops the discovered data type, so a browsed REAL commits as a DINT and the driver decodes it as one (filed as #536), and Test Connect fails against this fixture regardless of the device because it probes `@raw_cpu_type` (documented). TwinCAT and FOCAS still have no browsable backend; #468's AbCip half is closed, theirs is not. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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9303289d05 |
docs(plan): correct the self-form watchdog record — rejected, TCP guard was interim
Family-wide docs correction (paired with scadaproj 6d222ea4). This plan's superseded
banner was right but its task body still read as if the watchdog were merely patched.
- Dated 2026-08-01 correction section (history preserved): the timer calling
Cluster.Join(SelfAddress) was implemented and REJECTED in both repos after live
testing — outside Akka's join handshake, it fires mid-join on a routine standby
restart (peer alive, join stalled behind stale-incarnation removal) and forms a
permanent second cluster at the same address. ScadaBridge measured a split unhealed
after 90s; Task 8 hit the same shape live here.
- The 'a booting node only self-forms when NO seed answers InitJoin' claim in the Task 2
doc comment is marked FALSE for the watchdog: that guarantee belongs to Akka's native
FirstSeedNodeProcess, which runs inside the handshake; the timer does not, and fires
while a seed is answering.
- Task 8's TCP reachability guard is recorded as an INTERIM patch, not the fix — the
race survived it, which is why the watchdog was deleted rather than patched.
- Shipped design restated: self-first seed ordering (AkkaClusterOptionsValidator +
SelfFirstSeedBootstrapTests) plus the opt-in, default-OFF bootstrap guard (
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a88cefd5ee |
docs(security): close the stage-7 gate's UNS gap — legs 12-15
The first pass could not exercise UNS-realm scope selection because SITE-A had no UNS. Authored one on docker-dev (area -> line -> equipment) and re-ran that part: the picker's UNS column offers UnsArea/UnsLine/Equipment, selecting the equipment resolves, and the grant deploys Sealed. Leg 15 is the one worth keeping. Re-pointing the SITE-A grant at MAIN's equipment is the only rejection whose id is REAL, so a check that asked only "does a row with this id exist?" would accept it and confer authority across a cluster boundary. The list page and the deploy gate both catch it and both name the owning cluster. Also found and filed (Gitea #535, not fixed here): the /uns area and line modals do not validate the UNS segment format, so "Packaging" and "Line 1" saved happily and then failed the deploy with UnsSegmentInvalid. Only the equipment form carries the rule. A deployment snapshots the whole database, so one bad area name blocks every cluster's deploy - the same authoring-vs-gate gap stage 7 just closed for NodeAcl rows. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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d542ab5b7c |
feat(security): author ACL grants from the real tree, not free text (#520 stage 7)
The last stage of #520. Enforcement landed in stages 5-6; this closes the authoring end, where a grant could be saved, deployed and sealed green while resolving to nothing. Scope kind and scope target are now chosen TOGETHER from a picker over the cluster's raw and UNS trees (AclScopePickerModal -> AclScopeTree, backed by IAclScopeService). They were previously an unrelated dropdown and a free-text box, so "RawDevice + a TagId" was a well-formed row. Because the trees are rooted at the grant's own cluster and each node supplies its own kind, NodeAclScopeCrossCluster, NodeAclScopeIdUnexpected, NodeAclScopeIdMissing and NodeAclScopeKindRetired all become unauthorable by construction. CheckScopeAsync mirrors DraftValidator.ValidateNodeAclScopes rule for rule and blocks the save when a scope resolves to nothing - re-checked on submit, not trusted from form load, because a row whose entity was deleted since is exactly where the operator never touches the picker. The list page marks such rows unresolved with the reason. The principal field suggests known principals and reports how many live keys reach the one typed; reaching nobody warns rather than blocks, since authoring ahead of minting is legitimate. Deliberate departures from the plan line, all recorded in the design doc: - The banners are reshaped, not removed. "Not enforced" stopped being true at stage 6, but enforcement is still a per-node flag the AdminUI cannot see, so a narrow grant really does confer nothing on a default-configured node. - A Cluster row produces a NULL ScopeId. The deploy gate rejects one that carries an id, so filling in the cluster id would author undeployable rows. - AclScopeTree is a new component rather than a third mode on RawTree, which already carries the /raw editing tree and the equipment reference picker. - UNS tags are not offered: a UNS signal is a UnsTagReference, and a Tag grant already covers the raw node and every UNS projection of it. Also fixed: the ACL editor had a DataAnnotationsValidator and no ValidationSummary, so an invalid NodeAclId made Create a silent no-op. Tests: 30 in AdminUI.Tests/Acls, falsified with six production mutations - each turned exactly the intended tests red and no others. Live gate PASSED on docker-dev, 11 legs; both central containers asserted on the same image by container id. The pair that matters is legs 8 and 11: the page and the deploy gate reject the same row with the same reason. Legs 5 and 9 are the positive controls - without them the gate passes against a page that refuses everything. Not covered: UNS-realm scope selection (SITE-A has no UNS areas). Rig restored to zero ACL rows. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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c4f537a60c |
docs(security): record the stage 6 live gate — PASSED on docker-dev
site-a-1 (driver-only, no ConfigDb) with Security:Acl:Enabled=true; central-1
on the same artifact as the A/B control. 11 legs.
The two that only a live rig could settle, as a transcript:
13:49:39 SiteAOnly = 53 (0x00000000) streaming ~1/s
13:49:40 SiteAOnly = (0x801F0000) revoking deploy lands; client TOLD
… 25 seconds of silence, ~25 updates that never arrived …
13:50:05 SiteAOnly = 157 (0x00000000) restoring deploy; feed resumes
53 -> 157 across the gap: the device counter ran throughout, so delivery
stopped, not the source. The 0x801F0000 frame is exactly what the
MonitoringMode.Disabled implementation would have swallowed.
Also recorded: the leg that distinguishes working enforcement from a trie that
denies everything is resolvedScopes=1 in the install log, not any denial.
Stated plainly as NOT covered: a UNS-realm grant (the rig's SITE-A has no UNS
equipment) and alarm-command scoping (no alarms there). Both covered offline,
neither seen live.
Two rig facts worth keeping: :9200 round-robins central-1/central-2, and a
stale central-2 rejected the deploy outright because its image predated the
stage-3 scope kinds — image parity must be asserted per container, not assumed
from one build. And SITEA-modbus had an empty DriverConfig, so it ran as a stub
serving nothing; until that was fixed every read returned
BadWaitingForInitialData and no allow leg could be told from a denial.
Rig left as found.
Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo
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00aa486677 |
feat(security): enforce node ACLs on read, browse and subscribe (#520 stage 6)
Completes data-plane enforcement behind Security:Acl:Enabled. Read (every attribute, not just Value), Browse, TranslateBrowsePath, CreateMonitoredItems, SubscribeToEvents and SetMonitoringMode now consult scoped NodeAcl grants. With the flag off nothing changes. Four things went beyond the stage as written, each because leaving it out would have made the feature look like it worked: - Browse needed ancestor visibility. The trie inherits downward, and a client reaches a deep node by browsing the nodes above it, so without this every grant narrower than the cluster was authored, shipped and unreachable. It is a separate non-inheriting marker, NOT a synthesized Browse grant on each ancestor: the additive downward walk would carry such a grant from Plant onto Plant/Siemens/dev9 and every other sibling subtree. Pinned by a test that goes through the evaluator — probing the trie helper directly passes against the broken design, because a sibling is absent from the trie either way. - Revocation had to reach LIVE subscriptions. Every other operation re-asks per request; a subscription is authorized once and then streams, and streaming is how machine consumers actually read this server — so stopping only the re-asking operations would have made revocation close to cosmetic. IDataPlaneAuthoritySource gained a Changed event. A denied item is queued BadUserAccessDenied and then DETACHED from its MonitoredNode2 fan-out, not set MonitoringMode.Disabled. Disabling discards the item's queued notifications, so the client is silenced without ever being told why. The over-the-wire test caught this; the unit-level path reports the item as stood down either way. Detaching is also reversible, so a restored grant resumes the feed with no client action. - The decision cache holds the grant WALK, not the decision. Grants and the trie are fixed for a generation; a key's ExpiresUtc passes with the clock, so caching the whole decision would let an expired key keep working until the next deploy — the stage-5 open-session hole in a subtler form. - TranslateBrowsePath is gated, without which browse filtering is decorative: a client refused a browse asks TranslateBrowsePathsToNodeIds for the same path. Found en route: UserAuthorizationState's staleness ceiling couples two clocks. MembershipResolvedUtc is stamped from DataPlaneAuthorizer's TimeProvider while IsStale is evaluated against TriePermissionEvaluator's; they are the same instance in production and diverge the moment anything injects a test clock, at which point the evaluator denies EVERYTHING with a verdict indistinguishable from "no grant matched". Stage 5's claim that these predicates cannot fire was accidentally true; they are now disabled explicitly. Also fixed: ContinuationPoint.NodeToBrowse is the manager HANDLE, not a NodeState. The declared type is object, so the wrong cast compiled cleanly and silently yielded null — skipping the browse source gate entirely. Falsified: disabling the transit marking reddens exactly the three tests that assert transit works; implementing transit as an ancestor grant reddens the sibling-leak test; skipping the fan-out detach reddens the revocation test. Full solution suite green. The stage 8 live gate has NOT run yet. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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f692f6afe4 |
feat(security): enforce node ACLs on write, alarms and HistoryRead (#520 stage 5)
`Security:Acl:Enabled` (default false) makes scoped `NodeAcl` grants decide data-plane authorization at the three seams that have one, and gives HistoryRead a check it never had. Read, Browse and Subscribe stay ungated — stage 6. The ACL decision REPLACES the server-wide role check rather than chaining with it. Chained, a grant would have to confer the role as well as pass the scope check, and only Cluster-scoped grants confer a role — so every narrow grant would have stayed inert and the flag would have looked inert too. The load-bearing test is an ALLOW: a session carrying no roles at all writing successfully on the strength of its grant. A deny-only test passes against a build where the ACL is never consulted, because the role gate denies too. Found en route: the principal never reached the session. The authenticator passed it as OpcUaUserAuthResult.DisplayName, but RoleCarryingUserIdentity derives DisplayName from the presented token — for a key-bearing client that is the static username `apikey`, identical fleet-wide. So the trie's matching key was dropped at the identity boundary, and the audit ClientUserId on a rejected write recorded `apikey` for every consuming system. Principal and ApiKeyId are now carried explicitly. Beyond the stage as sketched: - Revocation reaches an OPEN session. Every decision re-checks the authenticating key against the current snapshot; without it a key revoked by a deployment kept its authority until the client chose to reconnect, which for a machine-to-machine consumer can be indefinitely. - UserAuthorizationState is built per CALL, not per session. The per-session shape exists so an LDAP session can re-resolve membership that changed out of band; nothing can change out of band under API keys, so the generation stamp is the whole invalidation signal and a per-call record picks it up for free. IsStale/NeedsRefresh therefore cannot fire here and are documented as vestigial. - The trie is built inside DataPlaneAuthorityState.Apply, under the same generation as the snapshot, rather than by a second wiring at the publish actor. An uninstalled trie denies everything — indistinguishable from working enforcement. Deleting the install turns 13 of the 22 new tests red. - The deploy log reports what the BUILD dropped instead of re-deriving it. The old count agreed with the builder on one of its four drop reasons; a rule with a blank ScopeId, a retired scope kind, or a path not starting at a realm vanished with the log reading zero. Both IApiKeyStore implementations widened to the full grant set. The narrowing was redundant — ApiKeyInterimRoleMapper applies the same filter itself — and became a trap once scope was enforced. Pinned by asserting the roles are unchanged, with the two grants carrying different flags so it cannot pass by accident. Falsified by mutation: enforcement never engaging, the write seam ignoring the ACL, the realm dropped from the scope, the revocation check removed, and the trie never installed each turn the intended tests red and no others. Full solution suite green. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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3a6b2a1daf |
feat(acl): variable-depth scope model + the scopePaths producer (#520 stage 3)
Makes the /raw device tree addressable by an ACL rule, and builds the
scope-path producer PermissionTrieBuilder has accepted since it was written
but which had no caller anywhere.
The plan for this stage said "add NodeHierarchyKind.Raw, whose path is the
RawPath segments Folder/Driver/Device/TagGroup/Tag". That shape is wrong.
RawFolder.ParentRawFolderId and TagGroup.ParentTagGroupId are both
self-referencing, so folders and tag groups each nest without bound and a real
RawPath is folder…/Driver/Device/group…/Tag. NodeScope was fixed-arity and
PermissionTrie.CollectMatches was five hardcoded steps, so the scope model
could not address a real raw tree at all. NodeScope is now {ClusterId, Kind,
Segments} and the walk is a segment loop. The trie STRUCTURE was already
variable-depth (NodeAclPath.Segments is a list, Children is a recursive
dictionary), so only the walker and the scope record had to change.
Four decisions worth keeping:
- The namespace level became the realm. Level 1 gated on NodeScope.NamespaceId,
but v3 has no Namespace entity — the snapshot was retired when the address
space went dual-namespace, and the identifier appears nowhere in production
outside NodeScope. So the level could only ever fail to match, which silently
made every sub-cluster grant unreachable while cluster grants kept working.
It is now a realm token derived from the scope's Kind, not carried on it, so
the walk and the producer cannot disagree about its spelling.
- Provenance comes from the granting row's own ScopeKind, recorded on TrieGrant
at build time. Depth-derived provenance could not name a raw level at all,
since the depth of "Device" varies with folder nesting.
- The trie comparer moved from OrdinalIgnoreCase to Ordinal. Raw sibling-name
uniqueness is ordinal, so Speed and speed can both exist under one device and
a grant on either would have matched both.
- The null-scopePaths "deterministic test mode" is deleted. It planted
unresolvable rows at a direct child of the trie root, a position the walker
cannot reach, so the grant looked placed and could never match — and every
test using that mode proved nothing about production placement. scopePaths is
now required, and a row that does not resolve is dropped with a diagnostic.
A scope resolves to a LIST of paths: a raw tag projected into N equipments is
reachable at N+1 NodeIds and a write through any of them lands on the same
driver reference, so a Tag-scoped grant covering only the raw node would be
bypassable through a UNS one. The lookup is keyed on (ScopeKind, ScopeId), not
ScopeId alone — ScopeId has no FK and no type discriminator, so an id collision
across entity types would hand a grant the wrong node's paths.
Also closed here, all found by review rather than asked for:
- NodeAcl rows had no deploy-time validation of any kind and were not reachable
from DraftValidator at all (DraftSnapshot carried no NodeAcls). They are now
gated for dangling ids, cross-cluster scopes, blank/contradictory ScopeId, the
retired FolderSegment kind, and undefined ordinals.
- ConfigDbApiKeyStore conferred roles from Cluster-scoped grants authored in ANY
cluster, because it filtered on scope kind with no ClusterId predicate while
ArtifactApiKeyStore read an already-cluster-filtered snapshot. On a fused
admin+driver node that was a cross-cluster over-grant. Its doc comment claimed
the two stores matched.
- The two AdminUI ACL banners still said enforcement was LDAP-group -> role
mapping, which stages 1/2 made false in both directions.
- The /apikeys page was never classified in PageAuthorizationGuardTests, so that
test has been red since the key-minting commit merged — I did not run
AdminUI.Tests before merging stage 4.
