#![allow(unused_crate_dependencies)] use std::collections::HashMap; use std::sync::Arc; use std::time::{Duration, Instant}; use tokio::time::timeout; use chrono::{DateTime, Utc, TimeZone}; use crate::framework::{TestOrchestrator, TestFrameworkConfig, PerformanceThresholds, IntegrationTestResult}; use crate::framework::mocks::MockServiceRegistry; use config::{ConfigManager, MLConfig, ModelConfig}; use ml::models::{ModelType, TrainingConfig, ModelMetrics, ModelVersion}; use ml::data::{TrainingDataset, FeatureSet, TargetVariable}; /// ML Training Service Integration Tests /// /// Tests the ML training service functionality including: /// - Model training pipeline execution /// /// - Data preprocessing and feature engineering /// - Model validation and metrics calculation /// /// - Model versioning and storage /// - Distributed training coordination /// /// - Model deployment and serving pub struct MLTrainingServiceTests { orchestrator: TestOrchestrator, mock_registry: MockServiceRegistry, ml_config: MLConfig, } impl MLTrainingServiceTests { /// Initialize ML Training Service test suite pub async fn new() -> Result> { let config = TestFrameworkConfig { performance_thresholds: PerformanceThresholds { max_e2e_latency_us: 50, // 50Ξs end-to-end max_order_latency_us: 20, // 20Ξs order processing max_risk_latency_us: 10, // 10Ξs risk validation max_ml_latency_ms: 50, // 50ms ML inference max_config_reload_ms: 100, // 100ms config reload min_throughput_ops_sec: 10000, // 10k ops/sec minimum }, database_url: std::env::var("TEST_DATABASE_URL") .unwrap_or_else(|_| "postgresql://test:test@localhost:5432/foxhunt_test".to_string()), service_ports: { let mut ports = HashMap::new(); ports.insert("trading".to_string(), 50051); ports.insert("backtesting".to_string(), 50052); ports.insert("ml_training".to_string(), 50053); ports }, test_timeout_secs: 180, // ML training may take longer }; let orchestrator = TestOrchestrator::new(config).await?; let mock_registry = MockServiceRegistry::new().await?; // Load ML configuration let config_manager = ConfigManager::new().await?; let ml_config = config_manager.get_ml_config().await?; Ok(Self { orchestrator, mock_registry, ml_config, }) } /// Test Suite 1: Model Training Pipeline /// /// Validates core ML training functionality: /// - Training job initialization /// /// - Data preprocessing pipeline /// - Model training execution /// /// - Hyperparameter optimization /// - Training progress monitoring pub async fn test_model_training_pipeline(&self) -> IntegrationTestResult { println!("🧠 Testing ML Training Service - Model Training Pipeline"); let start_time = Instant::now(); let mut test_results = IntegrationTestResult::new("ML Training Service Model Training Pipeline"); // Start ML training service self.orchestrator.start_service("ml_training").await .map_err(|e| format!("Failed to start ML training service: {}", e))?; // Wait for service readiness tokio::time::sleep(Duration::from_millis(2000)).await; // Test Case 1: MAMBA Model Training let mamba_training_config = TrainingJobConfig { id: uuid::Uuid::new_v4(), model_type: ModelType::MAMBA, model_name: "MAMBA_EURUSD_Test".to_string(), version: "test_v1.0.0".to_string(), training_config: TrainingConfig { epochs: 5, // Reduced for testing batch_size: 32, learning_rate: 0.001, validation_split: 0.2, early_stopping_patience: 3, optimizer: "AdamW".to_string(), scheduler: Some("CosineAnnealingLR".to_string()), regularization: { let mut reg = HashMap::new(); reg.insert("dropout".to_string(), 0.1); reg.insert("weight_decay".to_string(), 1e-4); reg }, }, dataset_config: DatasetConfig { symbol: "EURUSD".to_string(), timeframe: "1H".to_string(), start_date: Utc.ymd_opt(2024, 1, 1).unwrap().and_hms_opt(0, 0, 0).unwrap(), end_date: Utc.ymd_opt(2024, 1, 31).unwrap().and_hms_opt(23, 59, 59).unwrap(), sequence_length: 100, prediction_horizon: 5, features: vec![ "open".to_string(), "high".to_string(), "low".to_string(), "close".to_string(), "volume".to_string(), "rsi".to_string(), "macd".to_string(), ], target: "price_direction".to_string(), }, hardware_config: HardwareConfig { use_gpu: true, gpu_memory_limit: Some(4096), // 4GB num_workers: 2, pin_memory: true, }, }; let training_start = Instant::now(); let training_result = self.orchestrator.start_training_job(mamba_training_config.clone()).await; match training_result { Ok(job_id) => { test_results.add_success("MAMBA training job started successfully"); // Monitor training progress let mut progress_checks = 0; let max_checks = 60; // 60 seconds max for test training let mut is_complete = false; let mut final_metrics: Option = None; while progress_checks < max_checks { tokio::time::sleep(Duration::from_millis(1000)).await; match self.orchestrator.get_training_status(&job_id).await { Ok(status) => { match status.status.as_str() { "completed" => { is_complete = true; final_metrics = status.metrics; break; } "failed" | "error" => { test_results.add_failure(&format!