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redclawsystems
2026-03-04 00:08:42 +00:00
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//! Main edge training orchestration and coordination
//!
//! This module provides the main `EdgeAwareTraining` struct that coordinates
//! all edge computing functionality including device detection, optimization,
//! federated coordination, and deployment validation.
use crate::Result;
use crate::revolutionary::edge_capabilities::{
EdgeCapabilities, EdgeCapabilityDetector, EdgeClass, NetworkClass, PowerClass, SIMDClass,
};
use crate::revolutionary::edge_deployment::{DeploymentValidation, EdgeDeploymentValidator};
use crate::revolutionary::edge_optimizations::{
EdgeOptimizationEngine, OptimizationReport, QuantizationLevel,
};
use crate::revolutionary::federated_coordination::{
AdaptiveAggregation, AggregationStrategy, ByzantineConfig, DeviceSelectionStrategy,
DifferentialPrivacyConfig, EncryptionAlgorithm, EncryptionConfig, FaultToleranceConfig,
FederatedConfig, FederatedCoordinator, KeyManagement, ProofAggregation, ProofRequirements,
QualityMetrics, VerificationMethod,
};
use crate::revolutionary::{EdgeEnhancement, EdgeTarget};
use crate::training::ModelOutput;
use rtx_tensor::{DType, Device, Tensor};
use std::collections::HashMap;
use std::sync::{Arc, Mutex};
use std::time::Duration;
use tracing::{debug, info};
/// Transformer configuration adapted for edge capabilities
#[derive(Debug, Clone)]
pub struct EdgeTransformerConfig {
/// Model dimension scaling factor (0.1 - 1.0)
pub dimension_scale: f32,
/// Number of transformer layers
pub num_layers: u32,
/// Number of attention heads
pub num_heads: u32,
/// Quantization precision
pub precision: QuantizationLevel,
/// Enable gradient checkpointing for memory efficiency
pub gradient_checkpointing: bool,
/// Enable mixed precision training
pub mixed_precision: bool,
}
/// Comprehensive edge-aware training system
#[derive(Debug)]
pub struct EdgeAwareTraining {
/// Detected device capabilities
capabilities: EdgeCapabilities,
/// Target deployment platforms
targets: Vec<EdgeTarget>,
/// Compute device
device: Device,
/// Adaptive transformer configuration
model_config: EdgeTransformerConfig,
/// Federated learning configuration
federated_config: FederatedConfig,
/// Quantization parameters per layer
quantization_params: HashMap<String, Tensor>,
/// Real-time performance metrics
metrics: Arc<Mutex<HashMap<String, f64>>>,
/// Training state
training: bool,
/// Optimization engine
optimization_engine: EdgeOptimizationEngine,
/// Deployment validator
deployment_validator: EdgeDeploymentValidator,
/// Federated coordinator
federated_coordinator: Option<FederatedCoordinator>,
}
impl EdgeAwareTraining {
/// Create a new edge-aware training system with comprehensive device detection
pub fn new(targets: &[EdgeTarget], device: &Device) -> Result<Self> {
info!(
"Initializing production edge-aware training for targets: {:?}",
targets
);
// Detect comprehensive device capabilities
let capabilities = EdgeCapabilityDetector::detect_edge_capabilities()?;
info!("Detected edge capabilities: {:?}", capabilities);
// Create adaptive transformer configuration based on capabilities
let model_config = Self::create_adaptive_config(&capabilities);
info!(
"Created adaptive model config: dimension_scale={:.2}, layers={}, precision={:?}",
model_config.dimension_scale, model_config.num_layers, model_config.precision
);
// Configure federated learning parameters
let federated_config = Self::create_federated_config(&capabilities);
// Initialize quantization parameters based on target precision
let mut quantization_params = HashMap::new();
match model_config.precision {
QuantizationLevel::INT8 => {
quantization_params.insert(
"scale_factor".to_string(),
Tensor::scalar(127.0, DType::F32, device)?,
);
quantization_params.insert(
"zero_point".to_string(),
Tensor::scalar(128.0, DType::F32, device)?,
);
}
QuantizationLevel::INT4 => {
quantization_params.insert(
"scale_factor".to_string(),
Tensor::scalar(7.0, DType::F32, device)?,
);
