Files
rustytorch/benches/edge_performance_bench.rs
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2026-03-04 00:08:42 +00:00

597 lines
22 KiB
Rust

//! Edge-aware training performance benchmarks
//!
//! Benchmarks validate performance targets across all edge platforms:
//! - ARM NEON: Target 2.5x speedup over scalar
//! - RISC-V RVV: Target 4.8x speedup with vector extensions
//! - WASM SIMD: Target 1.8x speedup in browser
//! - Mobile GPU: Target 4.0x speedup with compute shaders
//! - IoT devices: Target 10x power efficiency improvement
use criterion::{black_box, criterion_group, criterion_main, Criterion, BenchmarkId};
use rustytorch::revolutionary::*;
use std::collections::HashMap;
use std::time::{Duration, Instant, SystemTime};
/// Benchmark ARM NEON optimization performance
fn benchmark_arm_neon_optimization(c: &mut Criterion) {
let mut group = c.benchmark_group("ARM_NEON_Optimization");
let test_cases = vec![
("Cortex-A", ArmArchitecture::CortexA, true),
("Apple_Silicon", ArmArchitecture::AppleSilicon, true),
("Cortex-A_No_NEON", ArmArchitecture::CortexA, false),
];
for (name, arch, enable_neon) in test_cases {
group.bench_with_input(BenchmarkId::new("optimization", name), &(arch, enable_neon),
|b, (arch, neon)| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let arm_opts = ArmOptimizations {
enable_neon: *neon,
memory_prefetch: true,
cache_optimization: true,
big_little_scheduling: true,
target_arch: *arch,
};
optimizer.configure_arm(arm_opts);
black_box(optimizer.optimize_for_target(EdgeTarget::ARM).unwrap())
})
});
}
group.finish();
}
/// Benchmark RISC-V vector extension performance
fn benchmark_riscv_vector_optimization(c: &mut Criterion) {
let mut group = c.benchmark_group("RISCV_Vector_Optimization");
let vector_lengths = vec![
("VLEN128", RiscVVectorLength::VLEN128),
("VLEN256", RiscVVectorLength::VLEN256),
("VLEN512", RiscVVectorLength::VLEN512),
("Variable", RiscVVectorLength::Variable),
];
for (name, vlen) in vector_lengths {
group.bench_with_input(BenchmarkId::new("vector_length", name), &vlen,
|b, vlen| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let riscv_opts = RiscVOptimizations {
enable_rvv: true,
vector_length: *vlen,
custom_instructions: vec!["custom_matmul".to_string(), "custom_conv".to_string()],
memory_model: RiscVMemoryModel::TSO,
target_variant: RiscVVariant::Vector,
};
optimizer.configure_riscv(riscv_opts);
black_box(optimizer.optimize_for_target(EdgeTarget::RISCV).unwrap())
})
});
}
group.finish();
}
/// Benchmark WebAssembly SIMD performance
fn benchmark_wasm_simd_optimization(c: &mut Criterion) {
let mut group = c.benchmark_group("WASM_SIMD_Optimization");
let runtime_configs = vec![
("Browser_SIMD", WasmRuntime::Browser, true, true),
("Browser_No_SIMD", WasmRuntime::Browser, false, false),
("Wasmtime_SIMD", WasmRuntime::Wasmtime, true, true),
("NodeJS_SIMD", WasmRuntime::NodeJS, true, true),
];
for (name, runtime, simd, threads) in runtime_configs {
group.bench_with_input(BenchmarkId::new("runtime", name), &(runtime, simd, threads),
|b, (runtime, simd, threads)| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let wasm_opts = WasmOptimizations {
enable_simd: *simd,
enable_threads: *threads,
memory_growth: WasmMemoryGrowth::Dynamic { max_pages: 2048 },
target_runtime: *runtime,
bulk_memory: true,
};
optimizer.configure_wasm(wasm_opts);
black_box(optimizer.optimize_for_target(EdgeTarget::WASM).unwrap())
})
});
}
group.finish();
}
/// Benchmark Mobile GPU optimization across vendors
fn benchmark_mobile_gpu_optimization(c: &mut Criterion) {
let mut group = c.benchmark_group("Mobile_GPU_Optimization");
let gpu_vendors = vec![
("Mali", MobileGpuVendor::Mali),
("Adreno", MobileGpuVendor::Adreno),
("PowerVR", MobileGpuVendor::PowerVR),
("Apple_GPU", MobileGpuVendor::Apple),
("Intel_GPU", MobileGpuVendor::Intel),
];
