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Automating MCP Servers: A Beginner’s Step-by-Step Guide

By MCP Specialist6/15/20254 min read
Beginner
Automating MCP Servers: A Beginner’s Step-by-Step Guide

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Introduction

Welcome to your first deep dive into Model Context Protocol (MCP) servers! If you’re new to MCP, think of it as a set of standardized APIs that let AI agents (large language models) connect to powerful external services—like memory stores, web scrapers, or file systems—without custom integration code each time. This guide walks you through every step to:

  1. Install basic MCP servers
  2. Configure them centrally
  3. Register them automatically in your agent
  4. Trigger calls seamlessly during runtime
  5. Handle errors gracefully
  6. Containerize for easy deployment
  7. Test your setup end-to-end

By the end, you’ll have a fully automated workflow that lets your agent spin up with zero manual steps and leverage MCP servers reliably.


Step 1: Install & Run Your First MCP Servers

Goal: Get two MCP servers running locally so you can experiment.

  1. Choose simple servers

    • Knowledge Graph Memory: structured memory store
    • Fetch: web content retriever
  2. Use Docker (download Docker Desktop if needed):

    docker run -d --name knowledge_graph -p 9002:80 mcp/knowledge-graph:latest
    docker run -d --name fetch          -p 9210:80 mcp/fetch:latest
    
  3. Verify health:

    curl http://localhost:9002/health
    curl http://localhost:9210/health
    

    You should see {"status":"ok"} for each. This confirms the servers are live.


Step 2: Create Your Central Configuration File

Goal: Centralize all endpoint URLs in one place.

  1. Create mcp-config.yaml at your project root.
  2. Add entries under logical roles:
    mcp_servers:
      memory:
        - name: knowledge_graph
          url: http://localhost:9002
      io:
        - name: fetch
          url: http://localhost:9210
    
  3. Why? Later you’ll add more servers here (e.g., file system, Slack), keeping your code unchanged.

Step 3: Validate Connectivity on Startup

Goal: Catch misconfigurations early with a simple health check.

  1. Write health_check.py:
    import yaml, requests, sys
    
    cfg = yaml.safe_load(open("mcp-config.yaml"))
    for role, servers in cfg["mcp_servers"].items():
        for s in servers:
            resp = requests.get(s["url"] + "/health")
            if not resp.ok:
                print(f"❌ {s['name']} ({role}) is down.")
                sys.exit(1)
    print("✅ All MCP servers are healthy.")
    
  2. Run before your agent:
    python health_check.py && python run_agent.py
    
  3. Fix issues until you see the success message.

Step 4: Automatically Register Servers in Your Agent

Goal: Let your agent discover servers at runtime.

  1. Load your config in bootstrap code:
    import yaml, requests
    
    cfg = yaml.safe_load(open("mcp-config.yaml"))
    registry = {}
    
  2. Call MCP “discover” endpoint:
    for role, servers in cfg["mcp_servers"].items():
        for s in servers:
            r = requests.post("http://localhost:8000/mcp/discover", json={
                "name": s["name"], "url": s["url"]
            })
            if r.ok:
                registry[s["name"]] = s["url"]
    
  3. Result: registry holds each server’s base URL for later calls.

Step 5: Trigger MCP Calls in Your Code

Goal: Simplify making HTTP calls to your servers.

  1. Helper function:
    def call_mcp(server_name, endpoint, payload):
        url = registry[server_name] + endpoint
        return requests.post(url, json=payload).json()
    
  2. Example usage (add a memory entry):
    response = call_mcp("knowledge_graph", "/memory/add", {
        "entity": "Project X",
        "attributes": {"deadline": "2025-06-30"}
    })
    
  3. Wrap in try/except to prevent crashes on errors.

Step 6: Add Simple Retry & Fallback Logic

Goal: Improve reliability when servers occasionally fail.

  1. Retry wrapper:
    import time, random
    
    def safe_call(name, ep, data):
        for i in range(3):
            try:
                return call_mcp(name, ep, data)
            except:
                time.sleep((2**i) + random.random())
        return None
    
  2. Fallback strategy:
    If knowledge_graph write fails, log it and continue; for reads, consider using another memory server if available.

Step 7: Containerize Your Entire Workflow

Goal: Run your agent and MCP servers with a single command.

  1. Create docker-compose.yml:
    version: "3.8"
    services:
      agent:
        build: .
        command: ["python", "run_agent.py"]
        depends_on:
          - knowledge_graph
          - fetch
    
      knowledge_graph:
        image: mcp/knowledge-graph:latest
        ports: ["9002:80"]
    
      fetch:
        image: mcp/fetch:latest
        ports: ["9210:80"]
    
  2. Launch:
    docker-compose up --build
    

Step 8: Test End-to-End

Goal: Verify that your agent can make and use MCP calls.

  1. Memory test:

    “Remember that sprint review is July 15.”
    Check via:

    curl http://localhost:9002/memory/query?entity="sprint review"
    
  2. Fetch test:

    “Fetch https://example.com”
    Observe markdown output in console logs.


Step 9: Monitor & Iterate

Goal: Keep your workflow healthy and extendable.

  • Logging: Add timestamps and server names to every MCP call log.
  • Alerts: Use email or Slack hooks in your health check script.
  • Expand: Add servers (Semantic Memory, File System, Slack) by updating mcp-config.yaml and restarting via Docker Compose.

Conclusion

You’ve built a fully automated MCP workflow! No more manual endpoint tweaks—just spin up Docker, and your agent:

  • Discovers its MCP servers
  • Makes calls behind the scenes
  • Retries and fails over gracefully
  • Keeps you informed via logs and alerts

Happy building your next-generation AI agent!

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