mcpField
A
agentic-ai-developer

agentic-ai-developer

github.com/rade-nugrohoAgent workflows1241 installsUpdated 23w ago
Repository

About agentic-ai-developer

A development skill for building tool-using AI agents, from loop design and orchestration to state, reliability, evaluation, and deployment. It is intended for developers implementing agentic applications, with patterns for MCP tools and human approval gates.

Key features

  1. 01Agent loops and tool schemas
  2. 02Multi-agent routing and handoffs
  3. 03State, checkpoints, and human approval
  4. 04Retries, tracing, and trajectory evaluation
  5. 05Sandboxing and production deployment

Use cases

  1. 01Build an agent that calls tools repeatedly
  2. 02Coordinate specialist agents with handoffs
  3. 03Resume long-running tasks from checkpoints
  4. 04Evaluate agent changes before release

MCP support

Covers designing MCP tool schemas and choosing MCP servers as part of an agent runtime. It also includes patterns for tool safety, authentication, and execution boundaries.

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/rade-nugroho/agentic-enteprises-skill --skill agentic-ai-developer

After installing, type/agentic-ai-developerin Claude Code to confirm it loaded.

Bundled files

References and scripts installed along with SKILL.md.

references/
agent_loop_tools_and_mcp.md
agentic_ai_developer_scope.md
multi_agent_orchestration_and_handoffs.md
reliability_observability_and_evaluation.md
security_and_production_deployment.md
state_memory_and_hitl.md

Details

From the project README

Agentic AI Developer

When to Use

  • Implementing agent loops with tools: plan → act → observe → stop
  • Designing tool/MCP schemas, auth, timeouts, and sandbox boundaries
  • Building multi-agent workflows with routing, handoffs, and fan-out/fan-in
  • Persisting agent state, checkpoints, thread memory, and resume semantics
  • Adding human-in-the-loop approval, edit, or reject gates on risky tool calls
  • Hardening agents: retries, idempotency keys, cancellation, and budget caps
  • Instrumenting traces, spans, and trajectory logs for debugging and eval
  • Running trajectory evals, golden sets, and regression gates before release
  • Shipping agentic apps via API, queue workers, or durable workflow engines

When NOT to Use

  • Training or fine-tuning foundation models, classical ML pipelines → ai-engineer, ai-researcher
  • AI ops cadence, vendor contracts, rollout governance without implementation → ai-lead-ops
  • Internal developer platform, golden paths, Backstage—no agent runtime → platform-engineer
  • Generic service/API work with no agent loop, tools, or orchestration → senior-software-engineer
  • Adversarial red-team campaigns and jailbreak harnesses only → ai-redteam
  • Corporate AI policy, risk tiering, model cards without build → ai-risk-governance
  • Pre-flight architecture or production-readiness review without building → build-validator
  • Multi-agent system topology, routing, protocols, and fleet-level failure at architecture/engineering depth → multi-agent-system-engineer
  • High-level multi-agent whiteboard without implementation → agent-designer (external skill; use conceptually)

Related skills

NeedSkill
Broader LLM apps, RAG, model routing, cost/latencyai-engineer
AI production ops, incidents, release gatesai-lead-ops
Platform golden paths, IDP, developer portalsplatform-engineer
Service design, APIs, code quality without agent focussenior-software-engineer
Prompt injection, tool abuse, safety eval campaignsai-redteam
Governance, risk tiers, policy mappingai-risk-governance
Go/no-go plan or architecture validationbuild-validator
Persistent memory stores and retrieval designai-memory-developer
Context packing and token budgetingai-context-engineer
Prompt templates and judge rubricsprompt-engineer
Multi-agent system topology, routing, DAG, fleet observabilitymulti-agent-system-engineer
Multi-agent whiteboard without code (conceptual)agent-designer (external)

Core Workflows

1. Shape the agent runtime
  1. Define the user job, success metric, and stop conditions
  2. Choose runtime shape: single loop, supervisor + workers, or graph/DAG
  3. List tools/MCP servers; classify read vs write vs irreversible
  4. Set budgets: max steps, tokens, wall time, cost per session
  5. Decide checkpoint/resume and tenancy (thread_id, org_id)

See references/agentic_ai_developer_scope.md for scope boundaries and deliverables.

2. Implement loop + tools
receive task → plan (optional) → select tool → execute → observe → repeat | finalize

Checklist:

  • Tool schemas are narrow; descriptions say when not to call
  • Timeouts, retries, and idempotency on side effects
  • Errors surfaced once to the model; no infinite retry loops
  • Secrets never returned in tool results or traces

See references/agent_loop_tools_and_mcp.md for MCP and schema patterns.

3. Orchestrate multiple agents
  • Assign roles: planner, executor, critic, specialist
  • Handoff payload: goal, constraints, artifacts, open questions
  • Avoid duplicate tool access unless idempotent; centralize dangerous tools
  • Use fan-out/fan-in for parallel research; merge with structured reducer

See references/multi_agent_orchestration_and_handoffs.md for routing and handoff contracts. For system-level topology, fan-in policy, and cross-agent failure matrices, use multi-agent-system-engineer.

4. State, memory, and HITL
  • Separate ephemeral scratchpad vs durable thread state vs long-term memory
  • Checkpoint after each tool batch or subgraph node for resume
  • HITL on tier-2+ actions: approve, edit args, or reject with reason
  • Time out stalled human approvals; default-deny on expiry

See references/state_memory_and_hitl.md for checkpoint and approval patterns.

5. Reliability, observability, and evaluation
  • Trace: session_id, span per model/tool step, redacted inputs/outputs
  • Metrics: success rate, steps to completion, tool error rate, p95 latency, cost
  • Eval: golden trajectories, tool-call correctness, task success (human or judge)
  • Gate releases on regression suite; canary new prompts/graph versions

See references/reliability_observability_and_evaluation.md for eval and SLO patterns.

6. Security and production deployment
  • Sandboxed tool execution; least-privilege credentials per tool
  • Treat tool results and retrieved docs as untrusted input (injection aware)
  • Deploy: sync API for short tasks; queue or durable workflow for long runs
  • Kill switch, feature flags, and versioned prompts/graph definitions

See references/security_and_production_deployment.md for deployment topologies.

When to load references

TopicReference
Role scope, deliverables, boundariesreferences/agentic_ai_developer_scope.md
Agent loop, tools, MCPreferences/agent_loop_tools_and_mcp.md
Multi-agent routing and handoffsreferences/multi_agent_orchestration_and_handoffs.md
State, memory, checkpoints, HITLreferences/state_memory_and_hitl.md
Retries, tracing, trajectory evalreferences/reliability_observability_and_evaluation.md
Sandboxing, injection, deploymentreferences/security_and_production_deployment.md

Framework pointers (optional)

Use framework docs for API specifics; this skill stays pattern-first:

PatternTypical home
Stateful graph, interrupts, checkpointingLangGraph-style graphs
Subagents, filesystem memory, HITL middlewareDeep Agents-style harness
Programmatic cloud/local agents, MCP in CICursor SDK-style agents

Do not duplicate full framework tutorials—implement the contracts above in the stack the team chose.

Comments

Markdown supported