migrations/0004_breach_records.sql models a case's lifecycle as
append-only events (alleged/cured/determined/terminated) grouped by
case_id rather than one mutable row - resolution is always a new,
later event, never an edit. A CHECK constraint makes the
anonymized-default rule (License V1C1 §7.4) a database fact:
named_entitlement_holder can be set if and only if anonymized = false.
src/target_revenue/breach_record.py's publish_breach_event() enforces
per-Licensor phase ownership and rejects named-disclosure requests
that don't also set named_disclosure_authorized_under_cua: true - the
Trust Service records the Licensor's assertion that the CUA's naming
clause authorizes it, it never verifies the underlying CUA text
itself. Signs every event with the same instance Ed25519 key already
used for Ledger entries and Attestations.
Adds POST/GET /phases/{id}/breach-records. Guarded the .registry
import behind a lazy in-function import (matching attestation.py's
TYPE_CHECKING pattern) so tests/test_breach_record.py (7 tests) runs
under plain system Python with no psycopg dependency. 5 new
Docker-gated tests cover the default-anonymized lifecycle, the
named-disclosure authorization gate, cross-Licensor rejection,
signature verification, and DB-level UPDATE/DELETE rejection.
This closes WP-0006 again - all 9 tasks done.
22 KiB
| id | type | title | domain | repo | status | owner | topic_slug | created | updated | state_hub_workstream_id |
|---|---|---|---|---|---|---|---|---|---|---|
| TREV-WP-0006 | workplan | Trust Service reference implementation (PRD Phase 4b) | infotech | target-revenue | finished | claude | infotech | 2026-07-29 | 2026-07-29 | 03f63e7e-c17a-4dcc-aa34-a79824dafcf3 |
Trust Service reference implementation (PRD Phase 4b)
Builds the hosted Trust Service that WP-0002 deliberately deferred: Phase
Registry, Extension Registry, hosted Target Ledger, Metrics, and Conversion
Attestation publication, serving multiple repos rather than the single
offline golden-Phase package. This is the piece explicitly named in
SCOPE.md §3 as out of scope until now.
Unblocked as of 2026-07-29: SCOPE.md §4 rule 2 required (a) WP-0003's
core extract deliverables to exist, and (b) working defaults for Longstop,
currency, recognition, and minimum evidence to be published, before full
Trust Service implementation could start. Both conditions are now met
(WP-0003 finished 2026-07-29; specs/OpenQuestions-WorkingDefaults.md
published since Stage 0). This workplan is the first to actually start
that implementation.
Why now: the midterm goal is to govern and monetize the evolution of
repos across the coulomb Forgejo org's product lines (coulomb-loop,
net-kingdom, helix-forge, the railiance-* family) — that requires a
real, multi-repo-capable Trust Service, not the single-Phase offline
library WP-0002 produced.
Does not include: accepting real payments or tracking a real Phase for
any production repo — see workplans/TREV-WP-0008-governance-and-pilot-rollout.md
for the human-gated go-live step. This workplan builds the infrastructure;
it does not turn it on for anyone's real money.
Trust Service Product Requirements Document
id: TREV-WP-0006-T01
status: done
priority: high
state_hub_task_id: "c98a1871-ae5c-4c91-b59c-88a6e4ccc193"
Produce specs/TrustServiceProductRequirementsDocument.md: scope,
stakeholders, and requirements for the hosted service, building directly
on specs/TechnicalSpecificationDocument.md §4 (component architecture)
and §3's schemas. Must state explicitly which of WP-0002's Stage 0
guarantees (determinism, offline verifiability, no Trust Service discretion
over conversion) the hosted service inherits unchanged versus which
Stage-0-only constraints (single golden Phase, no auth, no multi-tenancy)
it must now lift.
Result: specs/TrustServiceProductRequirementsDocument.md produced.
Nine stakeholders identified (including Enforcement Partner, a category
that did not exist at framework-PRD-drafting time). §3 states five
inherited-unchanged Stage 0 guarantees (determinism, offline verifiability,
no discretionary conversion authority, append-only ledger semantics, closed
core vocabulary); §4 tables ten Stage-0-only constraints that must lift,
mapped to their owning T03–T08 task, plus one flagged gap: no WP-0006 task
currently owns the Breach/Compliance Record hosting component (TSD §4.1's
2026-07-29 addition, post-dates WP-0002) — recommend either a new T09 or
folding it into T06 before implementation starts. Nine functional
requirements (TS-FR-1–9) elaborate framework PRD FR-8/9/10 for a hosted,
multi-tenant, authenticated context without redefining any schema field.