( "Training failed with status: {} - {}", status.status, status.error_message.unwrap_or_else(|| "No error message".to_string()) )); break; } "training" | "initializing" | "preprocessing" => { // Log progress if let Some(progress) = &status.progress { println!("Training progress: epoch {}/{}, loss: {:.6}", progress.current_epoch, progress.total_epochs, progress.current_loss); } } _ => { test_results.add_failure(&format!("Unknown training status: {}", status.status)); break; } } } Err(e) => { test_results.add_failure(&format!("Failed to get training status: {}", e)); break; } } progress_checks += 1; } if is_complete { let training_duration = training_start.elapsed(); test_results.add_success(&format!( "MAMBA training completed successfully in {}s", training_duration.as_secs() )); // Validate training metrics if let Some(metrics) = final_metrics { test_results.add_success("Training metrics available"); if metrics.train_loss > 0.0 { test_results.add_success(&format!("Training loss: {:.6}", metrics.train_loss)); } else { test_results.add_failure("Invalid training loss"); } if let Some(val_loss) = metrics.validation_loss { test_results.add_success(&format!("Validation loss: {:.6}", val_loss)); // Check for reasonable validation loss (should be finite and positive) if val_loss.is_finite() && val_loss > 0.0 { test_results.add_success("Validation loss is reasonable"); } else { test_results.add_failure("Validation loss is unreasonable"); } } else { test_results.add_failure("Validation loss not available"); } if let Some(accuracy) = metrics.accuracy { test_results.add_success(&format!("Model accuracy: {:.2}%", accuracy * 100.0)); if accuracy > 0.45 { // Better than random for multi-class test_results.add_success("Model shows learning capability"); } else { test_results.add_failure("Model accuracy too low for meaningful learning"); } } else { test_results.add_failure("Model accuracy not calculated"); } } else { test_results.add_failure("Training metrics not available after completion"); } // Test Case 2: Model Artifact Validation match self.orchestrator.get_model_artifacts(&job_id).await { Ok(artifacts) => { test_results.add_success("Model artifacts retrieved successfully"); if artifacts.model_file_path.is_some() { test_results.add_success("Model file path available"); } else { test_results.add_failure("Model file path not available"); } if artifacts.config_file_path.is_some() { test_results.add_success("Model config file available"); } else { test_results.add_failure("Model config file not available"); } if artifacts.metrics_file_path.is_some() { test_results.add_success("Training metrics file available"); } else { test_results.add_failure("Training metrics file not available"); } } Err(e) => { test_results.add_failure(&format!("Failed to get model artifacts: {}", e)); } } } else { test_results.add_failure("Training did not complete within timeout"); } } Err(e) => { test_results.add_failure(&format!("Failed to start MAMBA training job: {}", e)); } } test_results.duration = start_time.elapsed(); test_results.finalize(); Ok(test_results) } /// Test Suite 2: Data Processing Pipeline /// /// Validates data preprocessing and feature engineering: /// - Raw data ingestion /// /// - Feature engineering pipeline /// - Data validation and quality checks /// /// - Dataset splitting and sampling /// - Data augmentation techniques pub async fn test_data_processing_pipeline(&self) -> IntegrationTestResult { println!("📊 Testing ML Training Service - Data Processing Pipeline"); let start_time = Instant::now(); let mut test_results = IntegrationTestResult::new("ML Training Service Data Processing Pipeline"); // Test Case 1: Data Ingestion let data_config = DataIngestionConfig { symbol: "EURUSD".to_string(), timeframe: "1H".to_string(), start_date: Utc.ymd_opt(2024, 1, 1).unwrap().and_hms_opt(0, 0, 0).unwrap(), end_date: Utc.ymd_opt(2024, 1, 7).unwrap().and_hms_opt(23, 59, 59).unwrap(), // 1 week data_sources: vec!["historical_db".to_string(), "live_feed".to_string()], }; let ingestion_start = Instant::now(); let ingestion_result = self.orchestrator.ingest_training_data(data_config.clone()).await; let ingestion_duration = ingestion_start.elapsed(); match ingestion_result { Ok(dataset_id) => { test_results.add_success("Data ingestion successful"); if ingestion_duration.as_secs() <= 10 { test_results.add_success(&format!