Created by Tyler Walker (@wtyler2505) & Claude
This document provides detailed information about the key features and capabilities of CCDK i124q.
- Hive-Mind Mode
- Analytics Dashboard
- Web UI
- Memory Persistence
- CI/CD Integration
- Multi-Agent Orchestration
- 3-Tier Documentation System
- Fault-Tolerant Hooks
Hive-Mind mode enables persistent collaborative AI sessions where multiple agents work together with shared memory and state.
- Queen Coordinator: Central orchestrator managing worker agents
- Worker Agents: Specialized agents (architect, coder, tester, security)
- Shared Memory: SQLite-based state persistence across agents
- Session Management: Named sessions for different features/branches
/hive-start mysessionThis creates:
- Session directory:
.ccd_hive/mysession/ - Shared SQLite database for agent communication
- Persistent state across Claude Code restarts
# Check current session
/hive-status
# Stop session
/hive-stop
# Control via Python script
python scripts/ccdk-hive.py --list
python scripts/ccdk-hive.py --session mysession --status- Use descriptive session names:
feature-auth,bugfix-api, etc. - One session per feature: Keep concerns separated
- Regular status checks: Monitor agent coordination
- Clean up completed sessions: Prevent database bloat
Hive Session
├── Queen (Coordinator)
│ ├── Task Distribution
│ ├── State Management
│ └── Result Aggregation
└── Workers
├── Architect (Design)
├── Coder (Implementation)
├── Tester (Validation)
└── Security (Audit)
Real-time analytics and monitoring for development activities, tool usage, and performance metrics.
- Analytics Logger:
.ccd_analytics.log - Dashboard Server:
dashboard/app.py - Metrics Collection: Via
postToolUse-analyticshook - Visualization: Web-based charts and graphs
# Start analytics server
python dashboard/app.py
# Access dashboard
# Open browser to http://localhost:5000-
Tool Usage
- Frequency of each tool
- Success/failure rates
- Execution times
- Error patterns
-
Agent Activity
- Agent invocations
- Task completion rates
- Collaboration patterns
-
Session Metrics
- Session duration
- Commands per session
- Memory usage
- Token consumption
- Real-time Updates: Live data streaming
- Historical Analysis: Trend visualization
- Export Capabilities: CSV/JSON export
- Custom Filters: Date range, tool type, status
{
"timestamp": "2025-08-02T10:30:00Z",
"tool": "Edit",
"status": "success",
"duration_ms": 245,
"session_id": "abc123",
"metadata": {
"file": "src/api.py",
"lines_changed": 15
}
}Interactive web interface providing visual control and monitoring of CCDK i124q features.
- Agent Management: View and control available agents
- Command Browser: Explore and execute commands
- Live Analytics: Real-time metrics visualization
- Memory Explorer: Browse persistent memory (planned)
- Session Control: Manage hive sessions
/webui-start
# Access at http://localhost:7000- List of all available agents
- Agent capabilities and specializations
- Invocation history
- Performance metrics
- Searchable command list
- Command documentation
- Execution interface
- Result visualization
- Real-time charts
- Performance metrics
- Usage patterns
- Error tracking
Web UI Stack
├── Frontend
│ ├── HTML/CSS/JavaScript
│ ├── Real-time WebSocket
│ └── Responsive Design
└── Backend
├── Express.js Server
├── SQLite Integration
└── Analytics API
SQLite-based memory system maintaining context across sessions and agents.
- Automatic Loading: Session start loads previous memory
- Automatic Saving: Session end persists current state
- Cross-Agent Sharing: Hive workers share memory
- Structured Storage: Organized by session and timestamp
-- Memory Table
CREATE TABLE memory (
id INTEGER PRIMARY KEY,
session_id TEXT,
timestamp DATETIME,
agent_name TEXT,
memory_type TEXT,
content TEXT,
metadata JSON
);
-- Session Table
CREATE TABLE sessions (
id TEXT PRIMARY KEY,
created_at DATETIME,
updated_at DATETIME,
status TEXT,
metadata JSON
);- Context Memory: Project understanding
- Task Memory: Current task state
- Decision Memory: Architectural choices
- Error Memory: Failure patterns
- Success Memory: Working solutions
// Automatic memory injection
// When session starts, previous context loads
// Memory available to all agents
// Architect's decisions inform Coder
// Tester's findings update Security
// Persistent across restarts
// Resume exactly where you left offAutomated continuous integration and deployment workflows triggered by development actions.