Stack and storage ADR (hosted service — distinct scope from ADR-0001)
id: TREV-WP-0006-T02
status: done
priority: high
human_accept_required: true
human_accepted_by: Bernd
human_accepted_at: "2026-07-29"
state_hub_task_id: "06eabd46-5de5-4d80-9bb7-c70ef6d80df9"
docs/adr/ADR-0001-stage0-library-stack.md explicitly scoped out hosting,
storage, and multi-tenancy decisions (its Revisit trigger names this exact
moment). Record a new ADR for: storage engine for the append-only Target
Ledger at multi-repo scale, authentication/authorization model for Phase
Registry writes, and hosting/deployment target — railiance-infra and
railiance-cluster are the existing platform-infrastructure repos in this
Forgejo org and are the natural first candidates to investigate, not
assumed by default.
Human accept gate: per the same policy as ADR-0001 — agents may draft, must not treat as accepted without explicit maintainer sign-off.
Result: Accepted 2026-07-29 by the maintainer (Bernd), no changes
requested. docs/adr/ADR-0002-hosted-trust-service-stack.md: PostgreSQL
(append-only enforced at the database-grant/trigger level, not just
convention) for storage; per-Licensor API token for write/read-grant access
control, decoupled from the existing Ed25519 per-entry signature;
railiance-cluster's existing k3s/Helm/GitOps baseline (on the
railiance-infra-provisioned HostEurope server) for hosting, rather than
new infrastructure; Python reusing src/target_revenue/ directly behind a
thin HTTP layer. T03–T08 may now build against this decision.
Phase Registry and Extension Registry hosting
id: TREV-WP-0006-T03
status: done
priority: high
state_hub_task_id: "fb9f00e5-5755-44e4-ad07-ba0dc73596b8"
Implement hosted versions of the Phase Registry and Extension Registry
components (specs/TechnicalSpecificationDocument.md §4.1), serving
multiple Phase Manifests and extension registrations across repos rather
than one golden fixture. Reject non-conformant manifests/extensions at
registration, exactly as the Stage 0 validators already do — this task
adds multi-tenancy and persistence, not new validation logic.
Result: Implemented per ADR-0002. migrations/0001_registries.sql
creates licensors, phase_manifests, extensions tables, a
trf_app role with no UPDATE/DELETE grant on phase_manifests or
extensions (database-enforced append-only, not just application
convention), and a set_extension_status() SECURITY DEFINER function as
the only sanctioned path to canonical/deprecated — canonicalization is
therefore a recorded, attributable governance action the application role
cannot perform via ordinary UPDATE. src/target_revenue/registry.py wraps
the existing validation.py checks (no new validation logic) with
persistence and per-Licensor token authentication. src/target_revenue/service/app.py
exposes a thin FastAPI surface (POST/GET /phases, POST/GET /extensions).
Added a service/service-dev optional-dependency group
(pyproject.toml) so the core offline library keeps zero new hard
dependencies. tests/test_registry_hosting.py (7 tests, requires Docker,
auto-skips otherwise) spins an ephemeral, disposable Postgres container —
never the shared state-hub infra-postgres-1/custodian instance —
covering registration, rejection with diff, duplicate-phase_id rejection,
unknown-token rejection, extension canonicalization via the governance
function, and two explicit database-privilege tests proving trf_app
cannot UPDATE/DELETE phase_manifests or UPDATE extensions directly.
Original 36-test offline suite verified unchanged and passing with plain
system Python (no service deps required).
Hosted Target Ledger append API
id: TREV-WP-0006-T04
status: done
priority: high
state_hub_task_id: "591e87d6-3b64-4f1f-b870-edf834edc522"
Implement an authenticated append API for Target Ledger entries per Phase, preserving WP-0002's append-only, hash-chained, deterministically-foldable guarantees exactly. Any party who can compute the fold offline from an export must get the same Outstanding Target as the hosted service — this is the property to test most aggressively, since it's the one a hosted service could most easily and least visibly break.
