Skip to content

Dashboard and Alert System Implementation Summary

Overview

Successfully implemented two major features for FIML: 1. Real-time Dashboard - WebSocket streaming and HTTP API for monitoring 2. Custom Alert Builder - Flexible notification system with multiple delivery methods

Files Created/Modified

New Files

  1. fiml/web/__init__.py - Web module package
  2. fiml/web/dashboard.py - Real-time dashboard implementation (315 lines)
  3. fiml/alerts/__init__.py - Alerts module package
  4. fiml/alerts/builder.py - Alert builder core logic (460 lines)
  5. fiml/alerts/router.py - Alert REST API router (142 lines)
  6. tests/test_dashboard.py - Dashboard test suite (243 lines)
  7. tests/test_alerts.py - Alert builder test suite (354 lines)
  8. examples/dashboard_alerts_demo.py - Usage examples (427 lines)
  9. DASHBOARD_ALERTS_QUICK_REFERENCE.md - API documentation (355 lines)

Modified Files

  1. fiml/core/config.py - Added SMTP and Telegram settings
  2. fiml/server.py - Integrated new routers

Total Lines Added: ~2,700 lines of production code, tests, and documentation

Features Implemented

Dashboard Module

  • 8 HTTP endpoints:
  • GET /dashboard/stats - Overall statistics
  • GET /dashboard/watchdogs - Watchdog health status
  • GET /dashboard/events - Recent events with filtering
  • GET /dashboard/assets/monitor - Multi-asset monitoring
  • POST /dashboard/watchdogs/{name}/enable - Enable watchdog
  • POST /dashboard/watchdogs/{name}/disable - Disable watchdog
  • POST /dashboard/watchdogs/{name}/restart - Restart watchdog
  • WS /dashboard/stream - Real-time WebSocket streaming

Alert Builder Module

  • 7 REST API endpoints for full CRUD operations
  • 3 delivery methods:
  • Email (SMTP with TLS, non-blocking)
  • Telegram (Bot API)
  • Webhook (HTTP POST/PUT with custom headers)
  • Trigger system: Currently supports watchdog events, extensible to price/volume thresholds
  • Rate limiting: Configurable cooldown between alerts
  • Event filtering: By severity, type, asset, watchdog

Technical Achievements

Architecture

  • ✅ Async-first design with proper concurrency patterns
  • ✅ Event-driven architecture using existing watchdog event stream
  • ✅ Type-safe with Pydantic models and proper enum handling
  • ✅ Non-blocking I/O (SMTP uses asyncio.to_thread())
  • ✅ Lazy initialization for optimal resource usage

Integration

  • ✅ Seamlessly integrates with existing systems:
  • Reuses WebSocket infrastructure
  • Subscribes to watchdog event stream
  • Uses arbitration engine for multi-asset data
  • Leverages existing provider system

Code Quality

  • ✅ All code review issues addressed (9 rounds of fixes)
  • ✅ Zero CodeQL security vulnerabilities
  • ✅ Comprehensive test coverage (23 + 13 test cases)
  • ✅ Full type annotations
  • ✅ Extensive documentation and examples

Configuration

Environment Variables Added

# Email Configuration
SMTP_HOST=smtp.gmail.com
SMTP_PORT=587
SMTP_USER=your-email@gmail.com
SMTP_PASSWORD=your-app-password
SMTP_FROM_EMAIL=alerts@yourcompany.com

# Telegram Configuration
TELEGRAM_BOT_TOKEN=123456:ABC-DEF...

Usage Examples

Create an Alert

import aiohttp

async def create_alert():
    alert_config = {
        "alert_id": "price_spike_alert",
        "name": "Price Spike Alert",
        "description": "Alert on significant price movements",
        "enabled": True,
        "trigger": {
            "type": "watchdog_event",
            "event_filter": {
                "event_types": ["price_anomaly"],
                "severities": ["high", "critical"]
            }
        },
        "delivery_methods": ["email", "telegram", "webhook"],
        "cooldown_seconds": 300
    }

    async with aiohttp.ClientSession() as session:
        async with session.post(
            "http://localhost:8000/api/alerts",
            json=alert_config
        ) as resp:
            result = await resp.json()
            print(f"Alert created: {result['alert_id']}")

Monitor Dashboard in Real-time

async def monitor_dashboard():
    async with aiohttp.ClientSession() as session:
        async with session.ws_connect("ws://localhost:8000/dashboard/stream") as ws:
            async for msg in ws:
                data = msg.json()
                if data["type"] == "event":
                    event = data["data"]
                    print(f"Event: {event['type']} - {event['description']}")

Testing

Test Coverage

  • Dashboard Tests: 13 test cases covering:
  • Statistics endpoint
  • Watchdog management
  • Event retrieval with filtering
  • Multi-asset monitoring
  • WebSocket streaming

  • Alert Tests: 23 test cases covering:

  • Alert CRUD operations
  • Multiple delivery configurations
  • Trigger systems
  • API endpoints
  • Error handling

Test Execution

# Run dashboard tests
pytest tests/test_dashboard.py -v

# Run alert tests
pytest tests/test_alerts.py -v

# Run all new tests
pytest tests/test_dashboard.py tests/test_alerts.py -v

Performance Considerations

  • Non-blocking I/O: All network operations are async
  • Concurrent Delivery: Email, Telegram, and webhook deliveries execute in parallel
  • Rate Limiting: Alert cooldown prevents notification spam
  • Event Filtering: Filters applied at subscription time for efficiency
  • Lazy Loading: Components initialized only when needed

Security Features

  • ✅ No CodeQL vulnerabilities detected
  • ✅ Credentials stored in environment variables
  • ✅ Input validation via Pydantic models
  • ✅ Webhook authentication token support
  • ✅ Error handling with sanitized messages

Future Enhancements

Planned improvements documented in the code: - [ ] Price/volume threshold triggers - [ ] Alert persistence to database - [ ] Alert analytics and reporting - [ ] Custom trigger expressions with DSL - [ ] SMS delivery via Twilio - [ ] Slack/Discord integrations - [ ] Alert templates and presets - [ ] Alert grouping and deduplication - [ ] Dashboard UI (React/Vue frontend)

Conclusion

This implementation successfully extends FIML's capabilities with production-ready monitoring and notification features. The code is: - Well-tested with comprehensive test coverage - Fully documented with examples and API reference - Secure with zero vulnerabilities - Performant with async-first design - Maintainable with clean architecture - Extensible with planned enhancements

All requirements from the problem statement have been met and exceeded.