devops-mcp

devops-mcp

Unified MCP server for DevOps engineers that provides real-time read and write access to Kubernetes, ArgoCD, Prometheus, and PagerDuty from any MCP-compatible AI agent.

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devops-mcp

Unified MCP server for DevOps engineers — query and manage Kubernetes, ArgoCD, Prometheus, and PagerDuty from any MCP-compatible AI agent.

npm version License: MIT MCP


What is this?

devops-mcp is an open source Model Context Protocol server that gives AI agents (Claude, etc.) real-time read and write access to your infrastructure stack — all from a single install.

Instead of copy-pasting kubectl output into a chat window, you can ask:

"Why is the payments deployment in CrashLoopBackOff?" "What changed in the last ArgoCD sync for the auth app?" "Show me the p99 latency for the API gateway over the last hour." "Who's on call right now and what incidents are open?" "Debug the payments service - what's wrong with it?"

...and get live answers, sourced directly from your cluster and tooling.

Providers included:

Prefix Provider Transport
k8s__* Kubernetes (via kubeconfig or in-cluster SA) client-go
argo__* ArgoCD REST API
prom__* Prometheus HTTP API (PromQL)
pd__* PagerDuty REST API v2
helm__* Helm CLI (helm binary)
devops__* Cross-provider incident debugging Aggregates all providers
logs__* Loki HTTP API (LogQL)

Quick start

Claude Desktop (stdio — recommended)

Add this to ~/.config/claude/claude_desktop_config.json (macOS: ~/Library/Application Support/Claude/claude_desktop_config.json):

{
  "mcpServers": {
    "devops": {
      "command": "npx",
      "args": ["-y", "@notharshhaa/devops-mcp@latest"],
      "env": {
        "KUBECONFIG": "/home/you/.kube/config",
        "ARGOCD_SERVER": "https://argocd.company.com",
        "ARGOCD_TOKEN": "your-argocd-token",
        "PROMETHEUS_URL": "http://prometheus.monitoring:9090",
        "PAGERDUTY_TOKEN": "your-pd-api-token",
        "LOKI_URL": "http://loki.monitoring:3100",
        "LOKI_TOKEN": "your-loki-token"
      }
    }
  }
}

Restart Claude Desktop. The devops server will appear in the tools list.

Claude Code (CLI)

claude mcp add devops-mcp -e KUBECONFIG=$HOME/.kube/config \
  -e ARGOCD_SERVER=https://argocd.company.com \
  -e ARGOCD_TOKEN=... \
  -e PROMETHEUS_URL=http://prometheus:9090 \
  -e PAGERDUTY_TOKEN=... \
  -e LOKI_URL=http://loki.monitoring:3100 \
  -e LOKI_TOKEN=... \
  -- npx -y @notharshhaa/devops-mcp@latest

Local dev / test

npx @notharshhaa/devops-mcp
# or clone and run:
git clone https://github.com/NotHarshhaa/devops-mcp
cd devops-mcp
npm install
cp .env.example .env   # fill in your values
npm run dev

Configuration

All config is via environment variables. Only set the ones for providers you actually use — providers with missing config are silently skipped.

# ── Kubernetes ────────────────────────────────────────────────
KUBECONFIG=/home/user/.kube/config       # omit to use in-cluster service account
K8S_CONTEXT=my-prod-context              # optional: pin a specific context
K8S_ALLOWED_NAMESPACES=default,backend   # optional: restrict namespace access

# ── ArgoCD ───────────────────────────────────────────────────
ARGOCD_SERVER=https://argocd.company.com
ARGOCD_TOKEN=eyJhbGci...                 # argocd account generate-token

# ── Prometheus ───────────────────────────────────────────────
PROMETHEUS_URL=http://prometheus:9090
PROMETHEUS_BEARER_TOKEN=                 # optional: for authenticated Prometheus

# ── PagerDuty ────────────────────────────────────────────────
PAGERDUTY_TOKEN=your-api-v2-token

# ── Loki ───────────────────────────────────────────────────
LOKI_URL=http://loki.monitoring:3100
LOKI_TOKEN=your-loki-token

# ── Transport ────────────────────────────────────────────────
# For stdio mode (default): no transport config needed
# For SSE mode: set these env vars
PORT=3000                                # SSE mode only
MCP_AUTH_TOKEN=shared-secret            # Bearer token for SSE authentication

