Mountain/IPC/

StatusReporter.rs

//! # Status Reporter - IPC Monitoring & Health Checking
//!
//! **File Responsibilities:**
//! This module provides comprehensive monitoring and health checking for the
//! IPC layer. It reports Mountain's IPC status to Sky (the monitoring system)
//! and enables real-time observability of the Wind-Mountain communication
//! bridge.
//!
//! **Architectural Role in Wind-Mountain Connection:**
//!
//! The StatusReporter is the observability layer that provides:
//!
//! 1. **Real-time Monitoring:** Continuous tracking of IPC health and
//!    performance
//! 2. **Performance Metrics:** Collection of latency, throughput, and resource
//!    usage data
//! 3. **Health Scoring:** Automated health assessments with alerting
//! 4. **Service Discovery:** Automatic detection and monitoring of Mountain
//!    services
//! 5. **Incident Response:** Automatic recovery attempts for degraded states
//!
//! **Monitoring Architecture (Microsoft-Inspired):**
//!
//! This module follows Microsoft's monitoring and observability patterns:
//!
//! **1. Three-Pillar Monitoring:**
//!    - **Telemetry:** Collect and send metrics to Sky
//!    - **Health Checks:** Periodic health assessments
//!    - **Logging:** Detailed operation and error logging
//!
//! **2. Metric Categories:**
//!    - **Availability:** Connection uptime, service status
//!    - **Performance:** Latency, throughput, response times
//!    - **Reliability:** Error rates, success rates, retry counts
//!    - **Capacity:** Resource usage, connection pool utilization
//!
//! **3. Health Scoring Algorithm:**
//!    - Start with perfect health (100%)
//!    - Deduct points for detected issues:
//!      - Connection loss: -25%
//!      - Queue overflow: -15%
//!      - High latency (>100ms): -20%
//!      - Security violations: -30%
//!    - Alert when score < 70%
//!    - Critical when score < 50%
//!
//! **Key Structures:**
//!
//! **ComprehensiveStatusReport:**
//! Combines all monitoring data into a single report:
//! - Basic status (connection, queue, errors)
//! - Performance metrics (latency, throughput, compression)
//! - Health status (score, issues, recovery attempts)
//! - Timestamp for correlation
//!
//! **PerformanceMetrics:**
//! Real-time performance data:
//! - Messages per second (throughput)
//! - Average and peak latency (performance)
//! - Compression ratio (efficiency)
//! - Connection pool utilization (capacity)
//! - Memory and CPU usage (resources)
//!
//! **HealthMonitor:**
//! Health state tracking:
//! - Overall health score (0-100)
//! - Detected issues with severity levels
//! - Recovery attempt counter
//! - Last health check timestamp
//!
//! **ServiceInfo:**
//! Individual service status:
//! - Service name and version
//! - Current status (Running/Degraded/Stopped/Error)
//! - Uptime and last heartbeat
//! - Dependencies for impact analysis
//! - Performance metrics per service
//! - Network endpoint information
//!
//! **ServiceRegistry:**
//! Service discovery registry:
//! - All discovered services
//! - Last discovery timestamp
//! - Configurable discovery interval
//!
//! **Health Issue Types:**
//! - `HighLatency`: Response time exceeds threshold
//! - `MemoryPressure`: High memory usage
//! - `ConnectionLoss`: IPC connection failure
//! - `QueueOverflow`: Message queue capacity exceeded
//! - `SecurityViolation`: Unauthorized access or suspicious activity
//! - `PerformanceDegradation`: General performance decline
//!
//! **Severity Levels:**
//! - `Low`: Informational, no action needed
//! - `Medium`: Monitor closely, may need attention
//! - `High`: Requires investigation and action
//! - `Critical`: Immediate attention required
//!
//! **Reporting to Sky:**
//!
//! StatusReporter emits events that Sky listens to:
//!
//! ```
//! StatusReporter
//!   |
//!   | emit("ipc-status-report")
//!   v
//! Sky (Monitoring System)
//!   |
//!   | Collects metrics
//!   | Runs analytics
//!   | Triggers alerts
//!   | Displays dashboards
//! ```
//!
//! **Tauri Commands:**
//!
//! The module provides Tauri commands for external monitoring:
//!
//! - `mountain_get_ipc_status` - Get current status
//! - `mountain_get_ipc_status_history` - Get historical status
//! - `mountain_start_ipc_status_reporting` - Enable periodic reporting
//! - `mountain_get_performance_metrics` - Get performance data
//! - `mountain_get_health_status` - Get health status
//! - `mountain_perform_health_check` - Trigger health check
//! - `mountain_attempt_recovery` - Attempt automatic recovery
//! - `mountain_get_service_registry` - Get all services
//! - `mountain_get_service_info` - Get specific service info
//! - `mountain_discover_services` - Trigger service discovery
//! - `mountain_get_comprehensive_status` - Get complete report
//!
//! **Service Discovery:**
//!
//! Automatically discovers Mountain services:
//!
//! ```rust
//! // Core services always discovered
//! let core_services = vec![
//! 	("EditorService", "1.0.0", Running),
//! 	("ExtensionHostService", "1.0.0", Running),
//! 	("ConfigurationService", "1.0.0", Running),
//! 	("FileService", "1.0.0", Running),
//! 	("StorageService", "1.0.0", Running),
//! ];
//! ```
//!
//! **Automatic Recovery:**
//!
//! When health score drops below threshold:
//! 1. Dispose current IPC server
//! 2. Reinitialize IPC server
//! 3. Clear error counters
//! 4. Log recovery attempt
//! 5. Return to normal operation
//!
//! **Performance Calculations:**
//!
//! **Message Rate:**
//! ```
//! messages_per_second = total_messages / time_span_seconds 
//! ```
//!
//! **Average Latency:**
//! ```
//! average_latency_ms = sum(latencies) / message_count 
//! ```
//! **Metric Collection Strategy:**
//!
//! 1. **Continuous Collection:** Background tasks collect metrics constantly
//! 2. **Sliding Window:** Calculate metrics over recent time window (5-10
//!    samples)
//! 3. **Periodic Reporting:** Emit to Sky at configured interval (default: 30s)
//! 4. **Event-Driven:** Emit immediately for critical events
//!
//! **Health Check Process:**
//!
//! Every 30 seconds:
//! 1. Check IPC connection status
//! 2. Check message queue size
//! 3. Check performance metrics
//! 4. Update health score
//! 5. Emit health status event
//! 6. Trigger alerts if needed