( "Data ingestion time acceptable: {}s", ingestion_duration.as_secs() )); } else { test_results.add_failure(&format!( "Data ingestion time too long: {}s", ingestion_duration.as_secs() )); } // Validate ingested data match self.orchestrator.get_dataset_info(&dataset_id).await { Ok(dataset_info) => { test_results.add_success("Dataset info retrieved"); if dataset_info.record_count > 0 { test_results.add_success(&format!("Dataset contains {} records", dataset_info.record_count)); } else { test_results.add_failure("Dataset is empty"); } if dataset_info.feature_count > 0 { test_results.add_success(&format!("Dataset has {} features", dataset_info.feature_count)); } else { test_results.add_failure("Dataset has no features"); } // Data quality validation if dataset_info.missing_value_percentage < 0.05 { // Less than 5% missing test_results.add_success(&format!( "Data quality good: {:.2}% missing values", dataset_info.missing_value_percentage * 100.0 )); } else { test_results.add_failure(&format!( "Data quality poor: {:.2}% missing values", dataset_info.missing_value_percentage * 100.0 )); } } Err(e) => { test_results.add_failure(&format!("Failed to get dataset info: {}", e)); } } // Test Case 2: Feature Engineering let feature_config = FeatureEngineeringConfig { base_features: vec!["open", "high", "low", "close", "volume"], technical_indicators: vec![ TechnicalIndicator { name: "RSI".to_string(), period: 14, parameters: HashMap::new() }, TechnicalIndicator { name: "MACD".to_string(), period: 26, parameters: { let mut params = HashMap::new(); params.insert("fast_period".to_string(), 12); params.insert("slow_period".to_string(), 26); params.insert("signal_period".to_string(), 9); params }}, TechnicalIndicator { name: "Bollinger_Bands".to_string(), period: 20, parameters: { let mut params = HashMap::new(); params.insert("std_dev".to_string(), 2); params }}, ], lag_features: vec![1, 2, 3, 5, 10], // Lag periods rolling_stats: vec![ RollingStat { window: 5, stat_type: "mean".to_string() }, RollingStat { window: 10, stat_type: "std".to_string() }, RollingStat { window: 20, stat_type: "min".to_string() }, RollingStat { window: 20, stat_type: "max".to_string() }, ], normalization_method: "z_score".to_string(), }; let feature_start = Instant::now(); match self.orchestrator.apply_feature_engineering(&dataset_id, feature_config).await { Ok(engineered_dataset_id) => { let feature_duration = feature_start.elapsed(); test_results.add_success("Feature engineering completed"); if feature_duration.as_secs() <= 15 { test_results.add_success(&format!( "Feature engineering time acceptable: {}s", feature_duration.as_secs() )); } else { test_results.add_failure(&format!( "Feature engineering time too long: {}s", feature_duration.as_secs() )); } // Validate engineered features match self.orchestrator.get_dataset_info(&engineered_dataset_id).await { Ok(engineered_info) => { if engineered_info.feature_count > dataset_info.feature_count { test_results.add_success(&format!( "Features increased: {} -> {}", dataset_info.feature_count, engineered_info.feature_count )); } else { test_results.add_failure("Feature count did not increase"); } // Check for NaN/infinite values after feature engineering if engineered_info.has_invalid_values { test_results.add_failure("Feature engineering introduced invalid values"); } else { test_results.add_success("No invalid values after feature engineering"); } } Err(e) => { test_results.add_failure(&format!("Failed to validate engineered features: {}", e)); } } } Err(e) => { test_results.add_failure(&format!("Feature engineering failed: {}", e)); } } // Test Case 3: Dataset Splitting let split_config = DatasetSplitConfig { train_ratio: 0.7, validation_ratio: 0.15, test_ratio: 0.15, shuffle: true, stratify: true, // For classification targets random_seed: Some(42), }; match self.orchestrator.split_dataset(&dataset_id, split_config).await { Ok(split_result) => { test_results.add_success("Dataset split successful"); let total_records = split_result.train_size + split_result.validation_size + split_result.test_size; let expected_records = dataset_info.record_count; if (total_records as f64 - expected_records as f64).abs() / expected_records as f64 < 0.01 { test_results.add_success("Dataset split preserves record count"); } else { test_results.add_failure(&format!( "Dataset split lost records: {} -> {}", expected_records, total_records )); } // Validate split ratios let actual_train_ratio = split_result.train_size as f64 / total_records as f64; let actual_val_ratio = split_result.validation_size as f64 / total_records as f64; let actual_test_ratio = split_result.test_size as f64 / total_records as f64; if (actual_train_ratio - split_config.train_ratio).abs() < 0.05 { test_results.add_success(&format!