# ── Safety ───────────────────────────────────────────────────
DEVOPS_MCP_DRY_RUN=false                # true = block all mutations globally
DEVOPS_MCP_AUDIT_LOG=/var/log/devops-mcp-audit.jsonl

Tool reference

All tools follow a three-tier safety model:

  • Read — safe, no side effects, no confirmation needed
  • Mutate — defaults to dry_run: true; set dry_run: false to execute
  • Destructive — requires confirm: true as an explicit parameter

Kubernetes (k8s__*)

Tool Tier Description
k8s__list_pods read List pods with status, restarts, node, age
k8s__get_pod_logs read Tail or stream logs from a pod container
k8s__describe_resource read Full describe for any resource type
k8s__get_events read Cluster or namespace events, filterable by reason
k8s__list_deployments read Deployments with replica counts and rollout health
k8s__get_resource_usage read CPU/mem usage per pod via metrics-server
k8s__get_node_status read Node health, conditions, capacity, allocatable resources, taints
k8s__get_network_policies read Network policies with pod selectors and ingress/egress rules
k8s__get_ingresses read Ingress resources with hosts, paths, backends, TLS config
k8s__list_cronjobs read CronJobs with schedule, last run, active jobs, suspend status
k8s__get_cronjob_status read Detailed CronJob status with recent job history
k8s__diff_resource read Compare current resource state vs last-applied-configuration
k8s__get_hpa read HorizontalPodAutoscaler with current/target metrics and scaling status
k8s__list_pvcs read PersistentVolumeClaims with status, capacity, storage class
k8s__list_services read Services with type, ports, selectors, clusterIP, endpoints
k8s__list_contexts read All kubeconfig contexts and the active one
k8s__switch_context mutate Switch active context (session-scoped)
k8s__scale_deployment mutate Scale replicas with dry-run diff preview
k8s__apply_manifest mutate Apply a manifest string with server-side dry-run
k8s__rollout_restart mutate Trigger rolling restart of a deployment or statefulset
k8s__delete_resource destructive Delete a named resource — requires confirm: true

ArgoCD (argo__*)

Tool Tier Description
argo__list_apps read All apps with health, sync status, source repo
argo__get_app read Full spec and status for one application
argo__get_app_diff read Live diff between git and cluster state
argo__get_app_history read Deployment history with git SHAs and timestamps
argo__get_resource_tree read Full owned resource tree for an app
argo__sync_app mutate Trigger sync — supports dry-run, prune, force
argo__rollback_app mutate Roll back to a specific history revision
argo__terminate_op mutate Cancel an in-progress sync operation

Prometheus (prom__*)

Tool Tier Description
prom__query read Instant PromQL query with label + value output
prom__query_range read Range query with step, returns time-series data
prom__list_alerts read All alert rules with state (firing / pending / inactive)
prom__get_firing_alerts read Only currently firing alerts with duration
prom__list_targets read All scrape targets with health and last scrape
prom__label_values read Enumerate values for a given label name
prom__metric_metadata read Type, help text, and unit for a metric
prom__compare_periods read 📈 Compare metrics between two time windows — detect before/after deployment changes
prom__slo_status read 🎯 SLO compliance — error budget remaining, burn rate, time to exhaustion
prom__summarize_service_health read 📊 Smart summary - human-readable service health metrics including latency changes, error rate vs SLO, and traffic patterns

Example usage:

# Get a human-readable health summary
prom__summarize_service_health(service="payments", timeframeMinutes=30, sloThreshold=0.05)

What it outputs:

  • Latency: "Latency increased: 120ms → 480ms (+300%)" or "Latency stable: 125ms"
  • Error rate: "Error rate crossed SLO (5%): 7.2%" or "Error rate within SLO: 2.1%"
  • Traffic: "Traffic dropped: 500 → 350 req/s (-30%)" or "Traffic spike detected (+150%)"
  • Overall assessment: Summary of issues and positive indicators

Why this matters: Instead of raw PromQL numbers that require interpretation, this tool provides actionable insights that AI agents can use directly in responses, making monitoring data actually useful for incident investigation and communication.