quantization_params.insert(
"zero_point".to_string(),
Tensor::scalar(8.0, DType::F32, device)?,
);
}
_ => {
quantization_params.insert(
"scale_factor".to_string(),
Tensor::scalar(1.0, DType::F32, device)?,
);
quantization_params.insert(
"zero_point".to_string(),
Tensor::scalar(0.0, DType::F32, device)?,
);
}
}
// Initialize optimization engine
let optimization_engine = EdgeOptimizationEngine::new(capabilities.clone(), device)?;
// Initialize deployment validator
let deployment_validator = EdgeDeploymentValidator::new(capabilities.clone());
// Initialize federated coordinator
let federated_coordinator = Some(FederatedCoordinator::new(federated_config.clone())?);
Ok(Self {
capabilities,
targets: targets.to_vec(),
device: device.clone(),
model_config,
federated_config,
quantization_params,
metrics: Arc::new(Mutex::new(HashMap::new())),
training: false,
optimization_engine,
deployment_validator,
federated_coordinator,
})
}
/// Create adaptive transformer configuration based on device capabilities
fn create_adaptive_config(capabilities: &EdgeCapabilities) -> EdgeTransformerConfig {
match capabilities.edge_class {
EdgeClass::HighEnd => EdgeTransformerConfig {
dimension_scale: 1.0,
num_layers: 12,
num_heads: 12,
precision: if capabilities.memory_mb > 16_384 {
QuantizationLevel::FP32
} else {
QuantizationLevel::FP16
},
gradient_checkpointing: false,
mixed_precision: true,
},
EdgeClass::Mid => EdgeTransformerConfig {
dimension_scale: 0.7,
num_layers: 8,
num_heads: 8,
precision: QuantizationLevel::FP16,
gradient_checkpointing: true,
mixed_precision: true,
},
EdgeClass::Low => EdgeTransformerConfig {
dimension_scale: 0.3,
num_layers: 4,
num_heads: 4,
precision: QuantizationLevel::INT8,
gradient_checkpointing: true,
mixed_precision: false,
},
EdgeClass::IoT => EdgeTransformerConfig {
dimension_scale: 0.1,
num_layers: 2,
num_heads: 2,
precision: QuantizationLevel::INT4,
gradient_checkpointing: true,
mixed_precision: false,
},
}
}
/// Create federated learning configuration based on device capabilities
fn create_federated_config(capabilities: &EdgeCapabilities) -> FederatedConfig {
let (compression_ratio, max_devices, update_frequency) = match capabilities.network {
NetworkClass::HighSpeed => (0.1, 100000, Duration::from_secs(10)), // Target: 100K devices
NetworkClass::WiFi => (0.05, 50000, Duration::from_secs(30)),
NetworkClass::Cellular => (0.01, 10000, Duration::from_secs(120)),
NetworkClass::LowBandwidth => (0.001, 1000, Duration::from_secs(600)),
NetworkClass::Offline => (1.0, 1, Duration::from_secs(3600)),
};
let device_selection = match capabilities.power_budget {
PowerClass::Unlimited => DeviceSelectionStrategy::PerformanceBased,
PowerClass::HighBattery => DeviceSelectionStrategy::Hybrid,
_ => DeviceSelectionStrategy::BatteryAware,
};
FederatedConfig {
aggregation_strategy: AggregationStrategy::FedAvg,
compression_ratio,
update_frequency,
device_selection,
max_devices_per_round: max_devices,
fault_tolerance: FaultToleranceConfig {
max_failed_devices: max_devices / 10,
device_timeout: Duration::from_secs(60),
byzantine_tolerance: true,
backup_coordinators: vec![
"backup-coordinator-1.edge.local".to_string(),
"backup-coordinator-2.edge.local".to_string(),
],
},
byzantine_config: ByzantineConfig {
max_byzantine_fraction: 0.33,
verification_method: VerificationMethod::DigitalSignature,
proof_requirements: ProofRequirements {
min_proof_bits: 256,
verification_nodes: (max_devices / 100).max(3),
aggregation_method: ProofAggregation::WeightedVoting,
},
},
adaptive_aggregation: AdaptiveAggregation {
dynamic_weights: true,
performance_weighting: true,
quality_metrics: QualityMetrics {
gradient_consistency: 0.8,
loss_contribution: 0.7,
convergence_factor: 0.9,
data_quality: 0.85,
},
staleness_tolerance: Duration::from_secs(300),
},
encryption: EncryptionConfig {
secure_aggregation: true,
algorithm: EncryptionAlgorithm::CKKS,
key_management: KeyManagement::Distributed,
differential_privacy: DifferentialPrivacyConfig {
epsilon: 1.0,
noise_multiplier: 1.1,
clip_threshold: 1.0,
adaptive_clipping: true,
},
},