( "Train split ratio correct: {:.2}%", actual_train_ratio * 100.0 )); } else { test_results.add_failure(&format!( "Train split ratio incorrect: expected {:.2}%, got {:.2}%", split_config.train_ratio * 100.0, actual_train_ratio * 100.0 )); } } Err(e) => { test_results.add_failure(&format!("Dataset splitting failed: {}", e)); } } } Err(e) => { test_results.add_failure(&format!("Data ingestion failed: {}", e)); } } test_results.duration = start_time.elapsed(); test_results.finalize(); Ok(test_results) } /// Test Suite 3: Model Validation and Metrics /// /// Validates model evaluation and metrics calculation: /// - Cross-validation procedures /// /// - Performance metrics calculation /// - Model comparison and selection /// /// - Statistical significance testing pub async fn test_model_validation_and_metrics(&self) -> IntegrationTestResult { println!("📈 Testing ML Training Service - Model Validation and Metrics"); let start_time = Instant::now(); let mut test_results = IntegrationTestResult::new("ML Training Service Model Validation and Metrics"); // Test Case 1: Cross-Validation Setup let cv_config = CrossValidationConfig { method: "time_series".to_string(), // Appropriate for financial data n_folds: 5, validation_window: 720, // 30 days of hourly data step_size: 168, // 1 week step gap_size: 24, // 1 day gap to prevent look-ahead }; let model_configs = vec![ ModelConfig { model_type: ModelType::MAMBA, name: "MAMBA_CV_Test".to_string(), hyperparameters: { let mut params = HashMap::new(); params.insert("hidden_dim".to_string(), serde_json::Value::from(256)); params.insert("n_layers".to_string(), serde_json::Value::from(4)); params.insert("dropout".to_string(), serde_json::Value::from(0.1)); params }, }, ModelConfig { model_type: ModelType::TFT, name: "TFT_CV_Test".to_string(), hyperparameters: { let mut params = HashMap::new(); params.insert("hidden_size".to_string(), serde_json::Value::from(128)); params.insert("attention_heads".to_string(), serde_json::Value::from(4)); params.insert("dropout".to_string(), serde_json::Value::from(0.1)); params }, }, ]; let cv_start = Instant::now(); match self.orchestrator.run_cross_validation(model_configs, cv_config).await { Ok(cv_job_id) => { test_results.add_success("Cross-validation job started"); // Monitor CV progress let mut cv_checks = 0; let max_cv_checks = 120; // 2 minutes for CV let mut cv_complete = false; let mut cv_results: Option = None; while cv_checks < max_cv_checks { tokio::time::sleep(Duration::from_millis(1000)).await; match self.orchestrator.get_cv_status(&cv_job_id).await { Ok(status) => { match status.status.as_str() { "completed" => { cv_complete = true; cv_results = status.results; break; } "failed" | "error" => { test_results.add_failure(&format!("Cross-validation failed: {}", status.status)); break; } "running" => { if let Some(progress) = &status.progress { println!("CV Progress: fold {}/{}, model {}/{}", progress.current_fold, progress.total_folds, progress.current_model, progress.total_models); } } _ => { // Continue waiting } } } Err(e) => { test_results.add_failure(&format!("Failed to get CV status: {}", e)); break; } } cv_checks += 1; } if cv_complete { let cv_duration = cv_start.elapsed(); test_results.add_success(&format!( "Cross-validation completed in {}s", cv_duration.as_secs() )); if let Some(results) = cv_results { test_results.add_success("Cross-validation results available"); // Validate CV results for each model for model_result in &results.model_results { test_results.add_success(&format!( "Model {} CV completed", model_result.model_name )); if model_result.mean_score > 0.0 { test_results.add_success(&format!( "{} mean CV score: {:.4} Âą {:.4}", model_result.model_name, model_result.mean_score, model_result.std_score )); } else { test_results.add_failure(&format!( "{} invalid mean CV score: {}", model_result.model_name, model_result.mean_score )); } // Check for reasonable standard deviation if model_result.std_score > 0.0 && model_result.std_score < model_result.mean_score { test_results.add_success(&format!( "{} reasonable score variance", model_result.model_name )); } else if model_result.std_score == 0.0 { test_results.add_failure(&format!( "{} zero score variance (suspicious)", model_result.model_name )); } else { test_results.add_failure(&format!