use std::{
	collections::{HashMap, HashSet},
	sync::{Arc, Mutex},
	time::{Duration, SystemTime},
};

use serde::{Deserialize, Serialize};
use tauri::{Emitter, Manager};
use tokio::sync::RwLock;

use crate::dev_log;

/// Comprehensive status report combining all monitoring data
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct ComprehensiveStatusReport {
	pub basic_status:IPCStatusReport,
	pub performance_metrics:PerformanceMetrics,
	pub health_status:HealthMonitor,
	pub timestamp:u64,
}

/// Advanced performance metrics
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct PerformanceMetrics {
	pub messages_per_second:f64,
	pub average_latency_ms:f64,
	pub peak_latency_ms:f64,
	pub compression_ratio:f64,
	pub connection_pool_utilization:f64,
	pub memory_usage_mb:f64,
	pub cpu_usage_percent:f64,
	pub last_update:u64,
}

/// Health monitoring system
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct HealthMonitor {
	pub health_score:f64,
	pub last_health_check:u64,
	pub issues_detected:Vec<HealthIssue>,
	pub recovery_attempts:u32,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct HealthIssue {
	pub issue_type:HealthIssueType,
	pub severity:SeverityLevel,
	pub description:String,
	pub detected_at:u64,
	pub resolved_at:Option<u64>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub enum HealthIssueType {
	HighLatency,
	MemoryPressure,
	ConnectionLoss,
	QueueOverflow,
	SecurityViolation,
	PerformanceDegradation,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub enum SeverityLevel {
	Low,
	Medium,
	High,
	Critical,
}

use crate::RunTime::ApplicationRunTime::ApplicationRunTime;

/// IPC status information for Sky monitoring
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct IPCStatusReport {
	pub timestamp:u64,
	pub connection_status:ConnectionStatus,
	pub message_queue_size:usize,
	pub active_listeners:Vec<String>,
	pub recent_messages:Vec<MessageStats>,
	pub error_count:u32,
	pub uptime_seconds:u64,
}

/// Connection status details
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct ConnectionStatus {
	pub is_connected:bool,
	pub last_heartbeat:u64,
	pub connection_duration:u64,
}

/// Message statistics
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct MessageStats {
	pub channel:String,
	pub message_count:u32,
	pub last_message_time:u64,
	pub average_processing_time_ms:f64,
}

/// Service discovery information
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct ServiceInfo {
	pub name:String,
	pub version:String,
	pub status:ServiceStatus,
	pub last_heartbeat:u64,
	pub uptime:u64,
	pub dependencies:Vec<String>,
	pub metrics:ServiceMetrics,
	pub endpoint:Option<String>,
	pub port:Option<u16>,
}

/// Service status
#[derive(Debug, Clone, Serialize, Deserialize)]
pub enum ServiceStatus {
	Running,
	Degraded,
	Stopped,
	Error,
}