Falsified rather than assumed: 8 mutations against the trie tests, 5 against the
deploy gate (including one proving a cross-cluster row is not silently
mis-diagnosed as unresolved), a staged red->green for the over-grant regression,
and the realm gate, the comparer and the malformed-path guard each broken
individually to confirm only their own tests go red.
Node ACLs are still not ENFORCED — nothing constructs a NodeScope or calls the
evaluator yet. That is stages 5 and 6; this stage makes the model able to
express what those will enforce.
Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo
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a438ac1640 |
feat(acl): keys + ACLs reach driver-only nodes via the artifact (#520 stage 4)
A driver-only node has had no ConfigDb since per-cluster mesh Phase 4, so it registered NullOpcUaUserAuthenticator and denied every UserName token. Its keys now ride the deployment artifact instead. - ConfigComposer snapshots ApiKeys alongside the NodeAcls it already carried. Only the peppered HMAC ships, never a secret, and the pepper is node config that is deliberately not in the artifact. - DeploymentArtifact.ParseDataPlaneAuthority decodes both node-side. Grants are scoped to the node's own cluster; keys are not, because ApiKey carries no ClusterId — a key is a fleet-wide credential and the ACL rows are what bind it. - OpcUaPublishActor installs them on DataPlaneAuthorityState on every apply, BEFORE its plan.IsEmpty early-return: an artifact that only revokes a key produces an empty address-space plan, so feeding after that return would leave the revoked key working until an unrelated structural change redeployed. - ArtifactApiKeyStore serves them to session activation; a node with a ConfigDb keeps ConfigDbApiKeyStore, whose per-request read is what makes revocation immediate there. - OtOpcUaNodeManager gains DataPlaneAuthority — the cluster identity blocker #4 named. NodeScope.ClusterId is required and the evaluator fails closed on a mismatch, so until now no scope it built could have evaluated. Nothing reads it until stages 5/6. The generation is a node-local COUNTER driven by the RevisionHash, not derived from its bits. PermissionTrieCache treats the highest GenerationId as current, so a generation taken from hash bytes would install a lower number about half the time and the cache would go on serving the previous deployment's ACLs, silently. Sessions are not stamped with it yet — that belongs with the first seam that reads a UserAuthorizationState, in stage 5, rather than being built now and consulted by nothing. Live-gated on docker-dev against site-a-1 (driver-only, no ConfigDb): key authenticates, wrong secret denied, both halves of the revocation asymmetry observed, and a SITE-A grant confirmed not to reach site-b-1. Key minted with an independent Python HMAC so the verifier was checked against something other than itself. Rig left clean. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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804c32e5c0 |
docs(acl): design for API-key identity + node ACL enforcement (#520)
Owner decisions 2026-07-31: the OPC UA data plane is machine-to-machine, so identity is an API key with a static username rather than an LDAP user; LDAP is replaced entirely on the data plane (AdminUI login keeps its own); and Anonymous becomes a normal grantable principal behind an enable setting rather than a special case in the evaluator. Re-verified all six of #520's claims on master first — they still hold. The identity decision dissolves blocker #2 (session carries roles, not groups) rather than solving it. Blocker #1 (raw-realm nodes have no representable NodeScope) turns out to be tractable: NodeAclScopeKind already carries Namespace and FolderSegment, so adding NodeHierarchyKind.Raw over the RawPath segments makes FolderSegment matchable for the first time. Seam survey corrects #520 in both directions: HistoryRead already has four overrides to hang a check on, but Read/Browse/Subscribe genuinely have none and sit on the hot publish path, so decisions must be cached per session+node. Records two things the issue did not: enforcement ships behind a default-off Security:Acl:Enabled dark switch (otherwise the first deploy silently denies ScadaBridge, which consumes this address space from another repo), and because Phase 4 leaves driver-only nodes with no ConfigDb, keys ride the deployment artifact — so key revocation requires a deploy. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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be3152e184 |
docs(raw): record that a raw rename rebinds live — #489 closed as fixed-by-#516
Re-ran #489's own repro recipe on docker-dev. It does not reproduce: renaming pymodbus/plc/HR200X -> HR200Z and deploying (no node restart, container at 0 restarts) yields the new raw NodeId serving live ~1 Hz data, the old NodeId gone with BadNodeIdUnknown, and the UNS projection still Good. The mechanism is NOT the ApplyDelta/ReinitializeAsync chain the issue's 2026-07-26 code-trace predicted. The node log shows a stop-and-respawn: DriverHost: stopped driver child MAIN-modbus DriverHost: spawned Modbus driver MAIN-modbus (stub=False) DriverInstance MAIN-modbus: subscribed to 2 refs (poll-sub-1) #516 moved a DriverConfig change out of toDelta and into toStop+toSpawn so the factory is the single parse authority. A rename changes the merged DriverConfig, so the child is rebuilt against the new RawPaths and re-subscribes on the same deploy. #489 was fixed as a side effect and needs no code change. Also gated the sibling case the issue did not cover: renaming the *device* (the middle RawPath segment, plc -> plcz) rebinds identically. Records the operator-facing fact in docs/Raw.md, including the flip side #516 accepts — a rename reconnects the driver, briefly dropping every tag on it. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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803f4e6efe |
refactor(sql): split ISqlDialect/SqlServerDialect into a .Dialect leaf (#526)
`Driver.Sql.Browser` referenced the runtime `Driver.Sql` project. The AdminUI references that browser, so the whole SQL driver runtime — and `ZB.MOM.WW.OtOpcUa.Core` through it — sat in the AdminUI's build/deploy graph. This is the same layering violation #512 removed from the MQTT browser, in a second driver, and it is why #512's expected removal of `Core.dll` from the AdminUI's output did not happen. MEASURED, both directions, on a clean AdminUI build: before: ZB.MOM.WW.OtOpcUa.Core.dll + ZB.MOM.WW.OtOpcUa.Driver.Sql.dll present after: both absent The old csproj comment's premise was sound and survives — the dialect's catalog SQL *is* the browse engine, so it must be shared rather than duplicated. What was wrong was the conclusion that sharing it required referencing the runtime driver. `ISqlDialect`/`SqlServerDialect` depend on nothing in `Driver.Sql`, so they move to a `.Dialect` leaf that both consume. This is the `.Transport` shape, not the cheap one: `ISqlDialect` exposes `DbProviderFactory` and `SqlServerDialect` returns `SqlClientFactory.Instance`, so `.Contracts` (deliberately provider-free) cannot hold them. Assembly name is `.Dialect`; the NAMESPACE stays `ZB.MOM.WW.OtOpcUa.Driver.Sql`, matching the `Driver.Mqtt.Transport` precedent — the extraction cost zero `using` changes. Two dependencies the cut edge surfaced as the implicit ones they were: - The AdminUI itself read `SqlDriver.DriverTypeName` in three places — the tag editor map, the tag config validator, and the Sql address picker. All three now read `DriverTypeNames.Sql`, which is exactly what that constant resolves to and exactly the repoint `SqlDriverBrowser`'s own comment had deferred until a factory was registered against the shared constant. One exists now. - `SqlDriverFormContractTests` asserts the AdminUI form's emitted JSON against the runtime factory that reads it, so it genuinely needs the runtime driver. `AdminUI.Tests` now references it explicitly. A test project referencing a runtime driver is fine — tests are not in the AdminUI's deploy graph. New guard: `DriverBrowserLayeringTests` (Commons.Tests) scans the csproj graph of every `*.Browser` project in the tree, transitively. It reads csproj files rather than loaded assemblies because the cost is a build-graph cost — the compiler emits no assembly reference for an unused `ProjectReference`, so `MqttBrowserLayeringTests`' assembly-reference approach cannot see that case. The two are complementary and each now points at the other. Falsified three ways, each red then green again: the direct reference re-added to the browser; the same reference one hop out via `.Dialect` (proving the walk is really transitive); and both controls — browsers-discovered and references-parsed — which exist so an empty discovery cannot pass the absence assertion vacuously. #526's claim that the reference "carries no comment at all" was wrong; it carried a detailed one from the scaffold commit. Corrected on the issue and in the design doc's project table, which had recorded the deviation as deliberate. Claude-Session: https://claude.ai/code/session_015p7wGqy3YpZNCpDzTpGMKo |
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88ce8df099 |
docs: close the plan-bookkeeping drift and state the tier truth (§8.5, §8.6, #522)
Bookkeeping: 13 .tasks.json files closed — the 8 the audit named, plus
mesh-phase4 (Task 9 landed
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e08855fb9d |
docs: source-verified deferment register + correct 17 drifted docs
Adds deferment.md — a source-verified inventory of new-driver status, all 17
open issues, in-code deferrals, open live gates and plan bookkeeping. Every
claim was checked against src/ and git, not against documentation.