( "{} high score variance: {:.4}", model_result.model_name, model_result.std_score )); } } // Test Case 2: Statistical Significance Testing if results.model_results.len() >= 2 { match self.orchestrator.perform_statistical_test(&cv_job_id, "paired_t_test").await { Ok(stat_results) => { test_results.add_success("Statistical significance testing completed"); if let Some(p_value) = stat_results.p_value { test_results.add_success(&format!("Statistical test p-value: {:.4}", p_value)); if p_value < 0.05 { test_results.add_success("Significant difference between models detected"); } else { test_results.add_success("No significant difference between models"); } } else { test_results.add_failure("Statistical test p-value not available"); } } Err(e) => { test_results.add_failure(&format!("Statistical testing failed: {}", e)); } } } // Test Case 3: Best Model Selection if let Some(best_model) = &results.best_model { test_results.add_success(&format!("Best model selected: {}", best_model.model_name)); if best_model.final_score > 0.0 { test_results.add_success(&format!( "Best model final score: {:.4}", best_model.final_score )); } else { test_results.add_failure("Best model has invalid final score"); } } else { test_results.add_failure("No best model selected"); } } else { test_results.add_failure("Cross-validation results not available"); } } else { test_results.add_failure("Cross-validation did not complete within timeout"); } } Err(e) => { test_results.add_failure(&format!("Failed to start cross-validation: {}", e)); } } // Test Case 4: Comprehensive Metrics Calculation let test_model_config = ModelConfig { model_type: ModelType::DQN, name: "DQN_Metrics_Test".to_string(), hyperparameters: { let mut params = HashMap::new(); params.insert("hidden_layers".to_string(), serde_json::Value::from(vec![256, 128])); params.insert("learning_rate".to_string(), serde_json::Value::from(0.001)); params }, }; let quick_training_config = TrainingJobConfig { id: uuid::Uuid::new_v4(), model_type: ModelType::DQN, model_name: "DQN_Metrics_Test".to_string(), version: "test_metrics_v1".to_string(), training_config: TrainingConfig { epochs: 3, // Very quick training for metrics testing batch_size: 64, learning_rate: 0.001, validation_split: 0.2, early_stopping_patience: 2, optimizer: "Adam".to_string(), scheduler: None, regularization: HashMap::new(), }, dataset_config: DatasetConfig { symbol: "EURUSD".to_string(), timeframe: "1H".to_string(), start_date: Utc.ymd_opt(2024, 1, 1).unwrap().and_hms_opt(0, 0, 0).unwrap(), end_date: Utc.ymd_opt(2024, 1, 7).unwrap().and_hms_opt(23, 59, 59).unwrap(), sequence_length: 50, prediction_horizon: 1, features: vec!["close".to_string(), "volume".to_string()], target: "price_direction".to_string(), }, hardware_config: HardwareConfig { use_gpu: false, // CPU for quick testing gpu_memory_limit: None, num_workers: 1, pin_memory: false, }, }; match self.orchestrator.start_training_job(quick_training_config).await { Ok(metrics_job_id) => { // Wait for quick training completion tokio::time::sleep(Duration::from_secs(30)).await; match self.orchestrator.calculate_comprehensive_metrics(&metrics_job_id).await { Ok(comprehensive_metrics) => { test_results.add_success("Comprehensive metrics calculated"); // Validate presence of key metrics if comprehensive_metrics.accuracy.is_some() { test_results.add_success("Accuracy metric available"); } else { test_results.add_failure("Accuracy metric missing"); } if comprehensive_metrics.precision.is_some() { test_results.add_success("Precision metric available"); } else { test_results.add_failure("Precision metric missing"); } if comprehensive_metrics.recall.is_some() { test_results.add_success("Recall metric available"); } else { test_results.add_failure("Recall metric missing"); } if comprehensive_metrics.f1_score.is_some() { test_results.add_success("F1-score metric available"); } else { test_results.add_failure("F1-score metric missing"); } if comprehensive_metrics.auc_roc.is_some() { test_results.add_success("AUC-ROC metric available"); } else { test_results.add_failure("AUC-ROC metric missing"); } // Financial-specific metrics if comprehensive_metrics.sharpe_ratio.is_some() { test_results.add_success("Sharpe ratio available"); } else { test_results.add_failure("Sharpe ratio missing"); } if comprehensive_metrics.max_drawdown.is_some() { test_results.add_success("Max drawdown available"); } else { test_results.add_failure("Max drawdown missing"); } } Err(e) => { test_results.add_failure(&format!("Failed to calculate comprehensive metrics: {}", e)); } } } Err(e) => { test_results.add_failure(&format!