The Agentic Automation Stack — Claude, MCP, and the Glue That Holds It Together
Agentic automation requires specific tooling—Claude for reasoning, MCP for capability extension, Agent SDK for orchestration. Here's the 2026 stack that works.
The stack (5 tools)
Strongest reasoning capabilities for multi-step agentic tasks with native tool use
Direct integration with Claude API, built-in MCP support, clean Python/TypeScript API
Decouples tool implementations from agent code; 200+ community servers available
Immediately available tools; covers 80% of common agent tasks (filesystem, git, fetch, memory)
Reference implementation of Agent SDK; spans terminal, VS Code, JetBrains, browser
Stack Overview
Agentic automation requires specific tooling: the Claude API with native tool use for reasoning, the Agent SDK for orchestration, MCP servers for capability extension, and Claude Code or CI/CD platforms for deployment. This stack combines these layers into a coherent system where agents can read codebases, execute commands, reason about problems, and take autonomous action without human intervention.
Components:
- Claude API (Opus 4.6): Language model with native tool use and agentic capabilities
- Claude Agent SDK: Programmatic interface for building agents in Python or TypeScript
- Model Context Protocol (MCP): Open standard for agents to discover and use tools
- MCP Servers: Reference implementations (Git, Filesystem, Memory, Web) plus 200+ community servers
- Claude Code: Interactive agentic IDE for development and debugging
- Deployment Infrastructure: CI/CD platforms, VPS, or cloud for production agents
The integration value: Instead of bolting APIs to LLMs or implementing tool access from scratch, this stack provides clean interfaces where agents discover capabilities, reason about trade-offs, and execute actions autonomously. MCP decouples agents from tool implementations—a Git server built once can be used by any MCP client. The result is composable, cost-effective, and production-ready.
Architecture:
┌─────────────────────────────────────────────────────────┐
│ Agentic Automation Stack (2026) │
├─────────────────────────────────────────────────────────┤
│ │
│ ┌─ Claude Agent SDK (Orchestration) │
│ │ ├─ Agentic Loop (reasoning → tools → iteration) │
│ │ ├─ Sessions (persistent context across queries) │
│ │ └─ Subagent Spawning (specialized workflows) │
│ │ │
│ ├─ Built-in Tools: │
│ │ Read, Write, Edit, Bash, Glob, Grep, Web │
│ │ │ │
│ │ └─ MCP Servers (capability extensions) │
│ │ ├─ Official: Git, Filesystem, Memory │
│ │ └─ Community: 200+ integrations │
│ │ │
│ └─ External Systems │
│ └─ APIs, databases, git repos, web content │
│ │
│ Deployment Paths: │
│ • Interactive: Claude Code (IDE) │
│ • CI/CD: Agent SDK in GitHub Actions / GitLab CI │
│ • Server: Long-running agents (Hetzner VPS, Docker) │
│ │
└─────────────────────────────────────────────────────────┘
Components
Claude API (March 2026 Pricing)
Claude is Anthropic’s family of large language models with native support for tool use and agentic behavior. Claude Opus 4.6 is the most capable model and recommended for complex agent workflows. The API handles the core agentic loop automatically: Claude reads context, decides what actions to take, invokes tools, and iterates until the goal is complete.
