ops-platform-mcp
MCP server wrapping a mock internal ops platform (FastAPI + SQLite) so Claude Code can read and write employee, project, task, and time data through natural language.
README
ops-platform-mcp
A miniature rehearsal of a real consulting-stack architecture: a mock internal ops
platform (FastAPI + SQLite, standing in for BambooHR / Deltek Vantagepoint / ClickUp /
an internal Django app) wrapped by an MCP server so that Claude Code can read and
write platform data in natural language. The MCP layer talks to the platform only over
HTTP — exactly how a connector wraps a vendor API in real life. See CLAUDE.md for the
full PRD.
FastAPI "platform" (SQLite + seed) ◄─HTTP─► MCP server (stdio) ◄─► Claude Code
Quickstart
Requires uv (it will fetch Python 3.12 automatically).
uv sync # install dependencies
uv run python -m platform_api.seed # create + seed ops_platform.db (re-run anytime to reset)
uv run uvicorn platform_api.main:app # serve the platform API on http://127.0.0.1:8000
Interactive API docs: http://127.0.0.1:8000/docs
The seed is deterministic (no randomness) with relative dates: time entries are fixed offsets from the current week's Monday and task due dates are offsets from today, so "this week's utilization" always has data no matter when you run the demo. All people and clients are fictional.
Connect the MCP server to Claude Code
The platform API must be running first (see Quickstart). Then either register the server with the CLI:
claude mcp add ops-platform -- uv run --directory /absolute/path/to/ops-platform-mcp python -m mcp_server.server
…or commit/drop a .mcp.json next to wherever you run claude (if that's this repo
root, the relative directory works):
{
"mcpServers": {
"ops-platform": {
"command": "uv",
"args": ["run", "--directory", ".", "python", "-m", "mcp_server.server"]
}
}
}
Then ask Claude Code things like:
list the employees · create a task on Atlas to "refresh the KPI deck" for Tessa · mark task 21 in progress · log 3 hours for Marcus on Orion today · pull this week's utilization report
A scripted version of this loop — including the error-path curveballs and a troubleshooting section — is in DEMO.md.
Tools
| Tool | Kind | Notes |
|---|---|---|
list_employees |
read | full roster with capacity |
list_projects |
read | id, client, status, budget |
list_tasks(project?, assignee?, status?) |
read | names or ids accepted; results include names |
get_project_hours(project) |
read | logged vs budget |
utilization_report(week?) |
read | ISO week e.g. 2026-W24, defaults to current week |
create_task(project, title, assignee?, due_date?) |
write | returns created task |
update_task_status(task_id, status) |
write | todo / in_progress / done |
log_time(employee, project, date, hours, note?) |
write | returns created entry |
Tools accept human-friendly names where reasonable and resolve them to ids internally; ambiguous or unknown names return errors that list the candidates so the model can self-correct.
Task backends (Phase 3: the adapter pattern)
The three task tools (list_tasks, create_task, update_task_status) are
backend-pluggable — same tool surface, different system of record:
OPS_TASK_BACKEND=platform # default: the mock platform above
OPS_TASK_BACKEND=clickup # real ClickUp API (set CLICKUP_API_TOKEN)
In ClickUp mode a "project" is a ClickUp list (found by name across all spaces
and folders), an assignee is a workspace member, statuses map todo / in_progress /
done ↔ "to do" / "in progress" / "complete", and task ids are ClickUp's alphanumeric
strings. Get a personal token from ClickUp → Settings → Apps and see .env.example.
CLICKUP_TEAM_ID pins a workspace when the token can see several. The other five
tools (employees, hours, time, utilization) always use the platform.
This is the point of the exercise: the MCP tool layer didn't change when the backend became a real vendor API — only the adapter behind it did.
Development
uv run pytest # 40 tests: API happy paths + error cases, MCP tool handlers
uv run ruff check . # lint
uv run ruff format --check .
Tool-handler tests run against the real FastAPI app in-process (httpx ASGI transport + seeded in-memory SQLite) — no server or network needed. CI runs the same three commands.
What this rehearses
Directing an AI agent to build and operate the connector layer between LLM tooling and internal business systems: a typed CRUD API over a real data model, an MCP server whose tool descriptions a model can act on reliably, and the review/CI loop around both.
Next steps (not in v1): auth/OAuth on the platform API, a second adapter backed by the real ClickUp API (same tool surface, different backend), deployment.
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