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# ADR-0001 — Monorepo Structure for ASF
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- **Status:** Accepted
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- **Date:** 2026-09-07
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- **Deciders:** ASF Architecture Team
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## Context
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Azurian Software Factory comprises several logical components:
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a shared domain model, an event schema package, connectors, multiple backend services
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(core, context, ai, worker) and a Next.js web frontend.
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We must choose a repository organization that balances:
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- Strong cohesion for shared types / contracts
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- Independent deployability of services
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- Local developer ergonomics
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- Clear service boundaries
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## Decision
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Use a **single monorepo** with the following top-level layout:
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```
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ASF/
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├── frontend/asf-web/ # Next.js SaaS UI
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├── services/ # Deployable Python services
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│ ├── asf-core/
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│ ├── asf-context/
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│ ├── asf-ai/
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│ └── asf-worker/
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├── packages/ # Shared installable Python packages
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│ ├── asf-domain/
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│ ├── asf-events/
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│ └── asf-connectors/
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├── docs/ # Architecture, ADRs, API docs
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├── infrastructure/ # Dockerfiles, scripts
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└── tests/ # Cross-service integration tests
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```
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Shared packages are installed in editable mode (`pip install -e`) when
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developing locally.
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## Consequences
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### Positive
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- Shared domain models and event schemas live in one place — no drift.
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- Refactors that cross service boundaries are done atomically in one PR.
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- Local `docker-compose` up brings up the whole stack trivially.
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- Search / navigation works across the whole product.
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### Negative
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- CI pipelines must be careful to only rebuild what changed.
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- Service release tagging must be explicit (single git log, many artefacts).
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### Risks / Mitigations
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- Accidental tight coupling between services → mitigated by code review,
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AGENT.md rules, and keeping services import only from `packages/*`, never
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from each other.
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# ADR-0002 — MongoDB as Primary Persistence
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- **Status:** Accepted
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- **Date:** 2026-09-07
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- **Deciders:** ASF Architecture Team
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## Context
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ASF requires a primary store for Organizations, Projects, Artifacts,
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ArtifactRelationships, Jobs, AuditEvents and similar tenant-scoped records.
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Key properties required:
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- Flexible schema: the generic `Artifact` model needs extensible `metadata`.
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- Document-level locality: an Artifact document bundles relationships list,
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metadata and version.
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- Horizontal scaling and multi-tenancy (every query is scoped by `tenant_id`).
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- Async/await Python driver support.
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## Decision
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Adopt **MongoDB 7.x** as the only primary operational database.
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Use compound indexes prefixed with `tenant_id` for all tenant-owned
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collections. Collections are intentionally few:
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- `organizations`
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- `users`
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- `teams`
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- `projects`
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- `artifacts`
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- `artifact_relationships`
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- `integrations`
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- `jobs`
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- `ai_executions`
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- `audit_events`
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**We do NOT** create a collection per artifact type. Every artifact type
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(requirement, task, commit, test, deployment…) lives in the single
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`artifacts` collection discriminated by `type`.
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MinIO holds large binaries / reports; MongoDB stores the object reference
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and metadata.
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## Consequences
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### Positive
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- Flexible `metadata` on Artifacts matches the "Everything is an Artifact"
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principle without schema migrations for every new artifact subtype.
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- Compound `(tenant_id, project_id, …)` indexes give fast tenant-scoped
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reads and guarantee isolation at query time.
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- Native async driver (`motor`) integrates naturally with FastAPI.
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### Negative
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- No foreign-key constraints across collections — referential integrity is
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an application responsibility (mitigated via service-layer validations
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and tests).
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- Relationship graph traversal requires multiple queries or the
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`$graphLookup` aggregation stage. The schema is intentionally designed
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so that a future graph-database projection is possible without rewriting
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domain logic.
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### Follow-up
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- ADR for graph-database introduction once traversal patterns stabilize.
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- ADR for vector / embedding store (Semantic Context Engine phase).
