ocp-triage-mcp
Enables deterministic triage of OpenShift alerts by executing YAML-defined runbooks against an upstream OCP MCP server, collecting auditable evidence bundles for LLM interpretation.
README
ocp-triage-mcp
An MCP server that triages OpenShift alerts by orchestrating an upstream OCP
MCP server (the one exposing oc get nodes, get namespaces, describe pods, etc.). This server is both an MCP server (to whoever is triaging) and
an MCP client (of the OCP MCP) — the consuming team never touches the
upstream server directly.
LLM / agent ──MCP──▶ ocp-triage-mcp ──MCP (Streamable HTTP)──▶ OCP MCP ──▶ cluster
│
└── runbooks/*.yaml (one file per alert code)
Each alert code maps to a runbook: a YAML-defined sequence of upstream tool calls. Triage is deterministic — no LLM inside this server — so evidence collection is repeatable, auditable, and cheap. The LLM sitting above it interprets the evidence bundle.
Tools exposed
| Tool | Purpose |
|---|---|
list_runbooks |
Alert codes supported, required/optional inputs, steps |
triage_alert(alert_code, params) |
Run the full runbook, return the evidence bundle |
run_step(alert_code, step_id, params) |
Re-run one step of a runbook |
validate_runbooks |
Check all runbooks against the live upstream tool list |
The evidence bundle reports per-step status (ok / error / skipped /
aborted) so partial failures are visible, never silent.
Passthrough discovery tools
Callers usually need to find the runbook inputs first — which clusters,
namespaces, and pods exist. Set TRIAGE_PASSTHROUGH_TOOLS to a
comma-separated allowlist of upstream tool names (fnmatch patterns allowed):
TRIAGE_PASSTHROUGH_TOOLS=get_clusters,get_namespaces,get_pods,list_*
Matching upstream tools are re-exposed on this server verbatim — same name,
same input schema, same description — and calls are forwarded to the OCP MCP.
Nothing is passed through by default; the surface stays curated. The tool list
is fetched from the upstream lazily and cached; validate_runbooks refreshes
it and reports which names currently match.
Setup
Full guide — install, verification, hosting for another team, container deployment, troubleshooting: docs/setup.md
Quick start:
pip install -e .
Configuration is via environment variables:
| Variable | Meaning | Default |
|---|---|---|
OCP_MCP_URL |
Upstream OCP MCP Streamable HTTP endpoint, e.g. https://host/mcp |
(required) |
OCP_MCP_HEADERS |
Extra upstream headers, ;;-separated: Authorization: Bearer x;;X-Y: z |
none |
TRIAGE_PASSTHROUGH_TOOLS |
Upstream tools to re-expose here (comma-separated, fnmatch patterns) | none |
TRIAGE_RUNBOOKS_DIR |
Directory of runbook YAMLs | ./runbooks |
TRIAGE_MCP_TRANSPORT |
This server's transport: stdio, streamable-http, sse |
stdio |
TRIAGE_HTTP_HOST / TRIAGE_HTTP_PORT |
Listen address for the HTTP transports | 127.0.0.1 / 8000 |
Variables can also live in a .env file next to the server (copy
.env.example); real environment variables override it.
Run it:
ocp-triage-mcp
Registering in Claude Code (stdio):
{
"mcpServers": {
"ocp-triage": {
"command": "ocp-triage-mcp",
"env": {
"OCP_MCP_URL": "https://ocp-mcp.example.com/mcp",
"OCP_MCP_HEADERS": "Authorization: Bearer <token>",
"TRIAGE_RUNBOOKS_DIR": "C:/GIT/mcp-runbook/runbooks"
}
}
}
}
To serve it to another team over HTTP instead, set
TRIAGE_MCP_TRANSPORT=streamable-http and deploy it like any web service.
Writing runbooks
One YAML file per alert code in runbooks/:
alert: KubePodCrashLooping # the alert code callers pass to triage_alert
description: What this runbook collects and why.
inputs:
required: [namespace, pod] # must be present in params
optional: [cluster]
steps:
- id: describe_pod # unique id; defaults to the tool name
tool: describe_pod # tool name ON THE UPSTREAM OCP MCP
args:
namespace: "{{namespace}}" # template from params...
pod: "{{pod}}"
- id: node_status
tool: describe_node
when: "{{describe_pod.spec.nodeName}}" # skip unless resolvable & truthy
continue_on_error: true # don't abort the runbook on failure
args:
node: "{{describe_pod.spec.nodeName}}" # ...or from earlier step results
Templating rules:
{{name}}resolves fromparamsfirst, then from earlier step results by step id.- Dotted paths (
{{describe_pod.spec.nodeName}}) walk into a step's result — this requires the upstream tool to return JSON (structured content or a JSON text block). Plain-text output is kept verbatim and can't be path-referenced. - A string that is exactly one template keeps the referenced value's type (numbers, booleans, objects); mixed strings are substituted as text.
- Steps run sequentially. A step failure aborts the rest of the runbook unless
the failing step has
continue_on_error: true.
The example runbooks use placeholder tool names. After pointing
OCP_MCP_URL at your real server, call validate_runbooks — it lists the
upstream's actual tools and flags every runbook step that references a tool
the upstream doesn't expose.
Design notes
- Fresh upstream connection per call. Each
triage_alertopens its own Streamable HTTP session to the upstream and closes it when done. Remote sessions get dropped by idle timeouts/proxies; reconnecting per run makes every triage self-contained at negligible handshake cost. - Runbooks are re-read from disk on every call, so editing a YAML takes
effect without restarting the server. If load cost ever matters, add mtime
caching in
server._load. - No LLM inside. If a runbook someday needs in-flight reasoning, first try
extending
when:conditions; embedding an agent is the last resort.
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