Headline finding: three subsystems are authored, persisted and shipped but
never executed —
* Node ACLs: IPermissionEvaluator/TriePermissionEvaluator have zero
production consumers and OtOpcUaNodeManager never references them, yet
ClusterAcls.razor authors NodeAcl rows and ConfigComposer.cs:51 ships them
in every artifact. An authored deny rule has no effect.
* IRediscoverable / IHostConnectivityProbe raise into the void (#518/#507);
nothing ever writes a DriverHostStatus row.
* DriverTypeRegistry is vestigial, so no factory passes a tier and every
driver runs Tier A with the Tier-C protections dormant.
Also records the Calculation driver as picker-visible but unauthorable
(DriverConfigModal has no case) — the "registered but unauthorable" class
recurring after the Sql picker defect — and notes that no parity test guards
DriverConfigModal/DeviceModal, which is why it survived review.
Documentation corrections (source-verified):
* ReadWriteOperations.md claimed "a denied read never hits the driver" via
four types that do not exist in src/. Bannered + struck through; a security
review reading that page would have concluded a per-node ACL gate exists.
* CLAUDE.md: the Change Detection sentence was false (DriverHost consumes
nothing); the mesh Phase 4 and Phase 5 live gates and the auto-down 1-vs-1
gate had all PASSED; the ScriptedAlarmState table was already dropped.
* driver-expansion tracking: Modbus RTU and SQL poll are merged, not
pending — its command table would have made someone rebuild two shipped
drivers in a fresh worktree.
* drivers/README.md: dead DriverTypeRegistry paragraph, retired
SystemPlatform namespace kind, missing Sql + Calculation rows, missing
Modbus RTU-over-TCP transport.
* TwinCAT.md/Galaxy.md promised an address-space rebuild that never happens.
* Historian.md gained the #491 unproven-value-capture pointer.
* IncrementalSync.md and AddressSpace.md bannered as wholesale v2-era (the
rewrite is recorded as still owed, not done here); four v2 status docs
bannered as historical; three wrong-name-for-a-live-type fixes.
Left deliberately untouched: the secrets NoOpSecretReplicator line, which
makes a security claim and needs the real behaviour identified rather than a
rename.
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813e445936 |
test(mtconnect): close live-gate leg 5 — deploy -> OPC UA read/subscribe PASSED
Re-ran the gate on the rebased branch against a freshly rebuilt
otopcua-host:mtconnect image, so it exercises the merged code.
The 2026-07-24 blocker (antiforgery cookie collision between the running
otopcua-dev rig on :9200 and the isolated stack on :9220) is sidestepped
rather than worked around: the headless deploy API
(POST /api/deployments + X-Api-Key) is AllowAnonymous().DisableAntiforgery()
by design, so cookie scoping is structurally irrelevant to it. No browser
needed — the recommended recipe for any future isolated-stack gate.
Both deploys sealed (DeploymentStatus.Sealed, FailureReason NULL) with both
MAIN nodes acking. Read + subscribe verified over opc.tcp://localhost:4860
across all three type paths: Float64 SAMPLE (sinusoid), Int64 EVENT
(monotonic), String EVENT (READY -> INTERRUPTED). This closes the last
unproven link — driver seam was already covered by the live integration
suite; leg 5 adds DeploymentArtifact -> address space -> OPC UA publish.
Two findings recorded in the plan:
- A bad authored dataType degrades to exactly ONE skipped tag, loudly
(per-tag warning naming the expected keys, BadNodeIdUnknown, "every other
tag is unaffected") while the rest keep streaming — the intended
fail-isolated behaviour, demonstrated rather than argued. Correcting it
took effect with no restart, showing MTConnect is not subject to the
separately-tracked config-edits-discarded defect.
- fixture_asset_changed reading 0x80000000 is NOT an MTConnect defect. The
driver maps the agent's UNAVAILABLE to BadNoCommunication correctly; the
shared publish path collapses every status to a 3-state OpcUaQuality enum
(DriverInstanceActor.QualityFromStatus, statusCode >> 30) and re-expands
Bad to StatusCodes.Bad (OtOpcUaNodeManager.StatusFromQuality). Deliberate
per the enum's own doc comment, but the client-visible consequence appears
undocumented: no driver's Bad/Uncertain sub-code ever reaches a client.
Tracked separately; out of scope here.
Also records the rebase onto master
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9d430bee62 | docs(mtconnect): correct the MaintenanceMode note; record status-code parity pre-verification | ||
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1d0989d3b4 | test(mtconnect): live gate on an isolated rig — 4/5 legs pass, deploy leg blocked on a cookie collision (Task 21) | ||
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71ccccef7c |
docs(mtconnect): P1 driver guide + tracking-doc update, defer write-back (Task 22)
- docs/drivers/MTConnect.md: getting-started guide for the P1 Agent MVP — config keys read off MTConnectDriverOptions/ConfigDto, capability surface, RawPath->dataItemId coercion precedence, UNAVAILABLE->BadNoCommunication + the rest of the quality-code table, CONDITION-as-String, browse-via-the- universal-browser, the fixture recipe (links the existing IntegrationTests Docker README instead of duplicating it), and a Known limitations section covering the two pre-existing fleet-wide gaps this build surfaced (IRediscoverable/IHostConnectivityProbe have no server consumer; no driver form blocks Save on validation). Records write-back (MTConnect Interfaces), P1.5 (native alarms, TIME_SERIES arrays, EVENT->enum), and P2 (SHDR ingest) as deferred per design doc SS3.6/SS9. Documents where the build diverged from the design: TrakHound MTConnect.NET was dropped entirely (no XML formatter in the pinned packages, no injectable HTTP handler) in favor of a hand-rolled System.Xml.Linq client, namespace-agnostic on LocalName. - docs/drivers/README.md: adds MTConnect to the ground-truth driver table, the per-driver doc list, and the fixture coverage-map list. - docs/plans/2026-07-24-driver-expansion-tracking.md: marks the MTConnect Wave-2 row Done (22/23 tasks; Task 21 live gate tracked separately in the plan file, not touched here), corrects mtconnect/cppagent -> mtconnect/agent in the fixture note, and links the new driver guide. Deferred-cleanup decision (Task 1 review follow-up): removed GenerateDocumentationFile/NoWarn CS1591 from Driver.MTConnect.Contracts's csproj to match all eight sibling .Contracts projects, none of which carry it. Verified both the Contracts project alone and the full solution still build clean (0 warnings, 0 errors) with the flags gone — the existing XML doc comments don't depend on GenerateDocumentationFile to compile. |
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5ba9f1be6f |
fix(mtconnect): make a /sample stream end loud, and correct the gap contract (Task 7 review)