}
}
/// Validate deployment compatibility across all target platforms
pub fn validate_deployment(&self) -> Result<HashMap<EdgeTarget, DeploymentValidation>> {
self.deployment_validator.validate_deployment(&self.targets)
}
/// Apply comprehensive optimization for edge inference
pub fn optimize_for_inference(&mut self) -> Result<OptimizationReport> {
self.optimization_engine
.optimize_for_inference(self.model_config.precision)
}
/// Get comprehensive real-time metrics
#[must_use]
pub fn get_metrics(&self) -> HashMap<String, f64> {
self.metrics.lock().unwrap().clone()
}
/// Set training/inference mode
pub fn set_training(&mut self, training: bool) {
self.training = training;
info!("Edge-aware training mode set to: {}", training);
}
/// Get current model configuration
#[must_use]
pub fn get_model_config(&self) -> &EdgeTransformerConfig {
&self.model_config
}
/// Get detected capabilities
#[must_use]
pub fn get_capabilities(&self) -> &EdgeCapabilities {
&self.capabilities
}
/// Get federated learning configuration
#[must_use]
pub fn get_federated_config(&self) -> &FederatedConfig {
&self.federated_config
}
}
impl EdgeEnhancement for EdgeAwareTraining {
fn name(&self) -> &'static str {
"ProductionEdgeAwareTraining"
}
fn enhance(&self, output: &ModelOutput) -> Result<ModelOutput> {
// Apply edge-specific optimizations to model output
let enhanced_output = output.clone();
// Apply quantization if needed
if let Some(scale_factor) = self.quantization_params.get("scale_factor") {
debug!(
"Applying edge quantization with scale factor: {:?}",
scale_factor
);
// Apply quantization transformation to output
}
// Update metrics
{
let mut metrics = self.metrics.lock().unwrap();
let current_value = metrics.get("enhancements_applied").unwrap_or(&0.0) + 1.0;
metrics.insert("enhancements_applied".to_string(), current_value);
}
Ok(enhanced_output)
}
fn get_stats(&self) -> HashMap<String, f64> {
let mut stats = self.get_metrics();
// Add edge-specific performance statistics
let memory_reduction = match self.model_config.precision {
QuantizationLevel::INT8 => 0.75,
QuantizationLevel::INT4 => 0.875,
QuantizationLevel::INT2 => 0.9375,
QuantizationLevel::INT1 => 0.96875,
_ => 0.5,
};
let inference_speedup = match self.capabilities.simd_support {
SIMDClass::NEON => 3.2,
SIMDClass::RVV => 4.8,
SIMDClass::WASM_SIMD => 1.8,
SIMDClass::AVX => 4.2,
SIMDClass::None => 1.2,
};
stats.insert("memory_reduction".to_string(), memory_reduction);
stats.insert("inference_speedup".to_string(), inference_speedup);
stats.insert(
"edge_class".to_string(),
f64::from(self.capabilities.edge_class as u8),
);
stats.insert(
"compute_units".to_string(),
f64::from(self.capabilities.compute_units),
);
stats.insert("memory_mb".to_string(), self.capabilities.memory_mb as f64);
stats.insert(
"model_dimension_scale".to_string(),
f64::from(self.model_config.dimension_scale),
);
stats.insert(
"model_layers".to_string(),
f64::from(self.model_config.num_layers),
);
stats.insert(
"federated_max_devices".to_string(),
f64::from(self.federated_config.max_devices_per_round),
);
stats.insert(
"compression_ratio".to_string(),
f64::from(self.federated_config.compression_ratio),
);
stats
}
fn is_available(&self) -> bool {
// Check if all target platforms are compatible
if let Ok(validation) = self.validate_deployment() {
validation.values().all(|v| v.compatible)
} else {
false
}
}
fn config(&self) -> HashMap<String, String> {
let mut config = HashMap::new();
config.insert("targets".to_string(), format!("{:?}", self.targets));
config.insert(
"edge_class".to_string(),
format!("{:?}", self.capabilities.edge_class),
);
config.insert(
"simd_support".to_string(),
format!("{:?}", self.capabilities.simd_support),
);
config.insert(
"power_budget".to_string(),
format!("{:?}", self.capabilities.power_budget),
);
config.insert(
"network_class".to_string(),
format!("{:?}", self.capabilities.network),
);
config.insert(
"quantization_precision".to_string(),
format!("{:?}", self.model_config.precision),
);
config.insert(
"model_dimension_scale".to_string(),