Why in this stack:
- Strongest reasoning capabilities for multi-step problems (versus GPT-4o, which optimizes for speed and integration breadth)
- Native tool use without wrapper libraries or complex callback loops
- 200K token context windows enable agents to reason over large codebases and long conversation histories
- Tool search (launched March 2026) allows agents to discover and invoke tools from thousands of integrations without maintaining pre-defined lists
| Alternative | Difference | Switch if |
|---|---|---|
| GPT-4o (OpenAI) | Comparable reasoning, faster API response, broader ecosystem integrations | You have existing OpenAI infrastructure or need sub-5-second latency |
| Llama 3.1 (Open Source) | Faster, cheaper, can run locally, weaker reasoning on complex problems | You need on-prem deployment or cost optimization is critical |
| Gemini (Google) | Strong reasoning, but harder to deploy agentic loops without Vertex AI | You’re already on Google Cloud or need tight GCP integration |
Key facts:
- Claude Opus 4.6: $3.00/1M input tokens, $15.00/1M output tokens
- Claude Sonnet 4.5: $3.00/1M input, $15.00/1M output (balanced capability/cost)
- Claude Haiku: $0.80/1M input, $4.00/1M output (fast, limited reasoning for agents)
- Pricing as of March 2026
Claude Agent SDK (Python & TypeScript)
The Agent SDK is the programmatic interface that powers both Claude Code (the IDE) and backend agents. It abstracts the complexity of implementing agentic loops—managing tool execution, context windows, retries, and state across multiple turns. Instead of manually building “while response.stop_reason == ‘tool_use’” loops, you define agents as async functions and the SDK handles orchestration.
Why in this stack:
- Zero boilerplate for the agentic loop—SDK handles tool execution, retry logic, and context management
- Built-in tools out of the box: Read, Write, Edit, Bash, Glob, Grep (file operations), WebSearch, WebFetch
- MCP integration native—declare MCP servers at startup, agent uses them at runtime
- Sessions for state persistence—full context and conversation history survive restarts
- Subagents for parallelization—main agent spawns specialist subagents (code reviewer, documentation agent) and collects results
| Alternative | Difference | Switch if |
|---|---|---|
| LangChain + LangGraph | More flexible, works with any LLM, strong orchestration | You use multiple models or need fine-grained workflow control |
| AutoGen (OpenAI) | Multi-agent conversation patterns, but less focused on reasoning | You need agent-to-agent chat or prefer OpenAI ecosystem |
| Letta | Specialized for persistent memory, but lower-level primitives | Long-running agents with complex memory requirements are your primary use case |
Key facts:
- Installation:
pip install claude-agent-sdk(Python),npm install @anthropic-ai/claude-agent-sdk(TypeScript) - Supports Anthropic API key, Amazon Bedrock, Google Vertex AI, Microsoft Azure auth
- Token budgets are the main cost lever—set soft (50%, 80%) and hard (100%) limits to prevent runaway costs
- Sessions preserve full context; can resume hours later with all prior context intact
Model Context Protocol (MCP)
MCP is an open standard that enables agents to discover and invoke tools without vendor lock-in. Think of it as the Language Server Protocol (LSP) for AI agents—a standardized wire protocol where applications (hosts) connect to services (servers) that provide resources, tools, and prompts. A Git server built to the MCP spec works with Claude, with custom agents, with future LLMs—no reimplementation needed.
Why in this stack:
- Decouples tools from agent frameworks—eliminates integration silos and vendor lock-in
- Composable ecosystem—mix and match 200+ community servers (Git, databases, APIs, web, monitoring)
- One integration, infinite clients—build a tool once, use it everywhere (Claude Code, Agent SDK, custom apps)
- Future-proof—as MCP matures (2026 roadmap includes enterprise auth, audit trails, agent-to-agent communication), all clients benefit automatically
| Alternative | Difference | Switch if |
|---|---|---|
| Hardcoded API bindings | Simple for single integrations, doesn’t scale | You only need 1-2 fixed tools and will never add more |
| LangChain Tool Registry | LangChain-specific, large ecosystem, but still framework-coupled | You’re already heavy in LangChain and don’t need framework independence |
| OpenAPI / Swagger specs | Broader ecosystem, but not designed for stateful agent interactions | You only have REST APIs and don’t need resource contexts or prompts |
Key facts:
- Protocol-agnostic: works over stdio (local), HTTP (network), or custom transports
- Language-agnostic: servers written in Python, TypeScript, Go, Rust, or any language
- Latest spec: November 25, 2025
- MCP ecosystem: 200+ community servers, official reference implementations (Git, Filesystem, Memory, Sequential Thinking, Time)
Official MCP Servers (Reference Implementations)
Anthropic maintains 7 official MCP server reference implementations. These are educational examples and starting points—teams should deploy their own servers with appropriate security controls for production. The MCP Registry (registry.modelcontextprotocol.io) curates community-maintained servers.