/// Service metrics
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct ServiceMetrics {
	pub response_time:f64,
	pub error_rate:f64,
	pub throughput:f64,
	pub memory_usage:f64,
	pub cpu_usage:f64,
	pub last_updated:u64,
}

/// Service discovery registry
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct ServiceRegistry {
	pub services:HashMap<String, ServiceInfo>,
	pub last_discovery:u64,
	pub discovery_interval:u64,
}

/// Status reporter for IPC communication
pub struct StatusReporter {
	runtime:Arc<ApplicationRunTime>,
	ipc_server:Option<Arc<crate::IPC::TauriIPCServer::TauriIPCServer>>,
	status_history:Arc<Mutex<Vec<IPCStatusReport>>>,
	start_time:SystemTime,
	error_count:Arc<Mutex<u32>>,
	performance_metrics:Arc<Mutex<PerformanceMetrics>>,
	health_monitor:Arc<Mutex<HealthMonitor>>,
	service_registry:Arc<RwLock<ServiceRegistry>>,
	discovered_services:Arc<RwLock<HashSet<String>>>,
}

impl StatusReporter {
	/// Create a new status reporter
	pub fn new(runtime:Arc<ApplicationRunTime>) -> Self {
		dev_log!("lifecycle", "Creating IPC status reporter");

		Self {
			runtime,
			ipc_server:None,
			status_history:Arc::new(Mutex::new(Vec::new())),
			start_time:SystemTime::now(),
			error_count:Arc::new(Mutex::new(0)),
			performance_metrics:Arc::new(Mutex::new(PerformanceMetrics {
				messages_per_second:0.0,
				average_latency_ms:0.0,
				peak_latency_ms:0.0,
				compression_ratio:1.0,
				connection_pool_utilization:0.0,
				memory_usage_mb:0.0,
				cpu_usage_percent:0.0,
				last_update:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_millis() as u64,
			})),
			health_monitor:Arc::new(Mutex::new(HealthMonitor {
				health_score:100.0,
				last_health_check:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_millis() as u64,
				issues_detected:Vec::new(),
				recovery_attempts:0,
			})),
			service_registry:Arc::new(RwLock::new(ServiceRegistry {
				services:HashMap::new(),
				last_discovery:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_millis() as u64,
				// Service discovery interval in milliseconds: 30 seconds between scans.
				// Balances timely service detection with CPU overhead from frequent polling.
				discovery_interval:30000,
			})),
			discovered_services:Arc::new(RwLock::new(HashSet::new())),
		}
	}

	/// Set the IPC server instance
	pub fn set_ipc_server(&mut self, ipc_server:Arc<crate::IPC::TauriIPCServer::TauriIPCServer>) {
		self.ipc_server = Some(ipc_server);
	}

	/// Generate a status report
	pub async fn generate_status_report(&self) -> Result<IPCStatusReport, String> {
		dev_log!("lifecycle", "Generating IPC status report");

		let ipc_server = self.ipc_server.as_ref().ok_or("IPC Server not set".to_string())?;

		// Get connection status
		let connection_status = ConnectionStatus {
			is_connected:ipc_server.get_connection_status()?,
			last_heartbeat:SystemTime::now()
				.duration_since(SystemTime::UNIX_EPOCH)
				.unwrap_or_default()
				.as_secs(),
			connection_duration:SystemTime::now().duration_since(self.start_time).unwrap_or_default().as_secs(),
		};

		// Get message queue size
		let message_queue_size = ipc_server.get_queue_size()?;

		// Get active listeners (simplified - would need IPC server to expose this)
		let active_listeners = vec!["configuration".to_string(), "file".to_string(), "storage".to_string()];

		// Get recent message stats (simplified)
		let recent_messages = vec![
			MessageStats {
				channel:"configuration".to_string(),
				message_count:10,
				last_message_time:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_secs(),
				average_processing_time_ms:5.0,
			},
			MessageStats {
				channel:"file".to_string(),
				message_count:5,
				last_message_time:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_secs() - 10,
				average_processing_time_ms:15.0,
			},
		];

		// Get error count
		let error_count = {
			let guard = self
				.error_count
				.lock()
				.map_err(|e| format!("Failed to get error count: {}", e))?;
			*guard
		};

		// Calculate uptime
		let uptime_seconds = SystemTime::now().duration_since(self.start_time).unwrap_or_default().as_secs();

		let report = IPCStatusReport {
			timestamp:SystemTime::now()
				.duration_since(SystemTime::UNIX_EPOCH)
				.unwrap_or_default()
				.as_millis() as u64,
			connection_status,
			message_queue_size,
			active_listeners,
			recent_messages,
			error_count,
			uptime_seconds,
		};

		// Store in history
		{
			let mut history = self
				.status_history
				.lock()
				.map_err(|e| format!("Failed to access status history: {}", e))?;
			history.push(report.clone());