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# ADR-0003 — RabbitMQ as Event and Job Backbone
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- **Status:** Accepted
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- **Date:** 2026-09-07
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- **Deciders:** ASF Architecture Team
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## Context
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ASF has two asynchronous messaging needs:
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1. **Domain events** (facts that happened — `artifact.created`,
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`deployment.completed`, …) used for decoupled side effects.
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2. **Asynchronous jobs** (AI inference, indexing, code analysis, testing)
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that need separate queues with priorities and horizontal workers.
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A single backbone that handles both patterns is preferred to reduce
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infrastructure surface.
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## Decision
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Adopt **RabbitMQ 3.13+** as the sole event/job backbone.
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### Logical queues
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| Queue | Purpose | Priority |
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|------------------------|----------------------------------------|----------|
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| `asf.ai.interactive` | Latency-sensitive user-facing AI work | High |
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| `asf.ai.background` | Batch / low-priority AI work | Normal |
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| `asf.indexing` | Repository / document indexing | Low |
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| `asf.code_analysis` | Static analysis tasks | Normal |
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| `asf.testing` | Test execution requests | Normal |
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| `asf.devops` | Deployment / CI orchestration | Normal |
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| `asf.notifications` | Emails / webhooks / in-app notif. | Normal |
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### Source of truth
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RabbitMQ delivers work. **Persistent job state** (status, timestamps,
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usage, error, correlation) lives in MongoDB `jobs` collection. Workers
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update Mongo as they progress through `queued → running → completed|failed`.
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RabbitMQ is **never** the permanent system of record for job state.
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### Event format
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Every event message contains:
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```
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event_id, event_type, timestamp, tenant_id, project_id?,
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correlation_id, causation_id?, payload
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```
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Large payloads / binaries go to MinIO; the message carries only a
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reference.
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## Consequences
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### Positive
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- One broker, well-understood routing / priority / TTL / DLX semantics.
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- Workers are stateless, horizontally scalable processes.
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- At-least-once delivery matches domain; idempotency keys on workers
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prevent duplicate side-effects.
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### Negative
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- Exactly-once is not provided — consumers must be idempotent.
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- Operational complexity of a broker (mitigated by managed services in prod).
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# ADR-0004 — AI Gateway Abstraction Layer
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- **Status:** Accepted
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- **Date:** 2026-09-07
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- **Deciders:** ASF Architecture Team
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## Context
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ASF requires LLM capabilities for:
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- Code analysis
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- Requirement decomposition
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- Test generation
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- Context-aware chat ("Ask ASF")
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- Incident analysis
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Target inference backends include on-prem DGX Spark, OpenAI-compatible
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local APIs, commercial providers, and customer-hosted endpoints.
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Tenants may have different AI policies (allowed models, budgets,
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geographic restrictions).
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## Decision
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Introduce an **ASF AI Gateway** service (`services/asf-ai/`) with a
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stable Python interface.
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### Interface
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Business code requests **capabilities**, never models:
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```python
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class AIGateway(Protocol):
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async def analyze_code(self, request: CodeAnalysisRequest) -> AnalysisResult: ...
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async def generate_tests(self, request: TestGenerationRequest) -> GeneratedTests: ...
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async def chat(self, request: ChatRequest, ctx: AIContext) -> ChatResponse: ...
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async def decompose_requirement(self, req: RequirementDecomposeRequest) -> Decomposition: ...
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```
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Provider adapters implement the gateway. Model selection, routing,
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priority queuing, usage metering, cost tracking and tenant AI policy
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live inside the gateway — not in callers.
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### Bootstrap
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The first implementation ships with a `MockProvider` that returns
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deterministic canned responses with realistic latencies. Real providers
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(OpenAI-compatible, NVIDIA, etc.) are added as adapters later without
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touching domain/business code.
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## Consequences
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### Positive
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- No LLM provider lock-in — swap / add adapters freely.
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- Usage and cost tracking centralized.
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- Tenant-level policy enforceable at one boundary.
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- Tests for business logic run fast against the mock — no external API
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calls, no flakiness.
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### Negative
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- One more abstraction — the initial API surface must be designed
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carefully so future providers truly fit.
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### Mitigation
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- Provider adapters are written early for at least two real providers,
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to validate the abstraction before domain code depends heavily on it.
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