Result: migrations/0002_ledger.sql adds ledger_entries
(GENERATED ALWAYS AS IDENTITY sequence for exact append order; trf_app
again has no UPDATE/DELETE grant). src/target_revenue/ledger.py's
append_entry(): rejects any caller-supplied previous_entry_hash/
signature outright (server-computed only), enforces phase ownership
(a Licensor may only append to its own registered Phase — TS-FR-8
isolation), serializes concurrent appends per Phase via
pg_advisory_xact_lock, computes the chain tip from the last stored entry
and signs with the Trust Service instance's own Ed25519 key
(service/keys.py, env-configured or ephemeral-with-warning for dev),
reusing validation.py's existing schema/currency checks unchanged.
service/app.py adds POST/GET /phases/{id}/ledger and an unauthenticated
GET /public-key (so an external party can verify signatures without
trusting this API's own access control at all). Fixed an unrelated route
ordering bug found while wiring this in: {phase_id:path} on the plain
GET /phases/{id} route was greedily matching /ledger-suffixed paths
too, since phase IDs contain colons but no slashes and never needed the
:path converter — switched all phase routes to plain {phase_id}.
tests/test_ledger_hosting.py (8 tests, Docker-gated): hash-chain linkage
across appends, forged-hash/signature rejection, cross-Licensor isolation,
currency-mismatch rejection, duplicate-entry-id rejection, DB-level
UPDATE/DELETE privilege checks, signature verification via the public-key
endpoint, and — the task's own highest-priority property — appending a
mixed development-credit/remission-credit/credit-reversal sequence through
the API, exporting it, and confirming fold.fold_outstanding_target over
the export reproduces the exact expected Development Credit, Remission
Credit, and Outstanding Target. Offline 36-test suite re-verified unchanged
with plain system Python; no stray Docker containers left running.
Metrics service
id: TREV-WP-0006-T05
status: done
priority: medium
state_hub_task_id: "6bab5e64-0091-4a25-906d-758310cbe723"
Implement the public metrics set from specs/OpenQuestions-WorkingDefaults.md
Q9 (Initial Target, cumulative credits, Outstanding Target, conversion
status, last checkpoint, Longstop timestamp as mandatory; velocity/forecast
as recommended, clearly labeled as forecasts per concept §14.6).
Result: src/target_revenue/metrics.py's compute_metrics(manifest, entries, as_of) — pure and deterministic like fold.py (the only input
that varies with wall-clock time, as_of, is an explicit parameter, never
read internally), reusing fold.py/conversion.py unchanged. Returns
three explicitly separated blocks per TrustServicePRD TS-FR-5: facts
(Q9's mandatory set — Initial Target, cumulative Development/Remission
Credit, Outstanding Target, conversion status, last ledger entry id,
Longstop timestamp), calculations (target satisfaction percentage,
Development/Remission Credit velocity per day, days since last material
progress), and forecasts (projected conversion date, null whenever
already converted or velocity is zero/negative — never populated as a
disguised fact). Added GET /phases/{id}/metrics to service/app.py,
unauthenticated per FR-9/FR-10. tests/test_metrics.py (6 tests, no
Docker/Postgres required, runs under plain system Python — no new hard
dependency) covers the mandatory-facts set, fact/calculation/forecast
separation, percentage correctness, the zero-material-entries case, and
as_of timezone-awareness. Added one Docker-gated test to
tests/test_ledger_hosting.py proving the hosted /metrics response
(fetched with no Authorization header) exactly equals
compute_metrics() run offline against the same exported Manifest +
Ledger. Full suite (offline 36 + metrics 6 + Docker-gated 22) verified
passing; no stray containers left running.
Conversion Attestation publication
id: TREV-WP-0006-T06
status: done
priority: high
state_hub_task_id: "f08d3d73-4c75-4049-97d0-c27ae8513336"
Implement Conversion Attestation generation and publication as a hosted
service, preserving the non-discretionary rule from
src/target_revenue/conversion.py: the service publishes evidence of a
conversion already true from the Manifest + Ledger, never a precondition
for it. Any repo's own tooling must be able to recompute conversion status
without querying this service at all.
