adw-design
Guide creation of AI Developer Workflows (ADWs) that combine deterministic orchestration code with non-deterministic agents. Use when building automated development pipelines, designing AFK agent systems, or implementing the PITER framework.
What this skill does
# ADW Design
Guide for creating AI Developer Workflows - reusable agentic workflows that combine deterministic code with non-deterministic agents.
## When to Use
- Building automated development pipelines
- Designing AFK (Away From Keyboard) agent systems
- Implementing the PITER framework
- Creating micro agent architectures
- Setting up GitHub issue → PR automation
## What is an ADW?
An ADW is the highest composition level of agentic coding:
```text
ADW = Orchestrator + Micro Agents + Triggers + Observability
```
Components:
1. **Orchestrator** - Python/TypeScript code that coordinates the workflow
2. **Micro Agents** - Specialized Claude Code invocations with single responsibilities
3. **Triggers** - Webhooks, cron, or manual invocation
4. **Observability** - Logging, issue comments, tracking
## ADW Design Process
### Step 1: Define the Workflow
Map out the phases:
```text
Input → Classify → Branch → Plan → Implement → Review
```
Questions to answer:
- What's the input source? (GitHub issues, Notion, Slack)
- What are the phases? (classify, plan, implement, review)
- What's the output? (PR, deployment, report)
### Step 2: Design Micro Agents
For each phase, define a specialized agent:
| Phase | Agent | Responsibility | Model |
| --- | --- | --- | --- |
| Classify | `issue_classifier` | Determine work type | Haiku |
| Branch | `branch_generator` | Create branch name | Haiku |
| Plan | `sdlc_planner` | Generate implementation plan | Sonnet |
| Build | `sdlc_implementer` | Implement the solution | Sonnet |
| Commit | `committer` | Create semantic commits | Haiku |
| PR | `pr_creator` | Create pull request | Haiku |
### Step 3: Create Templates
Each agent needs a slash command:
- `/classify-issue` - Classify issue type
- `/generate-branch-name` - Create branch name
- `/chore`, `/bug`, `/feature` - Generate plans
- `/implement` - Execute plans
- `/commit-with-agent` - Create commits
- `/pull-request` - Create PRs
### Step 4: Build Orchestrator
The orchestrator coordinates everything:
```python
# Pseudocode structure
def run_adw(issue_number, adw_id):
issue = fetch_issue(issue_number)
issue_type = execute_agent("classifier", issue)
branch = execute_agent("branch_generator", issue)
plan = execute_agent("planner", issue_type, issue)
execute_agent("implementer", plan)
execute_agent("pr_creator", branch, issue, plan)
```
### Step 5: Add Observability
Track everything:
- **ADW ID**: 8-char UUID for correlation
- **Issue comments**: Progress updates
- **Logs**: Structured output per agent
- **Metrics**: Success rate, duration
## ADW Directory Structure
```text
adws/
├── main_workflow.py # Main orchestrator
├── agent.py # Claude Code integration
├── data_types.py # Type definitions
├── github.py # GitHub operations
├── trigger_cron.py # Cron trigger
├── trigger_webhook.py # Webhook trigger
├── health_check.py # Environment validation
└── README.md # Documentation
```
## Model Selection Strategy
Match model to task:
| Task Complexity | Model | Examples |
| --- | --- | --- |
| Simple decision | Haiku | Classification, branch naming |
| Formatting | Haiku | Commit messages, PR body |
| Reasoning | Sonnet | Plan generation |
| Complex coding | Sonnet/Opus | Implementation |
## ADW Quality Checklist
Before deploying:
- [ ] Each agent has single responsibility
- [ ] Model selection matches task complexity
- [ ] ADW ID tracking implemented
- [ ] Issue comments posted at each phase
- [ ] Error handling with meaningful messages
- [ ] Logging captures all agent outputs
- [ ] Health check validates environment
- [ ] Templates tested independently
- [ ] End-to-end workflow tested
## Common Patterns
### Agent Executor Pattern
```python
def execute_agent(agent_name, *args):
prompt = build_prompt(agent_name, args)
result = subprocess.run([
"claude", "-p", prompt,
"--model", get_model(agent_name),
"--output-format", "stream-json"
])
log_result(agent_name, result)
return parse_result(result)
```
### Issue Comment Pattern
```python
def update_issue(issue_number, adw_id, agent_name, message):
comment = f"[{adw_id}_{agent_name}] {message}"
gh_issue_comment(issue_number, comment)
```
### Error Handling Pattern
```python
def check_error(result, phase):
if not result.success:
update_issue(issue, adw_id, phase, f"ERROR: {result.error}")
sys.exit(1)
```
## Anti-Patterns to Avoid
### Monolithic Agent
**Bad**: One agent doing everything
**Good**: Micro agents with single responsibilities
### Missing Observability
**Bad**: No logging, no issue comments
**Good**: ADW ID tracking, structured logs, progress comments
### Wrong Model Selection
**Bad**: Using Opus for branch naming
**Good**: Match model to task complexity
### No Error Handling
**Bad**: Silent failures
**Good**: Error comments, graceful degradation
## Related Memory Files
- @piter-framework.md - PITER elements for AFK agents
- @adw-anatomy.md - ADW structure and patterns
- @outloop-checklist.md - Deployment readiness
- @inloop-vs-outloop.md - When to use ADWs
## Version History
- **v1.0.0** (2025-12-26): Initial release
---
## Last Updated
**Date:** 2025-12-26
**Model:** claude-opus-4-5-20251101
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