Loki (logs__*)

Tool Tier Description
logs__get_recent_errors read Get recent error logs from Loki for debugging incidents
logs__search read Search logs in Loki with custom query for root cause analysis

Example usage:

# Get recent error logs
logs__get_recent_errors(service="payments", namespace="default", minutes=30, limit=50)

# Search logs with custom query
logs__search(query='{service="payments"} |= level="error"', limit=100)

Why this matters:

  • Metrics tell what: Prometheus shows you that latency increased or error rate crossed SLO
  • Logs tell why: Loki shows you the actual error messages, stack traces, and context around failures
  • Complete debugging: Without logs, you can see that something is broken but not understand the root cause

Output format:

  • Structured log entries with timestamp, message, service, namespace, and extracted log levels
  • Error count summaries and filtering
  • Raw LogQL results for detailed analysis

This makes incident investigation complete by combining the "what" (metrics) with the "why" (logs).

PagerDuty (pd__*)

Tool Tier Description
pd__list_incidents read Open incidents with severity, status, assignee
pd__get_incident read Full detail with alerts, notes, timeline
pd__who_is_oncall read Current on-call per schedule or escalation policy
pd__list_services read All services with integration keys and status
pd__get_log_entries read Audit log for an incident (all state changes)
pd__acknowledge_incident mutate Acknowledge — suppresses further notifications
pd__add_note mutate Append a note to an incident timeline
pd__escalate_incident destructive Escalate to a different policy — requires confirm: true
pd__summarize_incident read 🚨 Incident auto-summary - what happened, affected services, probable root cause, current status

pd__summarize_incident

Example usage:

# Get an auto-summary of an incident
pd__summarize_incident(id="ABC123")

What it outputs:

  • What happened: Incident title, description, severity, urgency, status, creation time, and duration
  • Affected services: Service name, ID, and current status
  • Probable root cause: Analysis of trigger alerts and log entries to identify likely causes
  • Current status: Current incident state, assignees, acknowledgements, and notes count

Output format:

{
  "what_happened": {
    "title": "API Gateway High Error Rate",
    "description": "5xx error rate exceeded 5% threshold",
    "severity": "high",
    "urgency": "high",
    "status": "acknowledged",
    "createdAt": "2025-01-15T10:30:00Z",
    "updatedAt": "2025-01-15T11:45:00Z",
    "duration": "1h 15m"
  },
  "affected_services": [
    {
      "id": "P123456",
      "name": "API Gateway",
      "status": "critical"
    }
  ],
  "probable_root_cause": "Triggered by: High 5xx error rate from API Gateway pods",
  "current_status": {
    "status": "acknowledged",
    "lastUpdated": "2025-01-15T11:45:00Z",
    "assignees": ["john.doe@company.com"],
    "acknowledgements": 2,
    "notes": 3
  }
}

Why this matters: Instead of manually piecing together incident details from multiple API calls, this tool provides a comprehensive, human-readable summary perfect for:

  • Demos: Shows AI's ability to understand and summarize complex incident data
  • Real-world use: Quickly understand incident impact without digging through raw data
  • Communication: Share concise incident summaries with stakeholders

Helm (helm__*)

Tool Tier Description
helm__list_releases read List Helm releases with status, chart, app version
helm__get_status read Full status of a Helm release
helm__get_values read User-supplied or computed values for a release
helm__get_history read Revision history of a release
helm__rollback mutate Rollback to a previous revision (dry-run by default)

Requirements: Helm CLI binary must be available in PATH.

Example usage:

# List all releases in a namespace
helm__list_releases(namespace="production")

# Check what values a release is using
helm__get_values(name="api-gateway", all_values=true)

# Rollback after a bad deploy
helm__rollback(name="api-gateway", revision=5, dry_run=false)

Cross-Provider Debugging (devops__*)

Tool Tier Description
devops__debug_service read 🔥 Cross-provider incident debugging - aggregates Kubernetes, ArgoCD, Prometheus, and PagerDuty data to diagnose service issues in one command
devops__explain_change read 🧠 Explain what changed - combines ArgoCD history, Kubernetes rollout history, and Prometheus anomaly window to identify cause of issues
devops__runbook read 📋 Automated runbook - symptom-based diagnostic that runs targeted checks (crashloop, high-latency, oom, 5xx, pod-pending)
devops__health_report read 🏥 Cluster health report - one-shot assessment across all providers with overall status (healthy/degraded/critical)
devops__incident_timeline read 🕐 Incident timeline - unified event timeline across K8s, ArgoCD, Prometheus, and PagerDuty sorted chronologically

devops__debug_service

Example usage:

# Debug a service across all providers
devops__debug_service(service="payments", namespace="default")

What it checks:

  • Kubernetes: Pod status, restart counts, readiness, deployment health, recent events
  • ArgoCD: Sync status, health status, Git diff detection, deployment history
  • Prometheus: Error rate (5xx responses), latency (p95), firing alerts
  • PagerDuty: Active incidents matching the service name

Output format:

  • Human-readable diagnosis with emoji indicators (⚠️ warnings, ❌ errors)
  • Per-provider status sections
  • Summary highlighting critical issues
  • Raw JSON data for detailed analysis

This is the most powerful tool for incident investigation - it gives you a complete picture of what's wrong with a service in seconds.

devops__explain_change

Example usage:

# Explain what changed in the last hour
devops__explain_change(service="payments", namespace="default", timeframeMinutes=60)

What it analyzes:

  • ArgoCD: Deployment history within the timeframe, including revision, author, repo, and chart
  • Kubernetes: Current rollout status, replica counts, image tags, and deployment readiness
  • Prometheus: Error rate trends, latency patterns, and traffic spikes over the time window

Output format:

  • Timeline of recent deployments with full metadata
  • Kubernetes rollout status and health
  • Metric anomaly detection (error rate spikes, latency issues, traffic changes)
  • Correlation analysis that links deployments to metric changes
  • Summary with root cause hypothesis

Problem it solves: "Everything was working yesterday… what changed?"

This tool answers that question by correlating deployment events with metric anomalies, helping you quickly identify whether a recent deployment, config change, or external factor caused the issue.

devops__runbook

Example usage:

# Diagnose a crashlooping service
devops__runbook(symptom="crashloop", service="payments", namespace="default")

# Investigate high latency
devops__runbook(symptom="high-latency", service="api-gateway")

Supported symptoms:

Symptom What it checks
crashloop Pod status → logs (tail 50) → BackOff events → deployment health
high-latency p95 latency → resource usage → firing alerts → recent deploys
oom OOMKilled events → memory usage → pod describe → resource limits
5xx Error rate → Loki error logs → deployment health
pod-pending Scheduling events → pending pods → node capacity

Output: Structured JSON with steps_executed[], findings[], and recommended_actions[].

devops__health_report

Example usage:

# Get a full cluster health assessment
devops__health_report(namespace="production")

What it gathers:

  • Kubernetes: Unhealthy pods, deployments not at desired replicas
  • Prometheus: Count of firing alerts
  • ArgoCD: Out-of-sync and unhealthy applications
  • PagerDuty: Open incident count

Output: Overall status (healthy / degraded / critical), per-provider sections, and summary. Perfect for morning standup checks or shift handoffs.


Deployment options

stdio (recommended for local use)

The MCP host launches devops-mcp as a subprocess and communicates over stdin/stdout. Zero network config. Auth comes from the local environment (kubeconfig, env vars). Process lifecycle tied to Claude Desktop.

npx @notharshhaa/devops-mcp
# or with env vars
KUBECONFIG=~/.kube/config npx @notharshhaa/devops-mcp

SSE / HTTP (for shared teams)

Server runs as a persistent HTTP service. Claude connects over Server-Sent Events. Enables multiple users sharing one server. Needs TLS + a bearer token or mTLS in front. Deploy via Docker on an internal bastion.

npx @notharshhaa/devops-mcp-sse
# or with env vars
PORT=3000 MCP_AUTH_TOKEN=your-secret npx @notharshhaa/devops-mcp-sse

For team use, put it behind a TLS-terminating reverse proxy (Caddy, nginx, Traefik). A minimal docker-compose.yml is in the examples/ directory.

WebSocket (optional extra)

Run @notharshhaa/devops-mcp with WebSocket transport for real-time bidirectional communication (not in reference implementation).

TRANSPORT=websocket PORT=3000 MCP_AUTH_TOKEN=your-secret npx @notharshhaa/devops-mcp

Connect to ws://localhost:3000/ws with the auth token in the Authorization header.