Result: migrations/0003_attestations.sql adds attestations
(one row per Phase, trf_app again with no UPDATE/DELETE grant — a
published attestation is a permanent record, never revised).
src/target_revenue/attestation.py's publish_attestation() is idempotent
(an existing row is returned unchanged, never regenerated) and derives
conversion_timestamp from the ledger itself — _find_conversion_prefix()
walks increasing ledger prefixes to find the earliest point the fold
reaches Outstanding Target = 0, rather than using the publish call's
wall-clock time or blindly trusting entries[-1], so a later, unrelated
ledger entry can never retroactively change an already-converged Phase's
recorded conversion moment. Raises NotConvertedError (never fabricates a
conversion) if the ledger never reaches zero. Reuses
conversion.generate_attestation() unchanged. service/app.py adds
GET /phases/{id}/attestation, unauthenticated, publishing on first
observation and simply returning the stored record thereafter.
tests/test_attestation.py (3 tests, no Docker/Postgres, plain system
Python — required a TYPE_CHECKING-guarded psycopg import to keep it
dependency-free) proves the earliest-crossing behavior explicitly,
including the case where a later entry exists past the conversion point.
6 new Docker-gated tests in tests/test_ledger_hosting.py cover
404-before-conversion, the core legal-technical property (/metrics
facts/calculations/forecasts are bit-for-bit identical whether or not
/attestation has ever been called), one-time publication with identical
output on reread, public-key signature verification, and DB-level
UPDATE/DELETE rejection on attestations. Full suite verified: 45 passing
offline (36 + 6 metrics + 3 attestation) under plain system Python, 30
passing under the Docker-gated suite; no stray containers left running.
Multi-repo onboarding flow
id: TREV-WP-0006-T07
status: done
priority: medium
state_hub_task_id: "44c5846e-1f37-41fe-8ac0-fc7d88628e9f"
Define and implement how a repo (e.g. coulomb-loop, net-kingdom,
helix-forge, a railiance-* repo) registers a Phase against the hosted
Trust Service: what it commits to its own repo (a Phase Manifest file,
per specs/PhaseManifestSpecification.md) versus what it submits to the
Trust Service (the registration call). Coordinate with
workplans/TREV-WP-0008-governance-and-pilot-rollout.md, which selects
the actual first repos — this task defines the mechanism, not the pilot
selection.
Result: specs/TrustServiceOnboarding.md defines the mechanism: a
Phase Manifest file is committed to the declaring repo (durable,
git-history-backed, independently foldable forever) and registered with
the hosted service (the multi-tenant, publicly-servable copy); once
registered, the Ledger's live authoritative copy is the hosted service
only, not a second competing file — a repo may keep periodic exports for
its own offline re-verification, but those are copies, not a source of
truth. Licensor token bootstrapping is explicitly out of this mechanism's
scope (a WP-0008-T01 governance action). scripts/trf_onboard.py
implements it as a dependency-light CLI (stdlib urllib + the existing
target_revenue.validation, no FastAPI/psycopg required to onboard a
Phase) with four subcommands: validate (offline only, no network),
register-phase (validates offline before ever attempting the network
call), append-entry, and status (public, no token). The Licensor API
token is read only from an environment variable named on the command
line, never accepted as a literal argument or committed. tests/test_trf_onboard.py
(4 tests, no network, no Docker) proves both invalid-manifest and
missing-token-env cases fail before any HTTP attempt is made — asserted by
monkeypatching the request function to raise if called at all.
tests/test_onboarding_hosted.py (1 Docker-gated test) is the one test in
the suite that runs an actual uvicorn server on a real socket (rather
than FastAPI's in-process TestClient, since the CLI genuinely speaks HTTP)
and drives the full register → append → status round trip through the CLI
exactly as an external repo would invoke it. Full suite: 49 passing
offline, 71 passing with Docker; no stray containers left running.
Conformance test suite at hosted scale
id: TREV-WP-0006-T08
status: done
priority: medium
state_hub_task_id: "359c9c5e-a49a-40c1-82ea-2bf80e93e7d6"
Extend WP-0002's conformance suite to run against the hosted service: multiple concurrent Phases across different repos, the golden Phase example replayed through the hosted API rather than only the offline library, and a specific regression test that hosted and offline folds of the same exported ledger always agree.