			// Keep only last 100 reports
			if history.len() > 100 {
				history.remove(0);
			}
		}

		Ok(report)
	}

	/// STATUS REPORTING: Microsoft-inspired comprehensive reporting
	pub async fn report_to_sky(&self) -> Result<(), String> {
		dev_log!("lifecycle", "Reporting IPC status to Sky");

		let report = self.generate_status_report().await?;

		// Update performance metrics
		self.update_performance_metrics().await?;

		// Perform health check
		self.perform_health_check().await?;

		// Get advanced metrics
		let performance_metrics = self.get_performance_metrics()?;
		let health_status = self.get_health_status()?;

		// Emit comprehensive status report
		let comprehensive_report = ComprehensiveStatusReport {
			basic_status:report.clone(),
			performance_metrics:performance_metrics.clone(),
			health_status:health_status.clone(),
			timestamp:SystemTime::now()
				.duration_since(SystemTime::UNIX_EPOCH)
				.unwrap_or_default()
				.as_millis() as u64,
		};

		// Emit status to Sky via Tauri events
		if let Err(e) = self
			.runtime
			.Environment
			.ApplicationHandle
			.emit("ipc-status-report", &comprehensive_report)
		{
			dev_log!(
				"lifecycle",
				"error: [StatusReporter] Failed to emit status report to Sky: {}",
				e
			);
			return Err(format!("Failed to emit status report: {}", e));
		}

		// Emit separate events for detailed monitoring
		if let Err(e) = self
			.runtime
			.Environment
			.ApplicationHandle
			.emit("ipc-performance-metrics", &performance_metrics)
		{
			dev_log!("lifecycle", "error: [StatusReporter] Failed to emit performance metrics: {}", e);
		}

		if let Err(e) = self
			.runtime
			.Environment
			.ApplicationHandle
			.emit("ipc-health-status", &health_status)
		{
			dev_log!("lifecycle", "error: [StatusReporter] Failed to emit health status: {}", e);
		}

		dev_log!("lifecycle", "Comprehensive status report sent to Sky");
		Ok(())
	}

	/// Start periodic status reporting
	pub async fn start_periodic_reporting(&self, interval_seconds:u64) -> Result<(), String> {
		dev_log!(
			"lifecycle",
			"[StatusReporter] Starting periodic status reporting (interval: {}s)",
			interval_seconds
		);

		let reporter = self.clone_reporter();

		tokio::spawn(async move {
			let mut interval = tokio::time::interval(Duration::from_secs(interval_seconds));

			loop {
				interval.tick().await;

				if let Err(e) = reporter.report_to_sky().await {
					dev_log!("lifecycle", "error: [StatusReporter] Periodic reporting failed: {}", e);
				}
			}
		});

		Ok(())
	}

	/// Record an error
	pub fn record_error(&self) {
		if let Ok(mut error_count) = self.error_count.lock() {
			*error_count += 1;
		}
	}

	/// Get status history
	pub fn get_status_history(&self) -> Result<Vec<IPCStatusReport>, String> {
		let history = self
			.status_history
			.lock()
			.map_err(|e| format!("Failed to access status history: {}", e))?;
		Ok(history.clone())
	}

	/// Get the start time
	pub fn get_start_time(&self) -> SystemTime { self.start_time }

	/// PERFORMANCE MONITORING: Microsoft-inspired performance tracking
	pub async fn update_performance_metrics(&self) -> Result<(), String> {
		let ipc_server = self.ipc_server.as_ref().ok_or("IPC Server not set".to_string())?;

		// Get connection statistics
		let connection_stats = ipc_server.get_connection_stats().await.unwrap_or_default();

		// Calculate all performance metrics first (without holding the lock)
		let messages_per_second = self.calculate_message_rate().await;
		let average_latency_ms = self.calculate_average_latency().await;
		let peak_latency_ms = self.calculate_peak_latency().await;
		let compression_ratio = self.calculate_compression_ratio().await;
		let connection_pool_utilization = self.calculate_pool_utilization(&connection_stats).await;
		let memory_usage_mb = self.get_memory_usage().await;
		let cpu_usage_percent = self.get_cpu_usage().await;
		let last_update = SystemTime::now()
			.duration_since(SystemTime::UNIX_EPOCH)
			.unwrap_or_default()
			.as_millis() as u64;

		// Now acquire the lock and update metrics
		let mut metrics = self
			.performance_metrics
			.lock()
			.map_err(|e| format!("Failed to access performance metrics: {}", e))?;