- GitHub Actions: Workflow automation
- Post-Edit Hook: Triggers on code changes
- Deployment Preview: Temporary environments
- MkDocs Integration: Documentation building
# .github/workflows/ccdk.yml
name: CCDK CI/CD
on:
push:
branches: [main, develop]
workflow_dispatch:
jobs:
test:
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v3
- name: Run Tests
run: npm test
deploy-preview:
needs: test
runs-on: ubuntu-latest
steps:
- name: Deploy Preview
run: ./scripts/deploy-preview.sh- On Code Edit:
postEdit-cihook - On PR Creation: Auto-reviewer agent
- On Command:
/deploy-preview - On Push: GitHub Actions
# Build documentation site
mkdocs build
# Serve locally
mkdocs serve
# Deploy to GitHub Pages
mkdocs gh-deploySophisticated coordination of multiple specialized AI agents working on different aspects of a task simultaneously.
/swarm-run "implement authentication"- Transient agent group
- Parallel execution
- Result aggregation
- Auto-cleanup
/hive-start "feature-development"- Persistent agent group
- Shared memory
- Coordinated execution
- Long-running tasks
Architect → Coder → Tester → Security
- Sequential processing
- Output chaining
- Quality gates
- Feedback loops
- Direct Messaging: Via shared memory
- Event Broadcasting: Through hooks
- State Sharing: SQLite database
- Result Aggregation: Queen coordinator
- Right-size the team: Don't over-orchestrate simple tasks
- Define clear boundaries: Each agent should have distinct responsibilities
- Monitor coordination: Use analytics to identify bottlenecks
- Iterate on patterns: Refine orchestration based on results
Hierarchical documentation structure minimizing maintenance while maximizing AI context effectiveness.
- Master AI context file
- Project-wide standards
- Core architectural decisions
- Integration patterns
- Component-level documentation
- Local patterns and conventions
- Component-specific context
- Interface definitions
- Feature-specific details
- Implementation notes
- Edge cases
- Testing considerations
// Every command automatically loads:
@/CLAUDE.md // Tier 1
@/docs/ai-context/project-structure.md // Project map
@/docs/ai-context/docs-overview.md // Doc routing
// Commands determine additional tiers:
// - Simple tasks: Tier 1 only
// - Component work: Tier 1 + 2
// - Feature work: All tiersThe docs-overview.md file acts as a router:
## Documentation Map
- Authentication → backend/auth/CONTEXT.md
- API Layer → backend/api/CONTEXT.md
- UI Components → frontend/components/CONTEXT.md- Update on change: Use
/update-docsimmediately - Document current state: Not plans or wishes
- Keep it DRY: Don't duplicate between tiers
- Use templates: Consistent structure across projects
Robust hook system ensuring graceful degradation and continued operation even when individual hooks fail.
// hook-wrapper.js
class HookWrapper {
async execute(hookFn, ...args) {
try {
return await hookFn(...args);
} catch (error) {
this.logError(error);
return this.gracefulFallback();
}
}
}- Isolation: Hook failures don't crash Claude Code
- Logging: All errors logged for debugging
- Fallback: Sensible defaults on failure
- Recovery: Automatic retry with backoff
- Monitoring: Track hook health via analytics
All hooks return standardized responses:
interface HookResponse {
status: 'success' | 'error' | 'warning';
message?: string;
data?: any;
error?: Error;
}# Run all hook tests
node .claude/hooks/test-runner.js
# Test individual hook
node .claude/hooks/test-runner.js session-start-load-memory
# Validate hook configuration
/hook-setup- Retry with backoff: Transient failures
- Circuit breaker: Repeated failures
- Fallback values: Missing data
- Skip and continue: Non-critical hooks
- Alert and disable: Critical failures
Dynamic model selection based on task requirements:
{
"task": "complex-architecture",
"model": "claude-opus-4",
"fallback": "gpt-4o"
}- Context compression
- Selective loading
- Summary generation
- Incremental updates
- Execution timing
- Memory usage
- Token consumption
- Cache hit rates
- API key scanning
- Secret detection
- Access control
- Audit logging
Features documentation maintained by Tyler Walker (@wtyler2505) & Claude