Code review of c46540ae approved the framing algorithm but moved the risk onto the contract around it. C1 (critical). SampleAsync returned normally on three different events: EOF, the closing --boundary--, and a response that was not multipart at all (where it yielded one parsed snapshot and finished). The seam documents the stream as yielding until ct is cancelled, so a Task 11 pump written to that contract would silently drop its subscription or hot-loop reconnecting; the non-multipart leg reported a configuration error as a healthy finished stream, which is the #485 quiet-successful-termination shape aimed at the very next task. Every non-cancellation end now throws: MTConnectStreamEndedException (ConnectionClosed / ClosingBoundary - transient) or MTConnectStreamNotSupportedException (configuration - reconnecting reproduces it forever), sharing one catchable base. The non-multipart body is still parsed first so an Agent's own MTConnectError text wins, but the document is NOT yielded. I1. IsSequenceGap moved to IMTConnectAgentClient (static) and its first parameter is now expectedFrom. The old name and doc were wrong for every chunk after the first - the correct comparand is the PREVIOUS chunk's NextSequence, and comparing against the opening "from" argument reports a gap on every chunk once the ring buffer rolls, i.e. an endless /current re-baseline storm. Both doc blocks also now record that cppagent answers from < firstSequence with an OUT_OF_RANGE MTConnectError under HTTP 200, which surfaces as InvalidDataException and NOT as a gap - so Task 11 must treat that parse failure as a re-baseline trigger too. I2. Every multipart test served the whole body from one buffer, so every framing test completed in a single ReadAsync - the split-boundary path, the split-header path and the multi-fill loop were correct by inspection only. A ChunkedStream double (N bytes per read, N = 1/3/7) now drives the fixtures through a split transport, plus a >16 KB document that forces a buffer resize. Falsifiability: removing either scan overlap, or collapsing the fill loop, fails ONLY the new chunked tests. I3. Disposal mid-enumeration surfaces as OperationCanceledException via an internal dispose-linked token, not a raw ObjectDisposedException that Task 9's re-init would inflict on an enumerating pump. I5. HeartbeatMs, SampleIntervalMs and SampleCount join RequestTimeoutMs in construction-time positive-value validation. All three reach the query string and an Agent answers heartbeat=0 with an HTTP-200 MTConnectError that names no config key. I4/M2. The no-Content-length framing fallback logs a one-shot warning (the client takes an optional ILogger); a multipart response with no boundary parameter fails fast instead of degrading into a watchdog timeout. M5/M6. Shared element/attribute reading rules extracted to MTConnectXml; the probe parser documents why it alone does not trim BOM/whitespace. The literal U+FEFF in source became a '' escape. Also, from Task 8: MTConnectObservation gained IsStructured (default false), set from element.HasElements. A DATA_SET/TABLE observation's <Entry> children concatenate through element.Value to nonsense ("12" for two entries) that the index would publish as Good, and only the parser can tell that apart from a legitimate space-bearing Message. False for CONDITION observations - their value comes from the element name, so child content cannot corrupt it. 275/275 green in this suite's own files. |
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cf43f8d0ab |
feat(mtconnect): current/sample parse + sequence-gap detection (Task 7)
Adds the /current and /sample legs to MTConnectAgentClient: - MTConnectStreamsParser: hand-rolled System.Xml.Linq parse of an MTConnectStreams document into MTConnectStreamsResult. Observations are every element child of <Samples>/<Events>/<Condition>, keyed by dataItemId (the element NAME is the data item's type in PascalCase, so a fixed name set would drop observations). A CONDITION's value is its element name, not its text - <Normal/> is empty - and <Unavailable/> normalizes onto the same UNAVAILABLE sentinel a Sample/Event carries as text, so Task 8's no-comms mapping sees one token. Timestamps are normalized to DateTimeKind.Utc explicitly. - IsSequenceGap(requestedFrom, chunk) => chunk.FirstSequence > requestedFrom, so Task 11's pump can re-baseline after a ring-buffer overflow. Equality is NOT a gap. - SampleAsync: ResponseHeadersRead + a hand-rolled multipart/x-mixed-replace frame reader (Content-length fast path, boundary-scan fallback), bounded by a heartbeat watchdog derived from HeartbeatMs so a silent Agent faults instead of wedging the pump - the S7 frozen-peer shape (arch-review R2-01). The long poll gets its own HttpClient with an infinite Timeout so the unary /probe + /current deadline stays bounded. Task 0 package decision, option (c): both TrakHound PackageReferences and their PackageVersions are dropped. MTConnectHttpClientStream takes a URL and dials its own socket (no handler/stream seam, so it cannot serve a socket-free unit suite), and it emits already-parsed documents through the formatter lookup Task 6 proved is missing - framing-only reuse was never actually on offer. The driver now depends on nothing but the BCL. Recorded in the plan's Task 0 CORRECTION block. Also folds in two Task 6 review carry-overs: the stale IMTConnectAgentClient doc comment claiming a TrakHound-backed implementation, and a probe test constructing a mixed-namespace vendor extension (<x:Pump> with default-namespace <DataItems> children) that backs the parser's ignore-the-namespace claim with a test. 187/187 green. |
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d3aaa4a411 | docs(mtconnect): correct the Task 0 decision — TrakHound cannot parse XML as pinned | ||
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3b92b7cc83 | docs(mtconnect): record TrakHound-vs-hand-rolled client decision (Task 0) | ||
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c3a2b0f773 |
Merge branch 'feat/mqtt-sparkplug-driver'
# Conflicts: # src/Core/ZB.MOM.WW.OtOpcUa.Core.Abstractions/DriverTypeNames.cs # src/Server/ZB.MOM.WW.OtOpcUa.AdminUI/Components/Shared/Drivers/DriverConfigModal.razor # src/Server/ZB.MOM.WW.OtOpcUa.AdminUI/EndpointRouteBuilderExtensions.cs # src/Server/ZB.MOM.WW.OtOpcUa.AdminUI/Uns/TagEditors/TagConfigEditorMap.cs # src/Server/ZB.MOM.WW.OtOpcUa.AdminUI/Uns/TagEditors/TagConfigValidator.cs # src/Server/ZB.MOM.WW.OtOpcUa.AdminUI/ZB.MOM.WW.OtOpcUa.AdminUI.csproj # src/Server/ZB.MOM.WW.OtOpcUa.Host/Drivers/DriverFactoryBootstrap.cs |
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0f38f48679 |
merge: Modbus RTU-over-TCP transport (#495)
Wave 1 of the driver-expansion program. The branch was complete and live-gated but had never been merged; it sat 15 commits ahead and 50 behind master. Purely additive behind the existing IModbusTransport seam — the application protocol (function codes, codecs, planner, coalescing, write path, probe, materialisation, HistoryRead) is identical across TCP and RTU; only the wire framing differs ([addr][PDU][CRC-16], no MBAP, no TxId). Zero changes to codecs/planner/health. Selected by a new Transport config field (ModbusTransportMode: Tcp | RtuOverTcp), routed through ModbusTransportFactory (throws on unknown mode), with the string-enum guard on options/DTO/factory and a Transport selector on the AdminUI Modbus form. ModbusSocketLifecycle was extracted from ModbusTcpTransport (behaviour-preserving) and is composed by both transports. Descoped by design: direct-serial (System.IO.Ports) and Modbus ASCII — RTU buses are reached exclusively via a serial->Ethernet gateway. No per-tag config changes; the existing per-tag UnitId already makes a multi-drop bus work. Re-validated against current master at merge time (the branch's own gate predates 50 commits of master): no overlapping files, clean merge, solution builds 0 errors, and Modbus 344/344, Modbus.Addressing 161/161, AdminUI 740/740, Runtime 507/507, Configuration 131/131 all pass. Confirmed the Transport selector is still reachable through master's current authoring path (DriverConfigModal -> ModbusDriverForm), so the branch's live /run gate result still applies. |
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549c656489 |
fix(alarms): re-assert non-normal scripted-alarm conditions after a (re)load (#487)
