Genesys Archivist MCP Server
Captures Genesys Cloud Architect flows and their dependent resources, then generates grounded business and technical documentation as Markdown, PDF, and diagrams from immutable capture bundles.
README
Genesys Archivist
Captures Genesys Cloud Architect flows and every resource they depend on, then generates business and technical documentation from that capture.
Two consumers, two guarantees:
| Consumer | Gets | Guarantee |
|---|---|---|
| Humans — engineers, PMs, customers | Markdown, PDF, and diagrams per flow | Every technical fact traces to source evidence; inference is labelled as inference |
| Machines — a future, separate migration server | An immutable, schema-versioned capture bundle | Complete enough to rebuild the IVR on another platform, including prompt audio |
Archivist does not build that migration server. It guarantees the data contract that server will consume.
Status
Both stages work end to end against a real Genesys organization. ~1,166 tests, with format, lint, production and test typechecking, and schema validation in npm run verify.
Plans 1–5 are built. Every archivist command is wired: profile, doctor, capture, document, verify. The MCP server exposes nine tools, eight of them backed by real implementations. The source path was settled by measurement rather than assumption — the Platform API configuration endpoint (ADR-015) — and the adapter reaches it over a transport that exposes only GET, so read-only is a property of the type rather than a matter of reviewer attention (ADR-019).
Measured against the pilot sandbox: 511 flows across 15 types, 401 published. A whole-organization context capture is about 400 requests, ~95 seconds, ~10 MB (S6).
One release gate is open
The permission matrix fails. The sandbox OAuth client is effectively an administrator: 783 permission policies, 580 of them granting a mutating action, including architect:flow publish and delete. Nothing in this repository calls them and nothing can, but the gate measures permission held, not calls made. npm run spike:s4 emits the read-only role to create. Full detail and remediation in S4.
Known gaps
- Migration mode holds every asset in memory at once — ~110 MB on the sandbox, unbounded in organization size. Do not run it against a large real organization yet;
contextmode is unaffected. Three ranked fixes are in Plan 5. genesys_flow_diffstill returns an explicit rejection rather than a result.- Change detection exists as a pure decision function, but its I/O is unwired, so every run reprocesses every flow.
- One test file flakes roughly 1 run in 6 on Windows, documented in its own header.
Two capture modes
Per ADR-018, capture has two jobs and they are named separately:
archivist capture --mode context --org <id> [--flow <id>...]
archivist capture --mode migration --org <id> [--flow <id>...]
context captures flow definitions and the resource manifest that arrives with them, so a developer returning to an unfamiliar IVR can re-orient quickly. It does not walk resources to closure or download assets, which makes it fast enough to run across a whole organization routinely.
migration captures everything needed to rebuild the IVRs elsewhere: every resource body, every byte of prompt audio, data-table rows.
Both produce a bundle. A context bundle records policy.mode: "context", reports migrationReadiness.archyImportableYaml: false, and carries a caveat saying so in words — it can never be mistaken for a migration-ready one.
The architecture in one paragraph
Two stages separated by a hard seam. Stage 1 (capture) is the only code that talks to Genesys: it discovers every flow of every type, fetches definitions, walks the resource reference graph to closure, downloads binary assets, and seals an immutable content-hashed capture bundle. Stage 2 (document) opens no sockets — it reads a bundle and produces Markdown, SVG diagrams, and PDF, with AI narration in the middle. Re-rendering documentation therefore costs zero Genesys API calls, and the bundle is a published contract rather than a disposable cache.
flowchart TD
A["AI client"] -->|MCP STDIO| B["MCP adapter"]
C["archivist CLI"] --> D["Application service"]
B --> D
D --> E["Genesys source provider"]
E --> F["Genesys Cloud"]
D --> G["Capture bundle (sealed, immutable)"]
G --> H["Normalize, analyze, document"]
H --> I["Markdown + diagrams + PDF"]
G --> J["Future migration server"]
Getting started
npm install
npm run verify # format + lint + typecheck + test + schema validation
npm run build
Point it at an organization
A profile holds the non-secret metadata and names the credential. The client
secret is read from stdin or a hidden prompt, never from a flag — argv is
visible in process listings and shell history, so --client-secret is refused
with an explanation rather than accepted.
archivist profile add \
--id acme --display-name "Acme Bank" \
--region euw1 --org <organizationId> \
--client-id <oauthClientId> \
--output-root /path/to/output
# then paste the secret at the prompt, or: echo "$SECRET" | archivist profile add ...
archivist doctor # Node version, credential store, profiles
archivist profile validate acme # profile parses, secret present, root writable
Capture and document
# Fast, whole-organization. Definitions plus the resource manifest that
# already travels with them. Cannot be migrated — see ADR-018.
archivist capture --profile acme --mode context --org <organizationId>
# Everything needed to rebuild elsewhere: resource bodies, prompt audio,
# data-table rows. See the memory caveat above before running this at scale.
archivist capture --profile acme --mode migration --org <organizationId> --flow <flowId>
archivist verify --bundle <bundleDir> # content hashes still match
archivist document --bundle <bundleDir> # business.md, technical.md, operations.md, diagrams
--profile is required for capture, and not merely for convenience: the
profile supplies the approved output root and the expectedOrganizationId that
guards against a mistyped credential capturing the wrong customer's
configuration.