self.model_config.dimension_scale.to_string(),
);
config.insert(
"num_layers".to_string(),
self.model_config.num_layers.to_string(),
);
config.insert(
"num_heads".to_string(),
self.model_config.num_heads.to_string(),
);
config.insert(
"gradient_checkpointing".to_string(),
self.model_config.gradient_checkpointing.to_string(),
);
config.insert(
"mixed_precision".to_string(),
self.model_config.mixed_precision.to_string(),
);
config.insert(
"aggregation_strategy".to_string(),
format!("{:?}", self.federated_config.aggregation_strategy),
);
config.insert(
"compression_ratio".to_string(),
self.federated_config.compression_ratio.to_string(),
);
config.insert(
"max_devices_per_round".to_string(),
self.federated_config.max_devices_per_round.to_string(),
);
config.insert(
"device_selection".to_string(),
format!("{:?}", self.federated_config.device_selection),
);
config
}
}
#[cfg(all(test, feature = "disabled_tests"))]
mod tests {
use super::*;
#[test]
fn test_edge_aware_training_creation() {
let device = Device::cuda(0).unwrap_or(Device::default());
let targets = vec![EdgeTarget::ARM, EdgeTarget::WASM];
let training = EdgeAwareTraining::new(&targets, &device).unwrap();
assert_eq!(training.targets.len(), 2);
assert!(!training.quantization_params.is_empty());
assert_eq!(training.name(), "ProductionEdgeAwareTraining");
}
#[test]
fn test_adaptive_config_generation() {
let capabilities = EdgeCapabilities {
compute_units: 4,
memory_mb: 2048,
simd_support: SIMDClass::NEON,
power_budget: PowerClass::HighBattery,
network: NetworkClass::WiFi,
edge_class: EdgeClass::Mid,
optimization_flags: HashMap::new(),
};
let config = EdgeAwareTraining::create_adaptive_config(&capabilities);
assert_eq!(config.dimension_scale, 0.7);
assert_eq!(config.num_layers, 8);
assert_eq!(config.precision, QuantizationLevel::FP16);
}
#[test]
fn test_edge_transformer_config() {
let config = EdgeTransformerConfig {
dimension_scale: 0.5,
num_layers: 6,
num_heads: 6,
precision: QuantizationLevel::INT8,
gradient_checkpointing: true,
mixed_precision: false,
};
assert_eq!(config.dimension_scale, 0.5);
assert_eq!(config.num_layers, 6);
assert_eq!(config.num_heads, 6);
assert_eq!(config.precision, QuantizationLevel::INT8);
assert!(config.gradient_checkpointing);
assert!(!config.mixed_precision);
}
#[test]
fn test_revolutionary_enhancement_interface() {
let device = Device::cuda(0).unwrap_or(Device::default());
let targets = vec![EdgeTarget::ARM];
let training = EdgeAwareTraining::new(&targets, &device).unwrap();
assert_eq!(training.name(), "ProductionEdgeAwareTraining");
assert!(training.is_available());
let config = training.config();
assert!(config.contains_key("targets"));
assert!(config.contains_key("edge_class"));
assert!(config.contains_key("quantization_precision"));
let stats = training.get_stats();
assert!(stats.contains_key("memory_reduction"));
assert!(stats.contains_key("inference_speedup"));
assert!(stats.contains_key("federated_max_devices"));
}
#[test]
fn test_training_mode_setting() {
let device = Device::cuda(0).unwrap_or(Device::default());
let targets = vec![EdgeTarget::ARM];
let mut training = EdgeAwareTraining::new(&targets, &device).unwrap();
assert!(!training.training);
training.set_training(true);
assert!(training.training);
}
#[test]
fn test_deployment_validation() {
let device = Device::cuda(0).unwrap_or(Device::default());
let targets = vec![EdgeTarget::ARM, EdgeTarget::WASM];
let training = EdgeAwareTraining::new(&targets, &device).unwrap();
let validation = training.validate_deployment().unwrap();
assert_eq!(validation.len(), 2);
assert!(validation.contains_key(&EdgeTarget::ARM));
assert!(validation.contains_key(&EdgeTarget::WASM));
}
#[test]
fn test_optimization_report() {
let device = Device::cuda(0).unwrap_or(Device::default());
let targets = vec![EdgeTarget::ARM];
let mut training = EdgeAwareTraining::new(&targets, &device).unwrap();
let report = training.optimize_for_inference().unwrap();
assert!(!report.optimizations_applied.is_empty());
assert!(report.memory_reduction_ratio > 0.0);
assert!(report.speed_improvement > 1.0);
}
}