("Failed to start metrics test training: {}", e)); } } test_results.duration = start_time.elapsed(); test_results.finalize(); Ok(test_results) } /// Test Suite 4: Model Deployment Pipeline /// /// Validates model deployment and serving: /// - Model versioning and registry /// /// - Deployment to serving infrastructure /// - A/B testing setup /// /// - Model monitoring and alerting pub async fn test_model_deployment_pipeline(&self) -> IntegrationTestResult { println!("🚀 Testing ML Training Service - Model Deployment Pipeline"); let start_time = Instant::now(); let mut test_results = IntegrationTestResult::new("ML Training Service Model Deployment Pipeline"); // Test Case 1: Model Registration let model_version = ModelVersion { id: uuid::Uuid::new_v4(), name: "MAMBA_EURUSD_Deploy_Test".to_string(), version: "v1.0.0".to_string(), model_type: ModelType::MAMBA, training_job_id: uuid::Uuid::new_v4(), performance_metrics: { let mut metrics = HashMap::new(); metrics.insert("accuracy".to_string(), 0.74); metrics.insert("precision".to_string(), 0.71); metrics.insert("recall".to_string(), 0.78); metrics.insert("f1_score".to_string(), 0.74); metrics.insert("sharpe_ratio".to_string(), 1.85); metrics }, artifacts_path: "/models/mamba_eurusd_v1.0.0/".to_string(), created_at: Utc::now(), is_active: false, deployment_status: "pending".to_string(), }; let registration_start = Instant::now(); match self.orchestrator.register_model_version(model_version.clone()).await { Ok(registration_id) => { let registration_duration = registration_start.elapsed(); test_results.add_success("Model version registered successfully"); if registration_duration.as_millis() <= 1000 { test_results.add_success(&format!( "Model registration time acceptable: {}ms", registration_duration.as_millis() )); } else { test_results.add_failure(&format!( "Model registration time too long: {}ms", registration_duration.as_millis() )); } // Test Case 2: Model Deployment let deployment_config = DeploymentConfig { target_environment: "staging".to_string(), serving_config: ServingConfig { max_batch_size: 32, max_latency_ms: 50, // 50ms inference latency requirement auto_scaling: true, min_replicas: 1, max_replicas: 3, cpu_limit: "1000m".to_string(), memory_limit: "2Gi".to_string(), }, rollout_strategy: RolloutStrategy { strategy_type: "blue_green".to_string(), traffic_split: 0.1, // 10% initial traffic rollback_threshold: 0.05, // 5% error rate triggers rollback monitoring_duration_minutes: 10, }, }; let deployment_start = Instant::now(); match self.orchestrator.deploy_model(®istration_id, deployment_config).await { Ok(deployment_id) => { let deployment_duration = deployment_start.elapsed(); test_results.add_success("Model deployment initiated"); if deployment_duration.as_secs() <= 30 { test_results.add_success(&format!( "Deployment initiation time acceptable: {}s", deployment_duration.as_secs() )); } else { test_results.add_failure(&format!( "Deployment initiation time too long: {}s", deployment_duration.as_secs() )); } // Monitor deployment progress let mut deployment_checks = 0; let max_deployment_checks = 60; // 1 minute for staging deployment let mut deployment_complete = false; while deployment_checks < max_deployment_checks { tokio::time::sleep(Duration::from_millis(1000)).await; match self.orchestrator.get_deployment_status(&deployment_id).await { Ok(status) => { match status.status.as_str() { "deployed" | "active" => { deployment_complete = true; test_results.add_success("Model deployed successfully"); break; } "failed" | "error" => { test_results.add_failure(&format!( "Deployment failed: {}", status.error_message.unwrap_or_else(|| "No error message".to_string()) )); break; } "deploying" | "initializing" => { // Continue waiting } _ => { test_results.add_failure(&format!("Unknown deployment status: {}", status.status)); break; } } } Err(e) => { test_results.add_failure(&format!("Failed to get deployment status: {}", e)); break; } } deployment_checks += 1; } if deployment_complete { // Test Case 3: Model Serving Validation let test_inference_data = InferenceRequest { model_version_id: registration_id.clone(), input_data: vec![ 1.0650, 1.0655, 1.0648, 1.0653, // OHLC 1500.0, // Volume 65.5, // RSI 0.0012, // MACD ], request_id: uuid::Uuid::new_v4(), timestamp: Utc::now(), }; let inference_start = Instant::now(); match self.orchestrator.test_model_inference(test_inference_data).await { Ok(inference_result) => { let inference_duration = inference_start.elapsed(); test_results.add_success("Model inference test successful"); if inference_duration.as_millis() <= self.orchestrator.config.performance_thresholds.max_ml_latency_ms { test_results.add_success(&format!( "Inference latency within threshold: {}ms <= {}ms", inference_duration.as_millis(), self.orchestrator.config.performance_thresholds.max_ml_latency_ms )); } else { test_results.add_failure(&format!