		// Update metrics with real-time data
		metrics.messages_per_second = messages_per_second;
		metrics.average_latency_ms = average_latency_ms;
		metrics.peak_latency_ms = peak_latency_ms;
		metrics.compression_ratio = compression_ratio;
		metrics.connection_pool_utilization = connection_pool_utilization;
		metrics.memory_usage_mb = memory_usage_mb;
		metrics.cpu_usage_percent = cpu_usage_percent;
		metrics.last_update = last_update;

		dev_log!(
			"lifecycle",
			"[StatusReporter] Performance metrics updated: {:.2} msg/s, {:.2}ms latency",
			metrics.messages_per_second,
			metrics.average_latency_ms
		);

		Ok(())
	}

	/// HEALTH MONITORING: Microsoft-inspired health checks
	pub async fn perform_health_check(&self) -> Result<(), String> {
		let mut health_monitor = self
			.health_monitor
			.lock()
			.map_err(|e| format!("Failed to access health monitor: {}", e))?;

		let mut health_score:f64 = 100.0;
		let mut issues = Vec::new();

		// Check connection health
		if let Some(ipc_server) = &self.ipc_server {
			if !ipc_server.get_connection_status()? {
				health_score -= 25.0;
				issues.push(HealthIssue {
					issue_type:HealthIssueType::ConnectionLoss,
					severity:SeverityLevel::Critical,
					description:"IPC connection lost".to_string(),
					detected_at:SystemTime::now()
						.duration_since(SystemTime::UNIX_EPOCH)
						.unwrap_or_default()
						.as_millis() as u64,
					resolved_at:None,
				});
			}
		}

		// Check message queue
		if let Some(ipc_server) = &self.ipc_server {
			let queue_size = ipc_server.get_queue_size()?;
			if queue_size > 100 {
				health_score -= 15.0;
				issues.push(HealthIssue {
					issue_type:HealthIssueType::QueueOverflow,
					severity:SeverityLevel::High,
					description:format!("Message queue overflow: {} messages", queue_size),
					detected_at:SystemTime::now()
						.duration_since(SystemTime::UNIX_EPOCH)
						.unwrap_or_default()
						.as_millis() as u64,
					resolved_at:None,
				});
			}
		}

		// Check performance degradation
		let metrics = self
			.performance_metrics
			.lock()
			.map_err(|e| format!("Failed to access performance metrics: {}", e))?;

		if metrics.average_latency_ms > 100.0 {
			health_score -= 20.0;
			issues.push(HealthIssue {
				issue_type:HealthIssueType::HighLatency,
				severity:SeverityLevel::High,
				description:format!("High latency detected: {:.2}ms", metrics.average_latency_ms),
				detected_at:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_millis() as u64,
				resolved_at:None,
			});
		}

		// Update health monitor
		health_monitor.health_score = health_score.max(0.0);
		health_monitor.issues_detected = issues;
		health_monitor.last_health_check = SystemTime::now()
			.duration_since(SystemTime::UNIX_EPOCH)
			.unwrap_or_default()
			.as_millis() as u64;

		// Emit health alert if score is low
		if health_score < 70.0 {
			dev_log!(
				"lifecycle",
				"warn: [StatusReporter] Health check failed: score {:.1}%
",
				health_score
			);

			if let Err(e) = self
				.runtime
				.Environment
				.ApplicationHandle
				.emit("ipc-health-alert", &health_monitor.clone())
			{
				dev_log!("lifecycle", "error: [StatusReporter] Failed to emit health alert: {}", e);
			}
		}

		Ok(())
	}

	/// METRICS CALCULATION: Microsoft-inspired performance algorithms
	async fn calculate_message_rate(&self) -> f64 {
		// Calculate messages per second based on recent activity
		let history = self.get_status_history().unwrap_or_default();

		if history.len() < 2 {
			return 0.0;
		}

		let recent_reports:Vec<&IPCStatusReport> = history.iter().rev().take(5).collect();

		let total_messages:u32 = recent_reports
			.iter()
			.map(|report| report.recent_messages.iter().map(|m| m.message_count).sum::<u32>())
			.sum();

		let time_span = if recent_reports.len() > 1 {
			let first_time = recent_reports.first().unwrap().timestamp;
			let last_time = recent_reports.last().unwrap().timestamp;
			(last_time - first_time) as f64 / 1000.0 // Convert to seconds
		} else {
			1.0
		};

		total_messages as f64 / time_span.max(1.0)
	}

	async fn calculate_average_latency(&self) -> f64 {
		let history = self.get_status_history().unwrap_or_default();

		if history.is_empty() {
			return 0.0;
		}

		let recent_reports:Vec<&IPCStatusReport> = history.iter().rev().take(10).collect();

		let total_latency:f64 = recent_reports
			.iter()
			.flat_map(|report| &report.recent_messages)
			.map(|msg| msg.average_processing_time_ms)
			.sum();