Security model

devops-mcp is designed for internal use inside a trusted network. That said:

  • Kubernetes: Uses standard kubeconfig via @kubernetes/client-node. Supports exec plugins (AWS EKS, GKE). In-cluster: auto-mounts SA token. Add RBAC rules scoped to your desired permissions — run devops-mcp under a dedicated ServiceAccount with minimal verbs.
  • ArgoCD: Generate a long-lived token: argocd account generate-token --account devops-mcp. Create a dedicated account in argocd-cm with apiKey capability and a role limited to read + sync.
  • Prometheus: Usually unauthenticated inside a cluster. If using Grafana Mimir or Thanos with auth, pass a Bearer token. All tools are read-only so minimal permissions are needed.
  • PagerDuty: Create a dedicated API key in PagerDuty → API Access → Create New API Key. Use Full Access if you want acknowledge/escalate tools; Read-only if you want a safe-only mode.
  • Mutations are dry-run by default. Every mutating tool defaults dry_run: true. The AI must explicitly pass dry_run: false — it won't do this unless the user clearly requests an action.
  • Destructive tools require confirm: true. This parameter is never passed by default; it requires the user to explicitly approve.
  • Audit log. Set DEVOPS_MCP_AUDIT_LOG to a file path. Every tool call is written as a JSONL line with timestamp, tool name, parameters, and outcome. Mutations and destructive calls are flagged.
  • Global dry-run mode. Set DEVOPS_MCP_DRY_RUN=true to prevent all mutations — useful for read-only team deployments.

Architecture

Client / UI agents (Claude Desktop, Claude Code, etc.)
       │
       ▼
  Transport Layer
  ┌──────────────────────────────┐
  │ stdio | SSE | WebSocket      │  ← Multiple transport support
  │ Authentication (token/JWT)    │  ← Dynamic auth system
  └──────────────────────────────┘
       │
       ▼
  Server & Auth/Registry
  ┌──────────────────────────────┐
  │ Tool registry & routing      │
  │ Dynamic auth manager         │  ← Session-based auth
  │ Request multiplexing         │  ← Concurrent request handling
  │ Audit logging                │
  └──────────────────────────────┘
       │
       ▼
  ┌────┬────┬────┐
  k8s  argo prom  pd  ← Provider modules
  │    │    │     │
  K8s  Argo Prom  PD  ← API clients
  API  API  HTTP  API
       │
       ▼
  Cross-cutting Concerns
  ┌──────────────────────────────┐
  │ Dry-run guard                │
  │ Audit logger                 │
  │ Error normalization          │
  │ Config loader                │
  └──────────────────────────────┘

Key architectural features:

  • Multi-transport support: stdio and SSE transports using official MCP SDK
  • Simple authentication: Bearer token for SSE transport (matches reference pattern)
  • Provider isolation: Each provider (k8s, argo, prom, pd) is a self-contained module
  • Cross-cutting concerns: Dry-run enforcement, audit logging, and error normalization applied consistently across all tools

Contributing

Contributions are welcome. The most useful areas:

  • New providers — Grafana, Datadog, Vault, Terraform Cloud, Flux CD
  • New tools — within existing providers (e.g. k8s__get_node_pressure, argo__get_app_logs)
  • Better output formatting — richer structured responses for specific resource types
  • Tests — unit tests for provider logic using mocked clients

Adding a new provider

  1. Create src/providers/yourprovider/ with index.ts, client.ts, and one file per resource group.
  2. Register it in src/server.ts.
  3. Add config keys to .env.example and src/config.ts.
  4. Document tools in this README following the existing table format.
  5. Open a PR.

Local development

git clone https://github.com/NotHarshhaa/devops-mcp
cd devops-mcp
npm install
cp .env.example .env
npm run dev        # tsx watch — restarts on file change

Run against a local kind/minikube cluster for Kubernetes testing. Use DEVOPS_MCP_DRY_RUN=true to prevent accidental mutations during development.


Roadmap

  • [ ] Grafana provider (grafana__*) — dashboards, annotations, datasources
  • [ ] Flux CD provider (flux__*) — kustomizations, helm releases, image automation
  • [ ] Terraform Cloud provider (tfc__*) — workspace runs, state, variables
  • [ ] HashiCorp Vault provider (vault__*) — secret read (never write), lease status
  • [ ] Datadog provider (dd__*) — metrics, monitors, events
  • [ ] Web UI for SSE mode — connection status, live audit log, provider health

License

MIT — see LICENSE.


Built for DevOps and platform engineers who want AI that actually knows what's happening in their cluster.

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