( "Inference latency exceeds threshold: {}ms > {}ms", inference_duration.as_millis(), self.orchestrator.config.performance_thresholds.max_ml_latency_ms )); } // Validate inference result structure if inference_result.prediction.is_some() { test_results.add_success("Model prediction available"); } else { test_results.add_failure("Model prediction missing"); } if inference_result.confidence.is_some() { let confidence = inference_result.confidence.unwrap(); if confidence >= 0.0 && confidence <= 1.0 { test_results.add_success(&format!( "Model confidence valid: {:.3}", confidence )); } else { test_results.add_failure(&format!( "Model confidence out of range: {:.3}", confidence )); } } else { test_results.add_failure("Model confidence missing"); } } Err(e) => { test_results.add_failure(&format!("Model inference test failed: {}", e)); } } // Test Case 4: Model Monitoring Setup let monitoring_config = ModelMonitoringConfig { metrics_to_track: vec![ "inference_latency".to_string(), "prediction_accuracy".to_string(), "data_drift".to_string(), "model_drift".to_string(), ], alert_thresholds: { let mut thresholds = HashMap::new(); thresholds.insert("inference_latency_p95".to_string(), 100.0); // 100ms thresholds.insert("accuracy_drop".to_string(), 0.05); // 5% drop thresholds.insert("data_drift_score".to_string(), 0.1); thresholds }, monitoring_frequency_minutes: 5, retention_days: 30, }; match self.orchestrator.setup_model_monitoring(&deployment_id, monitoring_config).await { Ok(_) => { test_results.add_success("Model monitoring setup successful"); } Err(e) => { test_results.add_failure(&format!("Model monitoring setup failed: {}", e)); } } } else { test_results.add_failure("Model deployment did not complete within timeout"); } } Err(e) => { test_results.add_failure(&format!("Failed to deploy model: {}", e)); } } } Err(e) => { test_results.add_failure(&format!("Failed to register model version: {}", e)); } } test_results.duration = start_time.elapsed(); test_results.finalize(); Ok(test_results) } /// Execute complete ML Training Service test suite pub async fn run_all_tests(&self) -> Result, Box> { println!("🚀 Starting ML Training Service Integration Test Suite"); let mut results = Vec::new(); // Test Suite 1: Model Training Pipeline match timeout(Duration::from_secs(self.orchestrator.config.test_timeout_secs * 2), self.test_model_training_pipeline()).await { Ok(Ok(result)) => results.push(result), Ok(Err(e)) => { let mut failed_result = IntegrationTestResult::new("ML Training Service Model Training Pipeline"); failed_result.add_failure(&format!("Test suite failed: {}", e)); failed_result.finalize(); results.push(failed_result); }, Err(_) => { let mut timeout_result = IntegrationTestResult::new("ML Training Service Model Training Pipeline"); timeout_result.add_failure("Test suite timed out"); timeout_result.finalize(); results.push(timeout_result); } } // Test Suite 2: Data Processing Pipeline match timeout(Duration::from_secs(self.orchestrator.config.test_timeout_secs), self.test_data_processing_pipeline()).await { Ok(Ok(result)) => results.push(result), Ok(Err(e)) => { let mut failed_result = IntegrationTestResult::new("ML Training Service Data Processing Pipeline"); failed_result.add_failure(&format!("Test suite failed: {}", e)); failed_result.finalize(); results.push(failed_result); }, Err(_) => { let mut timeout_result = IntegrationTestResult::new("ML Training Service Data Processing Pipeline"); timeout_result.add_failure("Test suite timed out"); timeout_result.finalize(); results.push(timeout_result); } } // Test Suite 3: Model Validation and Metrics match timeout(Duration::from_secs(self.orchestrator.config.test_timeout_secs * 3), self.test_model_validation_and_metrics()).await { Ok(Ok(result)) => results.push(result), Ok(Err(e)) => { let mut failed_result = IntegrationTestResult::new("ML Training Service Model Validation and Metrics"); failed_result.add_failure(&format!("Test suite failed: {}", e)); failed_result.finalize(); results.push(failed_result); }, Err(_) => { let mut timeout_result = IntegrationTestResult::new("ML Training Service Model Validation and Metrics"); timeout_result.add_failure("Test suite timed out"); timeout_result.finalize(); results.push(timeout_result); } } // Test Suite 4: Model Deployment Pipeline match timeout(Duration::from_secs(self.orchestrator.config.test_timeout_secs * 2), self.test_model_deployment_pipeline()).await { Ok(Ok(result)) => results.push(result), Ok(Err(e)) => { let mut failed_result = IntegrationTestResult::new("ML Training Service Model Deployment Pipeline"); failed_result.add_failure(&format!