Why in this stack:
- Pre-built integrations for common needs—no need to implement Git, filesystem, memory, web fetch from scratch
- Security patterns built-in—filesystem sandboxing, permission models, resource limits
- Extensibility through custom tool definitions—agents can adapt tool sets without code changes
Common servers:
| Server | Purpose | Agent Use Case |
|---|---|---|
| Git | Repository inspection and manipulation | Code review agents, changelog generation, version analysis. Note: Ensure you’re running the December 18, 2025 or later release; earlier versions had a security vulnerability affecting repository initialization. |
| Filesystem | Secure file read/write/list with sandboxing | File processing, configuration management |
| Memory | Knowledge graph for persistent facts across sessions | Long-running agents that learn and accumulate context |
| Sequential Thinking | Structured reasoning via explicit thought sequences | Complex problem-solving, multi-step planning |
| Fetch | Web content fetching and HTML-to-markdown conversion | Research agents, documentation agents, content analysis |
| Time | Timezone-aware scheduling and time operations | Scheduled tasks, time-based decision-making |
| Everything | Reference/test server demonstrating all MCP capabilities | Complete example for developers understanding the protocol (prompts, resources, tools) |
Community ecosystem: 200+ third-party servers (GitHub integration, Playwright for browser automation, E2B for code execution, database MCPs, Windows CLI, Slack, Jira, Stripe, etc.)
Key fact: The ecosystem grew from zero to 200+ servers in 2 years, indicating strong adoption and network effects.
Claude Code (Agentic IDE)
Claude Code is Anthropic’s interactive agentic IDE that runs in terminals, VS Code, JetBrains IDEs, and the browser. It reads codebases, edits files, runs bash commands, and understands context from natural language prompts. Claude Code uses the same agent loop and tool set as the Agent SDK, making it both a development tool and a reference implementation of what agents can do.
Why in this stack:
- Interactive development for exploring problems and refining approaches (tools: Read, Edit, Bash, Glob, Grep, WebSearch, WebFetch)
- Same agent loop as production SDK—workflows developed interactively in Claude Code can be automated with the Agent SDK
- Configuration via
.claude/directory—project-specific skills, memory, and agent behavior - Multi-platform availability—terminal, VS Code, JetBrains, browser, desktop app
| Alternative | Difference | Switch if |
|---|---|---|
| Devin (AI Engineer) | Focused product, indexes repos automatically, creates PRs, but vendor lock-in | You want a managed product and don’t need cost control or deployment flexibility |
| Cursor (Editor + AI) | Code completion and chat, but less autonomous reasoning | You need an IDE-first experience and don’t need agents that loop autonomously |
| Copilot (GitHub) | Code completions and chat, integrates with GitHub, but not agentic loops | You primarily want inline code suggestions, not autonomous multi-step tasks |
Key facts:
- Same tool set as Agent SDK (no separate tools to learn)
- Supports subagents for specialized subtasks (spawning a code-reviewer subagent within a broader session)
- Configuration in
.claude/directory(skills, memory, agent options) - Pricing: $20/month (or included with Anthropic API subscription)
Setup Walkthrough
Step 1: Install the Claude Agent SDK
Install the SDK for your language of choice.
# Python
pip install claude-agent-sdk
# TypeScript
npm install @anthropic-ai/claude-agent-sdk
Step 2: Set Your Anthropic API Key
Create a .env.example file with your API key template, and keep your actual key in a local .env file (never commit secrets).
# .env.example (commit this to version control)
ANTHROPIC_API_KEY=sk-ant-...
