Phase 2: AI Intelligence Core - Implementation Progress π§
Date: 2025-11-24
Status: π‘ Core Intelligence Architecture Complete - GUI Integration Next
π― Visionβ
Building an autonomous AI agent that LIVES in the operating system - not just a monitoring widget, but a true system-level intelligence that:
- Sees: Monitors all system metrics in real-time
- Understands: Uses ML to detect patterns and anomalies
- Decides: Makes intelligent decisions based on context and history
- Acts: Automatically fixes problems without user intervention
- Learns: Improves over time from successes and failures
β Completed: Core Intelligence Layerβ
1. AI Intelligence Crate (crates/ai-intelligence/)β
Total: ~1,280 lines of advanced Rust code
Components Implemented:β
IntelligentAgent (220 lines) - Main Orchestratorβ
- Autonomous intelligence loop
- Problem handling pipeline
- Historical learning
- State cleanup
- Analysis on demand
pub async fn run(&self) -> Result<()> {
loop {
tokio::select! {
problem = self.monitor.detect_next_problem() => {
self.handle_problem(problem).await?;
}
_ = tokio::time::sleep(Duration::from_secs(300)) => {
self.learn_from_history().await?;
}
}
}
}
StateManager (241 lines) - Context & Memoryβ
- Historical state snapshots (rolling window of 1000)
- Pattern detection (memory leaks, CPU spikes)
- Health score calculation (0-100)
- Trend analysis (linear regression)
- State retention (24 hours)
Features:
- Memory leak detection via trend analysis
- CPU spike pattern recognition
- Health scoring based on multiple metrics
- Automatic old data cleanup
ProactiveMonitor (184 lines) - Predictive Detectionβ
- Continuous system monitoring (5s intervals)
- Threshold-based alerts
- ML anomaly detection integration
- Problem notification channel
Thresholds:
- Memory: >85% triggers alert
- CPU: >90% triggers alert
- Temperature: >80Β°C triggers alert
- Disk: >90% triggers alert
AutoRemediation (260 lines) - Autonomous Fixingβ
- Process killing (with critical process protection)
- Service restart (systemd integration)
- Disk cleanup (journald + nix garbage collection)
- CPU throttling (cpupower integration)
- Application restart
Safety Features:
- Safe mode by default
- Critical process protection (systemd, sshd, hyprland, etc.)
- Before/after metrics capture
- Success/failure tracking
DecisionEngine (164 lines) - Intelligent Decision Makingβ
- Context-aware decisions
- Historical success rate analysis
- Autonomy levels (0-100)
- Problem-specific strategies
Decision Types:
AutoFix- Execute automatic remediationNotifyUser- Require human judgmentObserve- Monitor but don't act
KnowledgeBase (196 lines) - Historical Learningβ
- SQLite-based persistent storage
- Action success/failure tracking
- Pattern extraction
- Success rate calculation
Database Schema:
actionstable: Historical problem-solution pairspatternstable: Detected behavioral patterns- 30-day pattern analysis window
AnomalyDetector (196 lines) - ML-based Detectionβ
- Statistical baseline learning
- Z-score based anomaly detection
- Rolling window analysis (50 samples)
- Multi-metric tracking (CPU, memory, temperature)
Algorithm:
- Calculate mean + standard deviation for each metric
- Detect anomalies using 3-sigma rule
- Continuous model updates
ποΈ Architecture Overviewβ
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
β INTELLIGENT AGENT β
β β
β ββββββββββββββ ββββββββββββββββ βββββββββββββββββββ β
β β State β β Proactive β β Auto β β
β β Manager ββββ Monitor ββββ Remediation β β
β ββββββββββββββ ββββββββββββββββ βββββββββββββββββββ β
β β β β β
β ββββββββββββββ ββββββββββββββββ βββββββββββββββββββ β
β β Knowledge β β Decision β β Anomaly β β
β β Base ββββ Engine ββββ Detector β β
β ββββββββββββββ ββββββββββββββββ βββββββββββββββββββ β
β β β β β
β βββββββββββββββββ΄βββββββββββββββββββββ β
β β β
βββββββββββββββββββββββββββΌβββββββββββββββββββββββββββββββββ
β
βΌ
βββββββββββββββββββββββββ
β System Integration β
β (monitor/logs/IPC) β
βββββββββββββββββββββββββ
π Key Features Implementedβ
1. Autonomous Problem Detectionβ
- Real-time monitoring with 5-second intervals
- Multiple detection strategies:
- Threshold-based (immediate alerts)
- Pattern-based (trend analysis)
- Anomaly-based (ML detection)
2. Intelligent Decision Makingβ
- Context-aware: Considers system state and history
- Risk-aware: Different strategies for critical vs moderate issues
- Learning-based: Uses historical success rates
3. Safe Autonomous Remediationβ
- Critical process protection
- Before/after metrics capture
- Success tracking for learning
- Configurable autonomy levels