Result: tests/test_hosted_conformance.py (6 Docker-gated tests)
addresses all three named requirements directly: (1) the entire golden
Phase (examples/phase-001/manifest.json + full 6-entry ledger + all 4
extensions) replayed through the hosted API reproduces exactly the
36-test-suite-established offline outcome — Development Credit 67000,
Remission Credit 33000, Outstanding Target 0, future_license MIT — and
the hosted Attestation matches it field-for-field; (2) two Phases under
two different Licensors (standing in for coulomb-loop/net-kingdom)
operate with interleaved, concurrent-style appends and are proven isolated
both positively (each Phase's metrics reflect only its own entries) and
negatively (a cross-Licensor write attempt is rejected); (3) a
parametrized regression test across four distinct ledger shapes
(credits-only, with remission, with a reversal, with both administrative
correction types) asserts hosted-append-then-offline-fold always
reproduces the exact expected totals, generalizing the single-shape check
already added ad hoc in T04. Full suite: 49 passing offline (plain system
Python, no new dependency), 77 passing with Docker; no stray containers
left running.
Breach/Compliance Record hosting
id: TREV-WP-0006-T09
status: done
priority: medium
state_hub_task_id: "1a25114c-ccbb-417a-aa73-68f33120c5e4"
T01's Trust Service PRD flagged this gap explicitly: the
Breach/Compliance Record component (specs/TechnicalSpecificationDocument.md
§4.1 table, added 2026-07-29 alongside License V1C1 §7.4) postdates
WP-0002 and was not assigned to any of T03–T08. Implement it now as this
workplan's ninth task, per TrustServicePRD TS-FR-7:
- publish the Licensor's breach and termination determinations for a
Phase, distinguishing
alleged(notice given) fromdetermined(cure period expired or breach otherwise established per the License's own terms) — the Trust Service never adjudicates whether a breach occurred, it only publishes the Licensor's own determination (TSD §4.1 Forbidden column, restated in TrustServicePRD TS-FR-7); - default to an anonymized Phase-and-category record (License V1C1 §7.4); named disclosure of the Commercial Entitlement holder occurs only where the applicable Commercial Use Agreement's naming/disclosure clause (CUA V1C1 §9) opts in, following that clause's notice period;
- append-only per the same pattern as
phase_manifests/ledger_entries/attestations— a determination, once published, is not silently revised; a correction is a new, dated record, not an edit; - add the read/write API surface to
service/app.pyand reuseregistry.authenticate's per-Licensor token model for the write side (only the Phase's own Licensor may publish a determination for it) — reads are public per the anonymized-by-default rule above.
Deliverable: a new migration (migrations/0004_breach_records.sql or
similar), src/target_revenue/breach_record.py, corresponding
service/app.py endpoints, and Docker-gated tests following the existing
pattern in tests/test_hosted_conformance.py/test_ledger_hosting.py.
Result: migrations/0004_breach_records.sql models a case's lifecycle
as append-only events (alleged/cured/determined/terminated)
grouped by case_id, rather than one mutable row per case — resolution is
always a new, later event, never an edit of the alleged one (trf_app
again has no UPDATE/DELETE grant). A CHECK constraint makes the
anonymized-default rule a database fact, not just an API convention:
named_entitlement_holder can be set if and only if anonymized = false.
src/target_revenue/breach_record.py's publish_breach_event() enforces
per-Licensor phase ownership (same pattern as ledger.py), and — the
naming-authorization requirement License V1C1 §7.4/CUA §9 impose — rejects
any named-disclosure request that doesn't also set
named_disclosure_authorized_under_cua: true; the Trust Service never
verifies the underlying CUA text, it only records that the Licensor
asserted the clause authorizes it. Signs every published event with the
same instance Ed25519 key already used for Ledger entries and
Attestations. Added POST/GET /phases/{id}/breach-records to
service/app.py (write requires the Phase's own Licensor token; read is
public). Guarded the .registry import behind a lazy, in-function import
(matching attestation.py's TYPE_CHECKING pattern) so
tests/test_breach_record.py (7 tests) runs its pure validation-logic
checks under plain system Python with no psycopg dependency. 5 new
Docker-gated tests in tests/test_ledger_hosting.py cover the default-
anonymized lifecycle (alleged → determined, both events preserved,
neither edited), the named-disclosure authorization gate (rejected without
it, accepted with it), cross-Licensor rejection, signature verification,
and DB-level UPDATE/DELETE rejection. Full suite: 56 passing offline
(plain system Python), 89 passing with Docker; no stray containers left
running. WP-0006 is finished again — all 9 tasks done.