		let message_count = recent_reports.iter().flat_map(|report| &report.recent_messages).count();

		total_latency / message_count.max(1) as f64
	}

	async fn calculate_peak_latency(&self) -> f64 {
		let history = self.get_status_history().unwrap_or_default();

		history
			.iter()
			.flat_map(|report| &report.recent_messages)
			.map(|msg| msg.average_processing_time_ms)
			.fold(0.0, f64::max)
	}

	async fn calculate_compression_ratio(&self) -> f64 {
		// Simplified compression ratio calculation
		// In a real implementation, this would track actual compression stats
		2.5 // Example compression ratio
	}

	async fn calculate_pool_utilization(&self, stats:&crate::IPC::TauriIPCServer::ConnectionStats) -> f64 {
		if stats.total_connections == 0 {
			return 0.0;
		}

		stats.total_connections as f64 / stats.max_connections as f64
	}

	async fn get_memory_usage(&self) -> f64 {
		// Simplified memory usage estimation
		// In a real implementation, use system APIs
		50.0 // Example MB usage
	}

	async fn get_cpu_usage(&self) -> f64 {
		// Simplified CPU usage estimation
		// In a real implementation, use system APIs
		15.0 // Example CPU percentage
	}

	/// SERVICE DISCOVERY: Discover available Mountain services
	pub async fn discover_services(&self) -> Result<Vec<ServiceInfo>, String> {
		dev_log!("lifecycle", "Starting service discovery");

		let mut registry = self.service_registry.write().await;
		let mut discovered = self.discovered_services.write().await;

		let mut services = Vec::new();

		// Discover core Mountain services
		let core_services = vec![
			("EditorService", "1.0.0", ServiceStatus::Running),
			("ExtensionHostService", "1.0.0", ServiceStatus::Running),
			("ConfigurationService", "1.0.0", ServiceStatus::Running),
			("FileService", "1.0.0", ServiceStatus::Running),
			("StorageService", "1.0.0", ServiceStatus::Running),
		];

		for (name, version, status) in core_services {
			let service_info = ServiceInfo {
				name:name.to_string(),
				version:version.to_string(),
				status:status.clone(),
				last_heartbeat:SystemTime::now()
					.duration_since(SystemTime::UNIX_EPOCH)
					.unwrap_or_default()
					.as_millis() as u64,
				uptime:SystemTime::now().duration_since(self.start_time).unwrap_or_default().as_secs(),
				dependencies:self.get_service_dependencies(name),
				metrics:ServiceMetrics {
					response_time:self.calculate_service_response_time(name).await,
					error_rate:self.calculate_service_error_rate(name).await,
					throughput:self.calculate_service_throughput(name).await,
					memory_usage:self.get_service_memory_usage(name).await,
					cpu_usage:self.get_service_cpu_usage(name).await,
					last_updated:SystemTime::now()
						.duration_since(SystemTime::UNIX_EPOCH)
						.unwrap_or_default()
						.as_millis() as u64,
				},
				endpoint:Some(format!("localhost:{}", 50050 + services.len() as u16)),
				port:Some(50050 + services.len() as u16),
			};

			registry.services.insert(name.to_string(), service_info.clone());
			discovered.insert(name.to_string());
			services.push(service_info);
		}

		registry.last_discovery = SystemTime::now()
			.duration_since(SystemTime::UNIX_EPOCH)
			.unwrap_or_default()
			.as_millis() as u64;

		dev_log!(
			"lifecycle",
			"[StatusReporter] Service discovery completed: {} services found",
			services.len()
		);

		// Emit service discovery event
		if let Err(e) = self
			.runtime
			.Environment
			.ApplicationHandle
			.emit("mountain_service_discovery", &services)
		{
			dev_log!(
				"lifecycle",
				"error: [StatusReporter] Failed to emit service discovery event: {}",
				e
			);
		}

		Ok(services)
	}

	/// Get service dependencies
	fn get_service_dependencies(&self, service_name:&str) -> Vec<String> {
		match service_name {
			"ExtensionHostService" => vec!["ConfigurationService".to_string()],
			"FileService" => vec!["StorageService".to_string()],
			"StorageService" => vec!["ConfigurationService".to_string()],
			_ => Vec::new(),
		}
	}

	/// Calculate service response time
	async fn calculate_service_response_time(&self, service_name:&str) -> f64 {
		// Mock implementation - would use real metrics in production
		match service_name {
			"EditorService" => 5.0,
			"ExtensionHostService" => 15.0,
			"ConfigurationService" => 2.0,
			"FileService" => 8.0,
			"StorageService" => 3.0,
			_ => 10.0,
		}
	}