# In your shell, load the key (or .env in your app)
export ANTHROPIC_API_KEY="your-actual-key-here"
Step 3: Write a Basic Agent
Create a simple agent that reads a file and analyzes it.
# analyze_code.py
from anthropic import Anthropic
client = Anthropic()
async def analyze_code():
"""Agent that reads code and suggests improvements."""
response = await client.agent.messages.create(
model="claude-opus-4-6",
max_tokens=4096,
tools=[
{
"type": "bash",
"name": "bash",
"description": "Execute bash commands"
}
],
messages=[
{
"role": "user",
"content": "Read src/main.py and suggest three improvements"
}
]
)
print(response)
if __name__ == "__main__":
import asyncio
asyncio.run(analyze_code())
Step 4: Add MCP Server Integration
Add a Git MCP server so the agent can inspect repositories.
# agent_with_mcp.py
from anthropic import Anthropic
from anthropic.agent_sdk import MCPServer
client = Anthropic()
async def agent_with_git():
"""Agent with access to Git MCP server."""
response = await client.agent.messages.create(
model="claude-opus-4-6",
max_tokens=4096,
mcp_servers={
"git": MCPServer(
command="mcp-server-git",
args=["--repo-path", "/path/to/repo"]
)
},
messages=[
{
"role": "user",
"content": "Show the last 5 commits and summarize changes"
}
]
)
print(response)
if __name__ == "__main__":
import asyncio
asyncio.run(agent_with_git())
Step 5: Set Token Budgets to Control Costs
Always set hard and soft token limits to prevent cost surprises.
# agent_with_budget.py
from anthropic import Anthropic
from anthropic.agent_sdk import AgentOptions
client = Anthropic()
async def agent_with_budget():
"""Agent with token budget controls."""
response = await client.agent.messages.create(
model="claude-opus-4-6",
max_tokens=4096,
budget_tokens=10000, # Hard limit: 10k tokens max
soft_budget_tokens=5000, # Soft warning at 5k
messages=[
{
"role": "user",
"content": "Analyze the entire src/ directory for security issues"
}
]
)
print(f"Tokens used: {response.usage.input_tokens + response.usage.output_tokens}")
if __name__ == "__main__":
import asyncio
asyncio.run(agent_with_budget())
Step 6: Deploy to CI/CD (GitHub Actions)
Run agents as part of your CI/CD pipeline for automated tasks.
# .github/workflows/agent-triage.yml
name: Issue Auto-Triage
on:
issues:
types: [opened]
jobs:
triage:
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v3
- uses: actions/setup-python@v4
with:
python-version: "3.11"
- run: pip install claude-agent-sdk
- env:
ANTHROPIC_API_KEY: ${{ secrets.ANTHROPIC_API_KEY }}
run: python scripts/triage_agent.py "${{ github.event.issue.body }}"
Pricing
| Component | License | Free Tier | Paid Starting | Notes |
|---|---|---|---|---|
| Claude API | Proprietary | $5/month free credits | $0.80 per 1M tokens (Haiku) | Opus 4.6: $3/input, $15/output per 1M tokens |
| Claude Agent SDK | Proprietary | Included with API key | N/A (pay for API calls) | Open SDK, usage metered via Claude API |
| Claude Code | Proprietary | Limited free tier | $20/month | IDE access across all platforms |
| MCP (Protocol) | Open source (MIT) | Free | N/A | Protocol is free; servers may have costs |
| Official MCP Servers | Open source (MIT/Apache) | Free | N/A | Self-hosted, no usage fees |
| Community MCP Servers | Varies (MIT, Apache, proprietary) | Varies | Varies | Check each server’s license and deployment model |
Cost drivers and considerations:
-
API costs dominate for most deployments. A typical agent running on Claude Opus 4.6 costs $0.50–$5.00 per task depending on complexity and codebase size.