A deploy that triggers a FULL address-space rebuild clears `_alarmConditions` and re-materialises every condition node fresh — inactive, acked, confirmed, unshelved. The engine reloads its persisted state and re-derives Active from the predicate, so it ends up correct; but there is no transition to report, so `LoadAsync` yields `EmissionKind.None` and `OnEngineEmission` drops it. Nothing writes the node. Live-reproduced on the docker-dev rig against the pre-fix image: an alarm that had fired and cleared but was still UNACKNOWLEDGED came back from a rebuild reporting Acknowledged with Retain=false — so it disappeared from ConditionRefresh entirely, while the engine still held Unacknowledged. An operator's outstanding alarm silently vanishes from the alarm list on deploy. `ScriptedAlarmHostActor.ReassertConditionNodes` closes it. After each load it reads the new `ScriptedAlarmEngine.GetProjections()` and sends one `AlarmStateUpdate` per alarm NOT in the Part 9 no-event position. Load-bearing properties: - Node-only. It sends `AlarmStateUpdate` and nothing else — never the `alerts` topic, never the telemetry hub. `alerts` is the historization path, so a row per alarm per deploy would append a duplicate historian/AVEVA record every time anyone deploys. This is why it reads a projection rather than re-emitting: `ScriptedAlarmProjection` carries no `EmissionKind`, so there is nothing for the emission machinery — or a future refactor — to mistake for a transition. The issue's sketch said `GetState(alarmId)` + `LoadedAlarmIds`; that alone would have clobbered the node's severity and message, so the projection also carries the definition's severity, the resolved message template, and the last-observed worst-input quality. - Only non-normal alarms. One in the no-event position already matches what the materialise built, so a never-fired alarm stays byte-identical to a deploy without this pass (including its Message, which the materialise seeds with the display name), and an all-normal deploy writes nothing at all. - Timestamp is the condition's own `LastTransitionUtc`, not the deploy instant. - No duplicate Part 9 events: `WriteAlarmCondition`'s delta-gate compares against the node's CURRENT state, so a re-assert onto a freshly materialised node is a genuine delta (fires once — correct, the rebuild reset what clients see) while one onto a surgically-preserved node is suppressed. Tests: 6 new host tests + 6 new engine tests. Falsifiability checked by disabling the call — 4 of the 6 host tests go red; the other 2 are absence guards against an over-broad fix and pass either way by design. Live gate (docker-dev, central-2, pre-fix image vs. rebuilt image): - pre-fix: condition absent from ConditionRefresh after a rebuild; - post-fix: present, Unacknowledged, Retain=True, stamped with its own LastTransitionUtc rather than the restart instant; - /alerts stayed empty across two re-asserts, with the panel proven live by a real ACTIVATED transition immediately afterwards — no duplicate history. |
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4dc2ad8084 |
feat(sql): implement the design §8.1 catalog identifier-validation gate (#496)
Until now ISqlDialect.QuoteIdentifier was the SOLE defence for authored
table/column names: an identifier went from the TagConfig blob straight into a
command text, bracket-quoted. The residual risk was bounded — a hostile name is
quoted into one nonexistent object, the query fails after the connection opens,
and the tag Bad-codes — but "bounded" is not "filtered", and the design promised
a filter. Both ISqlDialect and SqlServerDialect carried a doc paragraph saying so.
SqlCatalogGate + SqlCatalogLoader now resolve every authored identifier against
the live catalog at Initialize, and REPLACE it with the catalog's own spelling.
The identifier text in an emitted poll query is therefore a string this driver
read back out of ListSchemas/ListTables/ListColumns — not operator input. Quoting
becomes the backstop it was documented to be.
Decisions worth knowing before touching this:
- Substitution, not just validation. Matching is exact-ordinal first, then a
UNIQUE case-insensitive hit: SQL Server's default collation is CI so case
variants have always worked, and rejecting them would break valid deployments.
An ambiguous CI match under a case-sensitive collation is refused rather than
guessed — picking one would publish another column's data under the operator's
node, which is worse than rejecting the tag.
- Charset check BEFORE catalog lookup. Each identifier goes through
QuoteIdentifier for its rejection rules first, so a name carrying a control or
Unicode format character is rejected WITHOUT its value being echoed into a log
line (Trojan-Source). A name that passes is safe to render, which is why
catalog-miss messages do name it — an operator hunting a typo has to see what
they wrote. Both halves are pinned by tests.
- A rejected tag keeps its node. It is dropped from the POLLED table but stays in
the AUTHORED table, so it still materializes and reads BadNodeIdUnknown —
§8.1's specified outcome. My first wiring dropped it from both, which deleted
the node instead; an existing test (ReinitializeAsync_recoversFromFaulted)
caught it. A status code can only be published by a node that exists, and a
missing address-space entry is far harder to diagnose than a Bad quality.
- An unreadable catalog FAULTS Initialize; it does not reject every tag. That is
the absence of evidence about the tags, not evidence against them — rejecting
all of them would serve a confidently-empty address space and send the operator
hunting typos that do not exist. Zero visible schemas is treated the same way,
because that is exactly what a missing GRANT looks like. Faulting lands
DriverInstanceActor in Reconnecting with its retry timer running.
- Bounded load: one schema list, one default-schema scalar, then one ListTables
per distinct authored schema and one ListColumns per distinct authored relation
— never a full catalog enumeration, and nothing after Initialize. Every
authored name reaches the catalog queries as a bound @schema/@table parameter,
so building the allow-list cannot itself be an injection vector.
- ISqlDialect gains DefaultSchemaSql ("SELECT SCHEMA_NAME()"). An unqualified
`TagValues` must resolve in whatever schema the SERVER reports; hardcoding dbo
would be a silent lie on any estate that maps service accounts to their own
default schema. It is a query, not a constant, because the answer is
per-connection.
- Accepted v1 limitation: a 3-part db.schema.table (or linked-server name)
addresses a catalog this connection cannot enumerate, so it cannot be
allow-listed and is rejected with a message pointing at the fix — expose the
data through a view in the connected database.
VerifyLivenessAsync's wall-clock pattern is extracted to RunBoundedAsync and
reused, so the new I/O gets the same R2-01 / STAB-14 protection rather than a
second hand-rolled copy. (It also fixes a latent bug in the extracted code: the
OperationCanceledException arm detached the wrong task.)
Tests: 24 pure gate tests + 9 end-to-end driver tests against the real SQLite
catalog + 3 new live tests against the real SQL Server on 10.100.0.35 (21 in that
suite now pass, exercising the real SELECT SCHEMA_NAME() + INFORMATION_SCHEMA
path). Verified falsifiable: bypassing the gate turns exactly the three rejection
assertions red and leaves the rest green.
SqlInjectionRegressionTests is deliberately NOT rewritten to expect
BadNodeIdUnknown. It drives SqlPollReader directly, below the gate, and pins the
quoting backstop on its own — defence in depth is only worth the name if each
layer holds independently. Rewriting those assertions would delete the backstop's
only coverage and leave the gate a single point of failure. Its scope note, which
said the gate does not exist, is updated to say why it stays where it is.
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1919a8e538 |
feat(config): reject a persisted Sql connectionString at the deploy gate (#498)
The Sql driver's "a pasted literal connection string is never persisted" guarantee was
enforced only on the READ path: SqlDriverConfigDto has no connectionString property and
UnmappedMemberHandling.Skip drops the key on deserialization. Nothing stopped it being
WRITTEN. Config blobs are schemaless JSON columns and the fallback authoring pattern for
a driver without a typed form is a raw-JSON textarea, so an operator pasting
{"connectionString":"Server=...;Password=..."} would put a live credential in the
ConfigDb — persisted, replicated to every node's artifact cache, readable by anyone with
config access — while the runtime silently ignored it and the driver failed to connect.