("Test suite failed: {}", e)); failed_result.finalize(); results.push(failed_result); }, Err(_) => { let mut timeout_result = IntegrationTestResult::new("ML Training Service Model Deployment Pipeline"); timeout_result.add_failure("Test suite timed out"); timeout_result.finalize(); results.push(timeout_result); } } // Print summary let total_tests = results.len(); let passed_tests = results.iter().filter(|r| r.passed).count(); let failed_tests = total_tests - passed_tests; println!("📊 ML Training Service Integration Test Summary:"); println!(" Total Test Suites: {}", total_tests); println!(" Passed: {} ✅", passed_tests); println!(" Failed: {} ❌", failed_tests); if failed_tests == 0 { println!("🎉 All ML Training Service integration tests passed!"); } else { println!("⚠ïļ {} ML Training Service integration test suite(s) failed", failed_tests); } Ok(results) } } // Supporting types for ML training tests #[derive(Debug, Clone)] pub struct TrainingJobConfig { pub id: uuid::Uuid, pub model_type: ModelType, pub model_name: String, pub version: String, pub training_config: TrainingConfig, pub dataset_config: DatasetConfig, pub hardware_config: HardwareConfig, } #[derive(Debug, Clone)] pub struct DatasetConfig { pub symbol: String, pub timeframe: String, pub start_date: DateTime, pub end_date: DateTime, pub sequence_length: usize, pub prediction_horizon: usize, pub features: Vec, pub target: String, } #[derive(Debug, Clone)] pub struct HardwareConfig { pub use_gpu: bool, pub gpu_memory_limit: Option, pub num_workers: usize, pub pin_memory: bool, } // Additional supporting types... #[derive(Debug, Clone)] pub struct DataIngestionConfig { pub symbol: String, pub timeframe: String, pub start_date: DateTime, pub end_date: DateTime, pub data_sources: Vec, } #[derive(Debug, Clone)] pub struct FeatureEngineeringConfig { pub base_features: Vec<&'static str>, pub technical_indicators: Vec, pub lag_features: Vec, pub rolling_stats: Vec, pub normalization_method: String, } #[derive(Debug, Clone)] pub struct TechnicalIndicator { pub name: String, pub period: usize, pub parameters: HashMap, } #[derive(Debug, Clone)] pub struct RollingStat { pub window: usize, pub stat_type: String, } #[derive(Debug, Clone)] pub struct DatasetSplitConfig { pub train_ratio: f64, pub validation_ratio: f64, pub test_ratio: f64, pub shuffle: bool, pub stratify: bool, pub random_seed: Option, } #[derive(Debug, Clone)] pub struct CrossValidationConfig { pub method: String, pub n_folds: usize, pub validation_window: usize, pub step_size: usize, pub gap_size: usize, } #[derive(Debug, Clone)] pub struct CrossValidationResults { pub model_results: Vec, pub best_model: Option, } #[derive(Debug, Clone)] pub struct ModelCVResult { pub model_name: String, pub mean_score: f64, pub std_score: f64, pub fold_scores: Vec, } #[derive(Debug, Clone)] pub struct BestModelResult { pub model_name: String, pub final_score: f64, pub selection_criteria: String, } #[derive(Debug, Clone)] pub struct DeploymentConfig { pub target_environment: String, pub serving_config: ServingConfig, pub rollout_strategy: RolloutStrategy, } #[derive(Debug, Clone)] pub struct ServingConfig { pub max_batch_size: usize, pub max_latency_ms: u64, pub auto_scaling: bool, pub min_replicas: usize, pub max_replicas: usize, pub cpu_limit: String, pub memory_limit: String, } #[derive(Debug, Clone)] pub struct RolloutStrategy { pub strategy_type: String, pub traffic_split: f64, pub rollback_threshold: f64, pub monitoring_duration_minutes: usize, } #[derive(Debug, Clone)] pub struct InferenceRequest { pub model_version_id: uuid::Uuid, pub input_data: Vec, pub request_id: uuid::Uuid, pub timestamp: DateTime, } #[derive(Debug, Clone)] pub struct ModelMonitoringConfig { pub metrics_to_track: Vec, pub alert_thresholds: HashMap, pub monitoring_frequency_minutes: usize, pub retention_days: usize, } #[cfg(test)] mod tests { use super::*; use tokio; #[tokio::test] async fn integration_test_ml_training_service_complete() { let test_suite = MLTrainingServiceTests::new().await .expect("Failed to initialize ML Training Service test suite"); let results = test_suite.run_all_tests().await .expect("Failed to run ML Training Service test suite"); // Ensure all tests passed for result in &results { assert!(result.passed, "Test suite '{}' failed: {:?}", result.test_name, result.failures); } // Validate performance requirements met (longer timeouts for ML operations) for result in &results { assert!( result.duration.as_secs() <= 600, // 10 minutes max for ML training tests "Test suite '{}' took too long: {}s", result.test_name, result.duration.as_secs() ); } } }