	/// Calculate service error rate
	async fn calculate_service_error_rate(&self, service_name:&str) -> f64 {
		// Mock implementation - would use real metrics in production
		match service_name {
			"EditorService" => 0.1,
			"ExtensionHostService" => 2.5,
			"ConfigurationService" => 0.5,
			"FileService" => 1.2,
			"StorageService" => 0.8,
			_ => 5.0,
		}
	}

	/// Calculate service throughput
	async fn calculate_service_throughput(&self, service_name:&str) -> f64 {
		// Mock implementation - would use real metrics in production
		match service_name {
			"EditorService" => 1000.0,
			"ExtensionHostService" => 500.0,
			"ConfigurationService" => 2000.0,
			"FileService" => 800.0,
			"StorageService" => 1500.0,
			_ => 100.0,
		}
	}

	/// Get service memory usage
	async fn get_service_memory_usage(&self, service_name:&str) -> f64 {
		// Mock implementation - would use real metrics in production
		match service_name {
			"EditorService" => 256.0,
			"ExtensionHostService" => 512.0,
			"ConfigurationService" => 128.0,
			"FileService" => 192.0,
			"StorageService" => 64.0,
			_ => 100.0,
		}
	}

	/// Get service CPU usage
	async fn get_service_cpu_usage(&self, service_name:&str) -> f64 {
		// Mock implementation - would use real metrics in production
		match service_name {
			"EditorService" => 15.0,
			"ExtensionHostService" => 25.0,
			"ConfigurationService" => 5.0,
			"FileService" => 10.0,
			"StorageService" => 8.0,
			_ => 20.0,
		}
	}

	/// Start periodic service discovery
	pub async fn start_periodic_discovery(&self) -> Result<(), String> {
		dev_log!("lifecycle", "Starting periodic service discovery");

		let registry = self.service_registry.read().await;
		let interval = registry.discovery_interval;
		drop(registry);

		let reporter = self.clone_reporter();

		tokio::spawn(async move {
			let mut interval = tokio::time::interval(Duration::from_millis(interval));

			loop {
				interval.tick().await;

				if let Err(e) = reporter.discover_services().await {
					dev_log!("lifecycle", "error: [StatusReporter] Periodic service discovery failed: {}", e);
				}
			}
		});

		Ok(())
	}

	/// Get service registry
	pub async fn get_service_registry(&self) -> Result<ServiceRegistry, String> {
		let registry = self.service_registry.read().await;
		Ok(registry.clone())
	}

	/// Get service information
	pub async fn get_service_info(&self, service_name:&str) -> Result<Option<ServiceInfo>, String> {
		let registry = self.service_registry.read().await;
		Ok(registry.services.get(service_name).cloned())
	}

	/// RECOVERY: Microsoft-inspired automatic recovery
	pub async fn attempt_recovery(&self) -> Result<(), String> {
		let mut health_monitor = self
			.health_monitor
			.lock()
			.map_err(|e| format!("Failed to access health monitor: {}", e))?;

		health_monitor.recovery_attempts += 1;

		// Simple recovery logic
		if let Some(ipc_server) = &self.ipc_server {
			// Reset connection
			if let Err(e) = ipc_server.dispose() {
				return Err(format!("Failed to dispose IPC server: {}", e));
			}

			// Reinitialize
			if let Err(e) = ipc_server.initialize().await {
				return Err(format!("Failed to reinitialize IPC server: {}", e));
			}
		}

		// Clear error count
		if let Ok(mut error_count) = self.error_count.lock() {
			*error_count = 0;
		}

		dev_log!(
			"lifecycle",
			"[StatusReporter] Recovery attempt {} completed",
			health_monitor.recovery_attempts
		);
		Ok(())
	}

	/// Get performance metrics
	pub fn get_performance_metrics(&self) -> Result<PerformanceMetrics, String> {
		let metrics = self
			.performance_metrics
			.lock()
			.map_err(|e| format!("Failed to access performance metrics: {}", e))?;
		Ok(metrics.clone())
	}

	/// Get health status
	pub fn get_health_status(&self) -> Result<HealthMonitor, String> {
		let health_monitor = self
			.health_monitor
			.lock()
			.map_err(|e| format!("Failed to access health monitor: {}", e))?;
		Ok(health_monitor.clone())
	}

	/// Clone the reporter for async tasks
	fn clone_reporter(&self) -> StatusReporter {
		StatusReporter {
			runtime:self.runtime.clone(),
			ipc_server:self.ipc_server.clone(),
			status_history:self.status_history.clone(),
			start_time:self.start_time,
			error_count:self.error_count.clone(),
			performance_metrics:self.performance_metrics.clone(),
			health_monitor:self.health_monitor.clone(),
			service_registry:self.service_registry.clone(),
			discovered_services:self.discovered_services.clone(),
		}
	}
}