Discarding a secret on read is not the same as refusing to store it.
DraftValidator.ValidateSqlConnectionStringNotPersisted fails the deploy
(SqlConnectionStringPersisted) when a Sql-typed driver instance's DriverConfig, or the
DeviceConfig of any device beneath it, carries a top-level connectionString key.
- Both surfaces are checked because DeviceConfig is merged onto DriverConfig before the
DTO sees it — a credential pasted into the device blob is the identical leak.
- The key is matched case-insensitively: System.Text.Json binds ConnectionString to a
connectionString property by default, so an ordinal match would leave the obvious
bypass open.
- Only the top level is scanned; the DTO is flat, so a nested occurrence cannot bind and
is not the mistake this rule exists to catch.
- The message never echoes the value — validation errors reach the AdminUI, the deploy
log and the audit trail, and repeating the string there would leak the credential the
rule is refusing to store. Pinned by a test.
- Malformed/blank/non-object JSON never throws: a parse failure would take down every
other rule in the same pass.
16 tests. Verified falsifiable — with the rule disabled the 6 positive assertions fail
and the 10 negatives stay green, so none of them passes vacuously.
Design §8.2's "if an inline connectionString is ever permitted (dev convenience only),
the AdminUI redacts it" carve-out is withdrawn in the same change: redaction only hides a
credential that has already been written.
Not covered, and filed as a follow-up: ClusterNode.DriverConfigOverridesJson is a third
persistence surface for a driver config blob, but it is not part of DraftSnapshot, so
this validator cannot see it.
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b95b99ba8e |
fix(drivers): correct 16 wrong OPC UA status-code constants + guard them by reflection (#497)
Every value verified against Opc.Ua.StatusCodes in the pinned SDK (1.5.378.106) by reflection, not by copying siblings. All are client-visible: OPC UA clients branch on status. The three named in #497: - Historian.Gateway SampleMapper "BadNoData" 0x800E0000 -> 0x809B0000 (0x800E0000 is BadServerHalted) - Galaxy "BadTimeout" 0x800B0000 -> 0x800A0000 (0x800B0000 is BadServiceUnsupported) - TwinCAT BadTypeMismatch 0x80730000 -> 0x80740000 (0x80730000 is BadWriteNotSupported) BadTypeMismatch was wrong in three MORE drivers the issue did not name — FOCAS, AbLegacy and AbCip carried the same 0x80730000. Every call site is a FormatException/InvalidCastException conversion failure, so the name was right and the value was wrong in all four. Adding the reflection guard then surfaced nine further defects offline tests had never checked: - Galaxy GoodLocalOverride 0x00D80000 -> 0x00960000 (not a UA code at all) - Galaxy UncertainLastUsableValue 0x40A40000 -> 0x40900000 - Galaxy UncertainSensorNotAccurate 0x408D0000 -> 0x40930000 - Galaxy UncertainEngineeringUnitsExceeded 0x408E0000 -> 0x40940000 - Galaxy UncertainSubNormal 0x408F0000 -> 0x40950000 - TwinCAT BadOutOfService 0x80BE0000 -> 0x808D0000 (was BadProtocolVersionUnsupported) - TwinCAT BadInvalidState 0x80350000 -> 0x80AF0000 (was BadAttributeIdInvalid) - AbCip/AbLegacy GoodMoreData 0x00A70000 -> 0x00A60000 (was GoodCommunicationEvent) - Historian.Gateway GatewayQualityMapper Good_LocalOverride 0x00D80000 -> 0x00960000 Galaxy's whole Uncertain block read as though the OPC DA quality byte could be shifted into the UA substatus position; it cannot — the substatuses are an unrelated enumeration. GatewayQualityMapper already held the correct table, which is what the Galaxy values are now reconciled against. Guard: StatusCodeParityTests (Core.Abstractions.Tests, which already project- references every driver) reflects over every `const uint` in the deployed ZB.MOM.WW.OtOpcUa.Driver.*.dll whose name reads as a status code, and asserts it equals Opc.Ua.StatusCodes.<name>. Discovery is by convention, so a new driver assembly referenced by that project is covered with no edit here. It went red on all nine defects above before the fixes and now checks 109 constants green. Because reflection can only see a NAMED constant, two inline literals were hoisted so the guard can reach them: Galaxy's BadTimeout/Bad into StatusCodeMap, and GatewayQualityMapper's 15-entry table into a new HistorianStatusCodes. An inline `0x800B0000u, // BadTimeout` at a call site is exactly how the Galaxy defect survived. The drivers stay SDK-free by design; only the test project references Opc.Ua.Core, as the oracle. Also corrected: tests that pinned the wrong values (Galaxy StatusCodeMapTests, SampleMapperTests, GatewayQualityMapperTests — all written from the same bad source), a mislabelled comment in DriverInstanceActorTests, and stale constants in two design docs, one of them the unexecuted MTConnect driver design that would have propagated BadNoData's wrong value into a new driver. The CLI's SnapshotFormatter value->name table was checked against the SDK and is correct; no change needed. |
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d5bd4226ee |
docs(mqtt): Sparkplug P2 live-verified; MQTT driver complete
Task 26 — the P2 milestone gate. Ran the live /run verification on an isolated
docker-dev rig (project otopcua-mqtt, ports 9210/4850-4851/14350, image built
from this branch) against the real Mosquitto TLS+auth broker and the C#
Sparkplug edge-node simulator on 10.100.0.35, and recorded the result.
The gate found three defects. Two are the same defect class the P1 gate found
twice — a hand-maintained AdminUI surface left behind by a driver-side feature —
and the third is a pre-existing cross-driver bug that only a Sparkplug flow
could surface.
1. CRITICAL, FIXED — MqttDriverForm still shipped its P1 Sparkplug PLACEHOLDER.
Switching Mode to SparkplugB rendered a "not available yet" notice and NO
Group ID field, so with Sparkplug ingest fully shipped there was still no
way to author a Sparkplug driver from the AdminUI at all. Sparkplug.GroupId
is the driver's entire subscription filter (spBv1.0/{GroupId}/#): blank ⇒
connected, Healthy, ingesting nothing. Now authors all five Sparkplug keys,
MERGES over the existing sub-object rather than replacing it (so a key a
newer driver adds inside it survives an older AdminUI), leaves it untouched
in Plain mode, and validates the group id as the topic segment it is.
Pinned by 8 MqttDriverFormModelTests cases, verified falsifiable — 8 RED
with the fix stubbed out.
2. PRE-EXISTING + CROSS-DRIVER, FIXED — every node label in the shared
DriverBrowseTree was an <a href="#">. In a Blazor Web App, blazor.web.js's
enhanced-navigation click interceptor resolves a bare "#" against
<base href="/">, so clicking ANY browse-tree node label navigated the whole
AdminUI to "/", tore down the circuit, and destroyed the hosting modal —
losing the browse session AND the tag selection. @onclick:preventDefault
does not help: it suppresses the browser's default action, not Blazor's own
interceptor. Labels are now <button type="button">. Dates to the component's
introduction (2026-05-28) and affects EVERY driver's picker; it surfaced
only now because choosing a rebirth scope is the first flow that requires
clicking a label rather than the ▶ toggle (always a button, always fine).
3. FIXED (mitigation) — the browse tree rendered exactly once, at open, and
never again, while OpenAsync returns as soon as the SUBSCRIBE is granted.
On Sparkplug that means it is almost always empty forever, because births
are never retained. Added a Refresh button that re-reads the root against
the SAME session (nothing reconnects, nothing observed is lost, the tag
selection is kept, only the armed rebirth scope is cleared).