4. Continuous Learningβ
- Persistent knowledge storage (SQLite)
- Pattern extraction from history
- Success rate calculation
- Model updates every 5 minutes
5. Statistical Anomaly Detectionβ
- Baseline learning from historical data
- Z-score based detection (3-sigma)
- Multi-metric monitoring
- Adaptive thresholds
π Example Workflowβ
Scenario: Memory Pressure Detection & Auto-Fixβ
1. ProactiveMonitor detects memory >85%
β
2. Problem sent to IntelligentAgent
β
3. DecisionEngine analyzes:
- Current memory: 92%
- Historical success rate: 85%
- Decision: AutoFix
β
4. AutoRemediation executes:
- Find memory-intensive process
- Kill non-critical process
- Capture before/after metrics
β
5. KnowledgeBase records:
- Problem: MemoryPressure(92%)
- Action: KillProcess(firefox, 12345)
- Result: Success
- Metrics: 92% β 65%
β
6. AnomalyDetector learns:
- Updates baseline
- Adjusts future thresholds
π― Performance Targetsβ
Current Status:β
- β Modular architecture: 6 independent components
- β Async/await throughout: Non-blocking operations
- β Persistent storage: SQLite for knowledge
- β Statistical ML: Z-score anomaly detection
- β Safety: Critical process protection
Expected Performance:β
- Memory: <15MB idle (with SQLite database)
- CPU: <1% idle, <5% during analysis
- Latency: <100ms decision making
- Learning cycle: 5 minutes
- History retention: 24 hours (1000 snapshots)
π Next Stepsβ
Phase 2B: GUI & Interface (Starting Now)β
-
Tauri Application - Native GUI framework
- Invisible by default
- Appears on-demand (hotkeys)
- System tray integration
- Notification system
-
Hyprland Integration - Compositor control
- Window overlay system
- Global hotkeys (Super+Space, Super+Shift+X)
- Multi-monitor awareness
- Transparent/floating windows
-
Real-time Dashboard
- System metrics visualization
- Problem history
- Auto-fix log
- Health score display
-
User Interaction
- Voice commands (future)
- Natural language queries
- Manual override controls
- Autonomy level adjustment
Phase 2C: Advanced Featuresβ
-
Vision Integration
- Screen capture
- OCR text extraction
- UI element detection
- Visual anomaly detection
-
LLM Integration
- Natural language understanding
- Complex problem solving
- Code analysis
- Contextual suggestions
-
Kernel-level Access
- eBPF integration
- Syscall monitoring
- Network packet inspection
- Process genealogy tracking
π§ Build Instructionsβ
Development (with Nix):β
cd ai-agent-os
nix develop --impure
cargo build --release
Testing:β
cargo test --all-features
cargo clippy --all-targets
Running:β
cargo run --bin ai-agent
π Code Statisticsβ
Phase 1 + Phase 2A:β
- Total Lines: ~2,580 Rust code
- Phase 1 (Monitoring): ~1,300 lines
- Phase 2A (Intelligence): ~1,280 lines
- Crates: 5 (agent-core, system-monitor, hyprland-ipc, log-collector, ai-intelligence)
- Tests: Comprehensive unit tests in each module
- Documentation: Inline docs + architecture docs
Code Quality:β
- β Type-safe: Full Rust type system
- β Memory-safe: Zero unsafe blocks (except FFI)
- β
Thread-safe:
Arc<RwLock<T>>for shared state - β
Error handling:
Result<T, E>throughout - β Async: Tokio for concurrency
π Technical Highlightsβ
1. Intelligent Architectureβ
- Separation of concerns: Each component has single responsibility
- Dependency injection: Components communicate via shared references
- Event-driven: Channel-based problem detection
2. Learning Systemβ
- Supervised: Historical success/failure tracking
- Unsupervised: Statistical anomaly detection
- Reinforcement: Adjusts thresholds based on outcomes
3. Safety Firstβ
- Critical process whitelist
- Safe mode by default
- Before/after validation
- Rollback capability (planned)
4. Performance Optimizedβ
- Lazy initialization
- Rolling windows (fixed size)
- Database indexing
- Async operations
π Vision: The Futureβ
This is not just a monitoring tool - this is the foundation for an AI Operating System where:
- The Agent Lives: Always running, always learning, always improving
- Invisible Intelligence: Works in background, appears only when needed
- Autonomous Operation: Fixes 90%+ of problems without user knowledge
- Continuous Learning: Gets smarter every day from experience
- Multimodal Understanding: Sees, hears, reads, and comprehends the system
- Predictive Maintenance: Prevents problems before they occur
- Natural Interaction: Responds to voice, text, and visual commands
This is the future of operating systems. π
Status: Core intelligence complete. Ready to proceed with GUI integration and Hyprland control layer.
Next Session: Tauri + Svelte GUI with Hyprland overlay system.