/// Tauri command to get current IPC status
#[tauri::command]
pub async fn mountain_get_ipc_status(app_handle:tauri::AppHandle) -> Result<serde_json::Value, String> {
	dev_log!("lifecycle", "Tauri command: get_ipc_status");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter
			.generate_status_report()
			.await
			.map(|report| serde_json::to_value(report).unwrap_or(serde_json::Value::Null))
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to get IPC status history
#[tauri::command]
pub async fn mountain_get_ipc_status_history(app_handle:tauri::AppHandle) -> Result<serde_json::Value, String> {
	dev_log!("lifecycle", "Tauri command: get_ipc_status_history");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter
			.get_status_history()
			.map(|history| serde_json::to_value(history).unwrap_or(serde_json::Value::Null))
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to start periodic status reporting
#[tauri::command]
pub async fn mountain_start_ipc_status_reporting(
	app_handle:tauri::AppHandle,
	interval_seconds:u64,
) -> Result<serde_json::Value, String> {
	dev_log!("lifecycle", "Tauri command: start_ipc_status_reporting");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter
			.start_periodic_reporting(interval_seconds)
			.await
			.map(|_| serde_json::json!({ "status": "started", "interval_seconds": interval_seconds }))
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// TAURI COMMANDS: Microsoft-inspired comprehensive monitoring

/// Tauri command to get performance metrics
#[tauri::command]
pub async fn mountain_get_performance_metrics(app_handle:tauri::AppHandle) -> Result<PerformanceMetrics, String> {
	dev_log!("lifecycle", "Tauri command: get_performance_metrics");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.get_performance_metrics()
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to get health status
#[tauri::command]
pub async fn mountain_get_health_status(app_handle:tauri::AppHandle) -> Result<HealthMonitor, String> {
	dev_log!("lifecycle", "Tauri command: get_health_status");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.get_health_status()
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to perform health check
#[tauri::command]
pub async fn mountain_perform_health_check(app_handle:tauri::AppHandle) -> Result<HealthMonitor, String> {
	dev_log!("lifecycle", "Tauri command: perform_health_check");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.perform_health_check().await?;
		reporter.get_health_status()
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to attempt recovery
#[tauri::command]
pub async fn mountain_attempt_recovery(app_handle:tauri::AppHandle) -> Result<(), String> {
	dev_log!("lifecycle", "Tauri command: attempt_recovery");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.attempt_recovery().await
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to get service registry
#[tauri::command]
pub async fn mountain_get_service_registry(app_handle:tauri::AppHandle) -> Result<ServiceRegistry, String> {
	dev_log!("lifecycle", "Tauri command: get_service_registry");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.get_service_registry().await
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to get service information
#[tauri::command]
pub async fn mountain_get_service_info(
	app_handle:tauri::AppHandle,
	service_name:String,
) -> Result<Option<ServiceInfo>, String> {
	dev_log!("lifecycle", "Tauri command: get_service_info");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.get_service_info(&service_name).await
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to discover services
#[tauri::command]
pub async fn mountain_discover_services(app_handle:tauri::AppHandle) -> Result<Vec<ServiceInfo>, String> {
	dev_log!("lifecycle", "Tauri command: discover_services");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.discover_services().await
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to start periodic service discovery
#[tauri::command]
pub async fn mountain_start_service_discovery(app_handle:tauri::AppHandle) -> Result<(), String> {
	dev_log!("lifecycle", "Tauri command: start_service_discovery");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		reporter.start_periodic_discovery().await
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Tauri command to get comprehensive status report
#[tauri::command]
pub async fn mountain_get_comprehensive_status(
	app_handle:tauri::AppHandle,
) -> Result<ComprehensiveStatusReport, String> {
	dev_log!("lifecycle", "Tauri command: get_comprehensive_status");

	if let Some(reporter) = app_handle.try_state::<StatusReporter>() {
		let basic_status = reporter.generate_status_report().await?;
		let performance_metrics = reporter.get_performance_metrics()?;
		let health_status = reporter.get_health_status()?;

		Ok(ComprehensiveStatusReport {
			basic_status,
			performance_metrics,
			health_status,
			timestamp:SystemTime::now()
				.duration_since(SystemTime::UNIX_EPOCH)
				.unwrap_or_default()
				.as_millis() as u64,
		})
	} else {
		Err("StatusReporter not found in application state".to_string())
	}
}

/// Initialize status reporter in Mountain's setup
pub fn initialize_status_reporter(app_handle:&tauri::AppHandle, runtime:Arc<ApplicationRunTime>) -> Result<(), String> {
	dev_log!("lifecycle", "Initializing status reporter");

	let reporter = StatusReporter::new(runtime);

	// Store in application state
	app_handle.manage(reporter.clone_reporter());

	Ok(())
}