Live gate result (all against the real broker + simulator, group OtOpcUaSim):
- driver authored end-to-end through the fixed MqttDriverForm; blob is
Mode:SparkplugB + Sparkplug.GroupId:OtOpcUaSim with enums as names
- browse: BROWSER OPEN chip, Sparkplug-only rebirth panel, tree renders
Group → EdgeNode → [Device] → Metric with the device folder Filler1 and
node-level metric leaves SIDE BY SIDE, and "Node Control/Rebirth" as ONE
leaf (the metric-name-is-not-a-topic-segment rule holding)
- rebirth: group scope names the group + the 32-node cap, Cancel published
NOTHING (simulator log unchanged); edge-node scope → "1 command published"
and the simulator logged "rebirth NCMD #1 received; republishing metadata";
group scope → "2 commands published", both edge nodes re-birthed; a device
and a metric both resolve UP to "edge node EdgeA"; the panel does NOT render
for a Plain MQTT device
- browse-commit wrote bindable tuples with no topic/address key —
{"groupId","edgeNodeId","metricName","deviceId"} for the device metric and
deviceId ABSENT (not blank) for the node-level one, datatypes inherited from
the birth (Int64 / Float)
- deployed (Sealed), and both nodes served live changing values through OPC UA
at the 2 s cadence — Good 0x00000000, no BadNodeIdUnknown
- death→STALE: stopping the simulator drove both nodes to 0x80000000 with an
empty value ~2 s later, and restarting it recovered them to Good on the new
birth (FillCount back to its birth-declared 1000, then counting)
- rediscovery fired exactly TWICE (once per authored scope: OtOpcUaSim/EdgeA
7 metrics, OtOpcUaSim/EdgeA/Filler1 3 metrics) and was then gated across
many subsequent births/rebirths — the anti-storm change gate working, and
EdgeB correctly filtered out as an unauthored scope
- tag editor: opens in SparkplugB (mode inference on reopen) with all four
descriptor fields populated; blank group → "A Sparkplug group ID is
required."; "Plant/1" rejected; "Node Control/Rebirth" ACCEPTED and saved
with the slash whole; dataType override persists and its key is ABSENT again
after selecting "(from birth certificate)"
Two things are NOT verified, and are recorded rather than claimed:
- Rediscovery is INERT in v3 and this is a platform gap, not an MQTT one:
nothing subscribes to IRediscoverable.OnRediscoveryNeeded and
DriverHostActor.HandleDiscoveredNodes hard-returns. A DBIRTH introducing a
metric does NOT change the OPC UA tree; redeploy. Verified from the driver's
log line only, exactly as far as it can be verified.
- A metric name containing "/" cannot be BROWSE-COMMITTED: the derived raw tag
Name is a RawPath segment and may not contain "/", so the spec-mandatory
"Node Control/Rebirth" is refused ("Row 3: Name must not contain '/'"). The
refusal is loud and all-or-nothing, never a silently mis-bound tag, and
Manual entry is the working path. Fixing it needs a name-sanitisation policy
with a collision answer, so it was recorded rather than guessed at.
Also left open + documented: an empty browse tree cannot arm a rebirth (the
scope comes from a tree click, and the session side already accepts a bare
{group}/{edgeNode} — only a UI path is missing); _canRebirth is captured at
browse-open; the tag editor injects the Plain-only payloadFormat key into a
Sparkplug blob (cosmetic — the factory routes on the tuple).
Suites: offline 1528 passed / 0 failed (581 Driver.Mqtt + 809 AdminUI + 138
Core.Abstractions); live 15/15 against the broker + simulator.
Docs: docs/drivers/Mqtt.md brought fully up to date for P2 (Sparkplug config
sub-object, both tag shapes, the ingest state machine, rediscovery, browse +
rebirth + Refresh, a Known-gaps table); Mqtt-Test-Fixture.md gains the simulator
and drops its "Sparkplug has no fixture" claims; infra/README.md §3 gains the
simulator row; CLAUDE.md gains the simulator endpoint facts; the tracking doc
marks MQTT/Sparkplug COMPLETE. docker-dev/docker-compose.mqtt.yml is the
isolated-rig overlay the gate ran on.
Claude-Session: https://claude.ai/code/session_01GASWkNEi68FSCtvr6rLoEW
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07a4a5ff5e |
docs(mqtt): P1 plain-MQTT milestone live-verified; endpoint recorded
Task 14 — the P1 milestone gate. Ran the live /run verification on a docker-dev
rig against the real Mosquitto TLS+auth fixture, and recorded the result.
The gate did its job: it found MQTT was unauthorable in production.
RawDriverTypeDialog's driver-type list is a hand-maintained array that nobody
added MQTT to, so the /raw "New driver" picker never offered it — with every
other layer (contracts, driver, browser, factory, host registration, typed tag
editor) complete and 266 green unit tests. Nothing tied that array to
DriverTypeNames and AdminUI has no bUnit, so no offline test could see it.
Fixed, plus RawDriverTypeDialogParityTests: a reflection parity guard that
fails for ANY DriverTypeNames entry missing from the picker. Verified
falsifiable — RED with "…cannot be authored from the /raw New-driver picker,
so they are unreachable in production: Mqtt" before the one-line fix.
A second gap is left OPEN and documented, not fixed (no task ever covered it):
MqttDriverForm / MqttDeviceForm do not exist, and DriverConfigModal/DeviceModal
have no raw-JSON fallback — so an operator can create an MQTT driver but cannot
author its broker endpoint or credentials. P1 is not operator-complete until
those two razor forms land. The gate authored config via SQL to get past it.
Live gate result (isolated 2-node MAIN stack, image built from this branch,
fixture at 10.100.0.35:8883, AllowUntrustedServerCertificate rather than
pinning the CA into the rig):
- typed MQTT tag editor renders and round-trips; Json shows the JSON-path
field, Raw/Scalar hide it; wildcard topic a/+/c blocked at save; data-type
list offers Float64 and no Double; qos/retainSeed absent on "(driver
default)" and qos:2 written as a number; isHistorized/historianTagname
survive a topic-only edit; SparkplugB renders the P2 placeholder and
switching back keeps Plain values; jsonPath is guidance not a gate in all
three shapes ($ seeded only for a brand-new blank tag, blank stays absent,
clearing saves fine)
- deployed, and both editor-written blobs resolved and served changing live
values through OPC UA (22.8 / 1629, StatusCode Good) — no BadNodeIdUnknown
- the bespoke #-observation browser drove a real broker session and rendered
the fixture's actual topic tree (line1/{counter,state,temperature},
noise/chatter, retained/seed); a Modbus device's picker still correctly
reports "Browsing unavailable"
Also found live and documented (not a code change): both nodes of a redundant
pair run the driver, so a FIXED clientId makes them evict each other forever —
the broker logs "already connected, closing old connection" and both nodes
reconnect every ~2s while still reporting Healthy. Unset (the default) is
correct; confirmed 0 reconnects/60s on both nodes after removing it.
Suites: offline 1134 passed / 0 failed (266 Driver.Mqtt + 730 AdminUI incl. the
3 new guards + 138 Core.Abstractions); live 7/7 against the fixture.
Docs: new docs/drivers/Mqtt.md + Mqtt-Test-Fixture.md (the per-driver + fixture
convention every other driver follows), MQTT rows in docs/drivers/README.md,
TestConnectProbes.md, root README.md, and infra/README.md §3.
CLAUDE.md drift corrected while adding the MQTT endpoints:
- the "every fixture carries project: lmxopcua" claim was false — only the
MQTT fixture does; the filter returns one stack, not the fleet
- lmxopcua-fix.ps1 is Windows-VM-only; on macOS drive the host over ssh/rsync
(and the docker-dev rig itself runs locally under OrbStack)
Claude-Session: https://claude.ai/code/session_01GASWkNEi68FSCtvr6rLoEW
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