operandi-mcp
Click on "Deploy Server".
Wait a few minutes for the server to deploy. Once ready, it will show a "Started" state.
In the chat, type
@followed by the MCP server name and your instructions, e.g., "@operandi-mcp Identify the Samsung ME20H705MSS and get defrost procedure."
That's it! The server will respond to your query, and you can continue using it as needed.
Here is a step-by-step guide with screenshots.
OPERANDI MCP Server — operate real appliances from any agent
mcp-name: cc.operandi/operandi
operandi_mcp_server.py exposes OPERANDI over the Model Context Protocol so any MCP-capable
agent host (Claude Desktop, Claude Code, or your own agent runtime) can identify an appliance and
pull its grounded, safety-checked, robot-executable operation package as native tools.
This is the "build for agents" surface: the customer is a robot's planner / an LLM agent, not a human reading PDFs.
Tools
Tool | What it does |
| Resolve observed nameplate text / panel labels / model → a catalog object (call first). |
| The robot-executable package: model-exact procedures, control map + grounding, per-step verification signals, recovery state machine, safety envelope. |
| Browse operable appliances (optionally by category). |
| Find appliances by function ( |
Related MCP server: Groundcrew
Why an agent wants this
A general model, cold, gives confidently-wrong physical instructions on ordinary appliances a large
fraction of the time (OPERANDI Stage A: 24% of cold instructions were would-fail, including
invented buttons and cycles). Grounded in the package these tools return, that fell to 0
hallucinations, 96% exact. The tools turn "guess the buttons" into "read the manufacturer's ground
truth". See ../docs/BUSINESS_MODEL.md.
Setup — zero config
pip install operandi-mcpThat's it. No key needed for your first packages: on first use the server mints an
instant trial key itself (POST /v1/trial — no signup, 2 operation packages included,
cached at ~/.operandi/mcp_key). When the trial is spent, tool responses tell the agent
exactly how to sign up free (10 packages/month) or go Pro.
Have a key already? Set it and it wins over the trial:
export OPERANDI_API_KEY=ok_live_...Claude Desktop / Claude Code config
{
"mcpServers": {
"operandi": { "command": "operandi-mcp" }
}
}(Optionally add "env": {"OPERANDI_API_KEY": "ok_live_..."} once you have an account key.)
Then ask the agent: "Identify the Samsung ME20H705MSS and give me the safe procedure to defrost
0.5 kg of mince." — it will call identify_appliance then get_operation_package and answer from
grounded data.
Notes
The server is a thin, API-key-authenticated REST client — the same binary works against local dev or the hosted service by changing
OPERANDI_API_URL.Auth is
Authorization: Bearer <key>; a missing/invalid key surfaces as a tool error, not a crash.Transport is newline-delimited JSON-RPC 2.0 (the MCP stdio transport). Offline protocol tests:
pytest tests/test_mcp_server.py.
Available Tools
4 toolsfind_by_capabilityA
Find appliances by what they DO (e.g. 'heat', 'wash', 'brew', 'defrost') — useful when an agent has a goal but not a specific model in mind.
Inputs: capability (required).
get_operation_packageA
Get the robot-executable operation package for an appliance: model-exact ordered procedures, a control map with grounding (where each control is + how it is actuated), per-step verification signals, a recovery state machine, and a safety envelope (hazards / interlocks / never-do). This is the grounded knowledge a general model hallucinates without. Optionally target one procedure (e.g. 'defrost').
Inputs: ref (required), procedure.
identify_applianceA
Resolve which appliance an agent/robot is looking at, from observed text or panel labels, to an OPERANDI catalog object. Call this first, then get_operation_package with the returned slug. Returns ranked matches with confidence.
Inputs: query (required), brand, limit, category, +1 more.
list_appliancesB
Browse the appliances OPERANDI can operate, optionally filtered by category.
Inputs: limit, category.
Tool Schema Changelog
Recent tool additions, removals, and schema changes observed during successful MCP inspections.
Loading tool schema changelog…
TDQS
Scored across 4 tools
Each tool has a clearly distinct purpose: find by capability, identify from observation, get operation package, and list all appliances. There is no overlap; the descriptions clearly differentiate them.
All names use snake_case and are descriptive, but 'find_by_capability' breaks the verb_noun pattern used by the others (identify, get, list). This is a minor inconsistency.
With 4 tools, the server covers the essential workflow (browse, search, identify, retrieve details) for its niche domain. It is slightly minimal but well-scoped, so score 4.
The set covers browsing, searching by capability, identification from observation, and retrieving detailed operation packages. Missing features like direct model lookup or procedure listing are minor gaps.
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