-
Hosting costs (if self-hosting agents on VPS or cloud) range from $0 (GitHub Actions free tier) to $500+/month (dedicated VPS with observability and state persistence).
-
MCP servers are free (open source) but may have infrastructure costs if you run them on cloud platforms. Example: a Git MCP server costs ~$5/month on a small Hetzner VM.
-
Free tier limitations: The $5/month Claude API free credits are sufficient for experimentation but insufficient for production agents running frequently.
-
Typical production costs: A small team (2-3 developers) running daily automated workflows on agents typically spends $50–$300/month on Claude API, plus $50–$200/month on infrastructure.
When This Stack Fits
-
You’re building agents that reason and act: If your system needs to evaluate multiple options, plan steps, adapt based on failures, and use tools intelligently, Claude’s reasoning capabilities and native tool use shine. This stack is built for autonomous decision-making.
-
You want composable, open infrastructure: No vendor lock-in. Use Claude for reasoning, MCP servers for integrations, Claude Code for development, Agent SDK for production. Swap components based on requirements.
-
You’re automating complex workflows: Tasks requiring reading context (code, documentation, issues), reasoning about what to do, and taking actions (editing files, running tests, posting comments). This stack handles multi-step reasoning better than fixed-sequence automation tools.
-
You need to balance cost and capability: Claude Opus 4.6 + Agent SDK can accomplish in $50–$200/month what Devin ($500/mo) does, if you understand agentic patterns and set budgets carefully.
-
You’re starting interactively and moving to production: Begin with Claude Code for exploration and debugging, then deploy the same agent logic in production (CI/CD or long-running servers) using the Agent SDK.
When This Stack Doesn’t Fit
-
You need sub-second latency: Agentic inference (reasoning + tool use loops) typically takes 10–60 seconds per turn because the model must reason, call tools, observe results, and iterate. If you need <1 second responses, use a direct API call or pre-trained function instead.
-
Your task is deterministic and fixed-sequence: If you’re checking “is this email from HR?” and routing it to a folder (pure classification, no reasoning needed), a simple rule engine or webhook is faster and cheaper than an agent.
-
You don’t have code execution environments: MCP servers typically run with bash/command execution. If your environment forbids shell access (some corporate sandboxes, embedded systems), you can use agents with restricted tool sets, but you lose significant power.
-
You need real-time multi-agent coordination: Agents communicate via stored state and messages, not real-time RPC. If you need sub-second agent-to-agent communication, consider a different architecture (event-driven systems, message queues).
-
Your team doesn’t understand agentic patterns: If you’re used to traditional APIs and don’t understand loop control, cost budgets, and failure recovery, the learning curve is steep. Consider starting with Claude Code to get familiar.
Integration Patterns in Practice
GitHub Automation (Continuous Triage)
An agent monitors issues and suggests solutions:
- Issue posted to GitHub
- Webhook triggers Claude Agent in GitHub Actions
- Agent reads issue description, searches codebase for related code, consults docs
- Agent posts comment with analysis and suggested fix
- Result: 40–60% reduction in manual triage time (per GitHub 2026 data)
How the stack delivers this:
- Claude API for reasoning about the issue
- Agent SDK for orchestrating reads, searches, and API calls
- Git MCP server for accessing codebase history
- Web MCP server for fetching documentation
- GitHub API integration for posting comments
Continuous Code Improvement (Scheduled Background Agent)
A nightly agent runs against your codebase:
- Scheduled trigger (GitHub Actions at 2am UTC)
- Agent SDK spawns agent, passes in codebase
- Agent reads files, identifies improvements (long functions, duplicate code, missing tests)
- Agent creates pull requests with suggested refactorings
- Team reviews PRs next morning
Why this matters: Automation that used to require Devin ($500/mo) or manual code review now runs for $5–$20/mo in API costs.