Drive it from an AI client
{
"mcpServers": {
"genesys-archivist": { "command": "genesys-archivist-mcp" }
}
}
STDIO only. The server writes protocol messages to stdout and everything else to stderr, opens no network listener, and exposes no tool that accepts a credential — a test walks every registered tool's input schema and fails if any property name is credential-shaped at any depth. Provisioning is CLI-only, forever.
Then read, in order:
- CLAUDE.md — orientation for anyone (human or agent) about to write code here.
- AGENTS.md — non-negotiable boundaries. Violating one is a release blocker.
- The design spec — what is being built and why. Section 2 lists where it departs from the numbered blueprint docs below.
- Plan 1: Foundation — twelve task-by-task TDD tasks that need no Genesys access.
- Phase 0 spikes — the go/no-go gate that unblocks everything else.
Phase 0 was a go/no-go gate, and it passed
Four source paths were in contention — Platform API, the Archy CLI, the Architect Scripting SDK, and manual YAML. Which one won was an empirical result, not an assumption.
Spike S1 measured the Platform API configuration endpoint at 100% structural fidelity against a manually exported Architect YAML baseline: 47 nodes, 10 construct types, zero unexplained differences. It additionally supplies a stable trackingId on every node and a manifest of referenced resources with ids and per-node provenance. The Architect Scripting SDK was dropped entirely (ADR-015); it would have supplied a strict subset at a much higher dependency cost.
The permission-matrix spike has since run and failed — see S4 and the Status section above. Prompt audio downloads read-only, clearing kill criterion 11 (S5), and scale budgets are measured (S6). Note that two spike-numbering schemes disagree from S3 onward; cite spikes by filename, not number.
Repository layout
apps/cli archivist CLI
apps/mcp-server genesys-archivist MCP STDIO server
packages/domain contracts and DTOs. Pure: no I/O, no SDK types
packages/application use cases, run state machines, policy
packages/composition the one place adapters are wired to interfaces
packages/... adapters, capture, analysis, documentation, rendering, narrative
schemas/ versioned JSON Schema contracts
fixtures/ sanitized test fixtures. Never real customer configuration
docs/ blueprint, design spec, plans, ADRs, spikes
Dependency direction is enforced by ESLint, not by convention: domain imports nothing, application imports domain only, and apps/* stay thin.
Never commit
bundles/, derived/, documentation/, spike-evidence/, or any .wav / .mp3. Capture bundles are classified restricted — they contain endpoint URLs, DIDs, routing logic, data-table rows that may hold customer PII, and prompt audio. CI fails the build if any of these are tracked.
Terminology
The target is Genesys Cloud CX, and the IVR authoring product is Architect.
A flow has identifiers such as flowId and a version. Queues, prompts, data actions, schedules, and reusable flows also have identifiers. These are not secret API keys. A Genesys OAuth client_id and client_secret authenticate the integration and are the only secrets involved. The tool never enumerates hidden secrets, recovers OAuth client secrets, scrapes passwords, or bypasses Genesys permissions.
Non-goals for the first production release
- Editing, publishing, deleting, or importing Genesys flows
- Recovering or listing customer secrets
- Reading live caller data, recordings, transcripts, or historical execution data
- Query or Q&A tools over captured data
- Remote HTTP hosting, git/PR automation, or a scheduling daemon
- Claiming business intent that cannot be inferred from configuration
Blueprint documents
The original handoff. Still governing wherever the design spec does not override it.
| File | Purpose |
|---|---|
| 00-product-brief.md | Product goals, users, assumptions, scope |
| 01-system-architecture.md | Components, packages, runtime decisions |
| 02-genesys-integration.md | Authentication, discovery, extraction, versions |
| 03-mcp-contract.md | MCP tools, resources, prompts, errors, jobs |
| 04-domain-model.md | Normalized flow graph, evidence, hashes |
| 05-documentation-generation.md | Document generation and grounding |
| 06-security-and-compliance.md | Credentials, threats, authorization, data controls |
| 07-change-detection.md | Incremental updates, manifests, diffs, review |
| 08-failure-analysis.md | Bottlenecks, FMEA, degradation, kill criteria |
| 09-testing-strategy.md | Unit, integration, contract, security, chaos tests |
| 10-deployment-and-clients.md | Distribution and per-client configuration |
| 11-observability-and-operations.md | Logs, metrics, audit, recovery, support |
| 12-implementation-roadmap.md | Ordered implementation plan |
| 13-acceptance-criteria.md | Definition of done and release gates |
| 14-open-questions-and-spikes.md | Questions for IST and required experiments |
| 15-sources.md | Official sources and research notes |
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