Data Pipeline with State Persistence
A long-running agent monitors data quality:
- Agent starts on schedule or via webhook
- Loads prior state from PostgreSQL (what’s been processed, last errors)
- Queries database for new records, analyzes for anomalies
- Posts alerts to Slack if anomalies detected
- Saves state back to database (resumable if interrupted)
Stack pieces:
- Agent SDK sessions for multi-turn context
- PostgreSQL for persistent state (via MCP server if available, or direct connection)
- Slack integration (via MCP or direct API)
- Token budgets to cap costs per run
Comparison: This Stack vs. Alternatives
vs. Devin ($500/month)
| Factor | This Stack | Devin |
|---|---|---|
| Cost | $50–$200/mo (most teams) | $500/mo fixed |
| Ownership | Open source + proprietary API | Proprietary platform |
| Deployment flexibility | Local, self-hosted, cloud | Devin’s infrastructure only |
| Reasoning capability | Claude Opus 4.6 (strong) | Devin’s model (capable but unknown) |
| Pricing model | Pay-as-you-go (tokens) | Flat monthly seat |
Verdict: If you want “turn ticket into PR” with minimal configuration, Devin is simpler. If you need cost control, open integrations, and flexibility to run locally or on your infrastructure, this stack wins.
vs. LangChain + LangGraph
| Factor | This Stack | LangChain + LangGraph |
|---|---|---|
| Best at | Agentic reasoning with Claude | Orchestration, multi-model workflows |
| Model lock-in | Optimized for Claude | Works with any LLM |
| Built-in tools | Read, Edit, Bash, Glob, Grep, Web | Requires integration |
| Token efficiency | Most efficient | Varies by orchestration overhead |
| Community size | Growing (Anthropic-led) | Largest (LangChain community) |
| State management | Sessions (first-class) | Flexible, but manual setup |
Verdict: Use this stack for Claude-powered agents. Use LangChain + LangGraph if you’re using multiple models (GPT-4, Llama, etc.) or need fine-grained workflow control.
vs. Zapier / n8n (No-Code Automation)
| Factor | This Stack | Zapier/n8n |
|---|---|---|
| Reasoning | Native (agents think and adapt) | Fixed sequences only |
| Cost at scale | Cheaper per-task | Expensive (task credits) |
| Custom logic | Code anything | Pre-built connectors only |
| Context awareness | Agents read and understand data | See structure only |
| Learning curve | Steeper (requires coding) | Shallow (visual builder) |
Verdict: For simple workflows (send Slack if email arrives), use Zapier. For workflows requiring reading, understanding, and decision-making (triage, analysis, code review), this stack is more powerful and cheaper.
Cost & Scaling Considerations
Typical Spending by Use Case
| Scenario | Monthly Cost | Notes |
|---|---|---|
| Development (interactive Claude Code) | $0–$50 | Pay-as-you-go for API calls |
| Scheduled background agents (1–5 runs/day) | $20–$100 | ~$5 per run x 20–30 runs/month |
| Continuous CI/CD integration (10–50 checks/day) | $100–$500 | Scales with development velocity |
| Long-running persistent agent (24/7 monitoring) | $500–$2000 | Depends on decision frequency and tool complexity |
Cost Control Strategies
-
Use Claude Haiku for simple tasks ($0.80 per 1M input tokens) and Opus 4.6 only for complex reasoning.
-
Set token budgets (hard limits and soft warnings) to prevent runaway costs from infinite loops or poorly-defined goals.
-
Batch non-urgent tasks into scheduled runs (2am UTC) instead of on-demand to use cheaper batch pricing (if available).
-
Monitor cost per iteration: If an agent completes a task in 5 tool calls ($2) vs. 50 tool calls ($20), you have an efficiency problem—poor goal definition or reasoning issues.
Error Handling & Resilience
Common Failure Modes
-
Tool failures: API timeout, permission denied, malformed input. Agent retries automatically, but should fall back or escalate after N attempts.
-
Reasoning loops: Agent asks same question repeatedly, never making progress. Token budgets catch this; combine with watchdog timers (timeout after 5 minutes).
-
State corruption: Agent writes bad data (e.g., file with syntax errors), cascading failures. Mitigation: atomic operations, rollback strategies, diff review before commits.
-
External service degradation: API rate limits, dependency downtime. Use circuit breaker pattern (fail fast) and fallback logic.
Production Resilience Patterns
- Input validation: Validate tool inputs against schema before execution
- Layered retry: Exponential backoff for transient failures, circuit breaker to prevent cascading
- Replanning: When a tool fails, let agent generate alternative plan instead of retrying same approach
- Rollback strategies: Persist intermediate state, restore last good state on failure
- Watchdog timers: Timeout long-running operations
- Dead man’s switch: Alert if agent doesn’t report in X time
Real-world data: Amazon’s research on agentic systems found that production agents must demonstrate consistent error recovery and maintain coherence after exceptions to avoid cascading failures.
Observability & Debugging
Agentic systems are non-deterministic. Traditional monitoring (uptime, latency) doesn’t tell you if the agent is reasoning correctly.
What to monitor:
- Agent behavior: Tool call sequences (exploring vs. looping?), reasoning quality, goal completion rate
- System health: API uptime, end-to-end latency, MCP server availability
- Cost metrics: Tokens per task (trending up = efficiency loss), cost per completion, iterations to completion
- Error recovery: Mean time to recovery, error amplification factor, user impact
2026 observability tools:
- Langfuse: Full tracing of reasoning → tool calls → observations
- Arize Phoenix: Custom metrics and model performance
- Braintrust: A/B testing and quality metrics
- OpenTelemetry: Structured logging (portable across vendors)
Example metric: If a task costs $2 on average but sometimes $20, investigate the expensive runs—usually indicates reasoning drift, poor tool selection, or retry loops.
Multi-Agent Orchestration
Hierarchical Pattern (Supervisor)
One agent coordinates, delegates to specialists:
Team Lead Agent
├── Code Reviewer Subagent
├── Documentation Agent
└── Testing Agent
Lead: "Review this PR"
→ Spawn reviewer, documentation, testing subagents in parallel
→ Collect results
→ Synthesize feedback
Use case: Project workflows, approval gates, explicit control. Cybernauten’s content pipeline uses this: Researcher → Writer → Editor → Publisher.
Sequential Pattern (Chain)
Output of one agent becomes input of next:
Researcher writes 01-research.md
→ Writer reads it, writes 02-draft.mdx
→ Editor reads draft, writes 04-verdict.md
→ Publisher (if approved) publishes
Use case: Content pipelines, linear workflows. Simple to debug, clear handoffs.
Collaborative Pattern (Shared State)
Agents work independently, coordinate via database/cache:
Monitor Agent (updates alert status)
↓
Shared database
↓
Incident Response Agent (reads alerts, acts)
Use case: Real-time monitoring, parallel processing, resilient to individual agent failures.
Getting Started: Recommended Path
-
Explore interactively with Claude Code ($20/mo). Use
/claude codeor open in VS Code to read your codebase, experiment with agents. No API key setup needed. -
Build a small automation with the Agent SDK (read the Quickstart). Example: agent that reads a GitHub issue and posts analysis. Keep it to one workflow.
-
Set budgets and monitor costs before deploying anything production. Soft limit at 50%, hard limit at 100%.
-
Add MCP servers gradually. Start with Git (inspect repos), then Filesystem (safe file ops), then community servers (database access, Slack, etc.).
-
Deploy to CI/CD when the workflow is stable. Start with GitHub Actions free tier; scale to self-hosted VPS if needed.
-
Instrument observability before running at scale. Log tool calls, track cost per run, alert on failures.
-
Iterate on prompts and goal definition. Most cost and failure issues come from unclear prompts, not tools or infrastructure.