for (name, vendor) in gpu_vendors {
group.bench_with_input(BenchmarkId::new("gpu_vendor", name), &vendor,
|b, vendor| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let mobile_gpu_opts = MobileGpuOptimizations {
gpu_vendor: *vendor,
compute_shaders: true,
tile_based_rendering: true,
bandwidth_optimization: true,
power_efficiency: true,
};
optimizer.configure_mobile_gpu(mobile_gpu_opts);
black_box(optimizer.optimize_for_target(EdgeTarget::MobileGPU).unwrap())
})
});
}
group.finish();
}
/// Benchmark IoT ultra-low power optimization
fn benchmark_iot_optimization(c: &mut Criterion) {
let mut group = c.benchmark_group("IoT_Ultra_Low_Power");
let iot_platforms = vec![
("ESP32", IoTPlatform::ESP32),
("STM32", IoTPlatform::STM32),
("Arduino", IoTPlatform::Arduino),
("RaspberryPi_Pico", IoTPlatform::RaspberryPiPico),
];
for (name, platform) in iot_platforms {
group.bench_with_input(BenchmarkId::new("platform", name), &platform,
|b, platform| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let iot_opts = IoTOptimizations {
ultra_low_power: true,
minimal_memory: true,
wake_on_inference: true,
mesh_networking: true,
target_platform: *platform,
};
optimizer.configure_iot(iot_opts);
black_box(optimizer.optimize_for_target(EdgeTarget::IoT).unwrap())
})
});
}
group.finish();
}
/// Benchmark federated device selection at scale
fn benchmark_federated_device_selection(c: &mut Criterion) {
let mut group = c.benchmark_group("Federated_Device_Selection");
let device_scales = vec![100, 1_000, 10_000, 50_000];
let selection_strategies = vec![
("Random", SelectionStrategy::Random),
("BatteryAware", SelectionStrategy::BatteryAware),
("NetworkAware", SelectionStrategy::NetworkAware),
("PerformanceBased", SelectionStrategy::PerformanceBased),
("Hybrid", SelectionStrategy::Hybrid),
("Intelligent", SelectionStrategy::Intelligent),
];
for device_count in device_scales {
for (strategy_name, strategy) in &selection_strategies {
let benchmark_name = format!("{}_{}", strategy_name, device_count);
group.bench_with_input(
BenchmarkId::new("device_selection", &benchmark_name),
&(device_count, *strategy),
|b, (count, strat)| {
// Pre-create coordinator with devices
let rt = tokio::runtime::Runtime::new().unwrap();
let (coordinator, _sender) = FederatedCoordinator::new(
"bench-coordinator".to_string(),
*strat,
GradientCompression {
algorithm: CompressionAlgorithm::TopK,
compression_ratio: 0.1,
error_correction: true,
adaptive_compression: true,
},
AggregationStrategy {
algorithm: AggregationAlgorithm::FedAvg,
weighting: WeightingScheme::Adaptive,
byzantine_tolerance: ByzantineTolerance {
enabled: false,
max_byzantine_fraction: 0.0,
detection_algorithm: ByzantineDetection::None,
},
differential_privacy: None,
},
);
rt.block_on(async {
for i in 0..*count {
let device = create_benchmark_device(&format!("device-{:06}", i));
coordinator.register_device(device).await.unwrap();
}
});
let selection_criteria = SelectionCriteria {
min_battery_level: 0.3,
min_bandwidth_mbps: 5.0,
max_latency_ms: 200,
required_availability_minutes: 30,
min_data_quality: 0.7,
};
b.to_async(&rt).iter(|| async {
let target_count = (*count / 10).max(10); // Select 10% of devices
black_box(coordinator.select_devices(target_count as u32, selection_criteria.clone()).await.unwrap())
});
});
}
}
group.finish();
}
/// Benchmark gradient aggregation performance
fn benchmark_gradient_aggregation(c: &mut Criterion) {
let mut group = c.benchmark_group("Gradient_Aggregation");
let device_counts = vec![10, 100, 1_000, 10_000];
let aggregation_algorithms = vec![
("FedAvg", AggregationAlgorithm::FedAvg),
("FedProx", AggregationAlgorithm::FedProx),
("SCAFFOLD", AggregationAlgorithm::SCAFFOLD),
("FedAdam", AggregationAlgorithm::FedAdam),
];
for device_count in device_counts {
for (algo_name, algorithm) in &aggregation_algorithms {
let benchmark_name = format!("{}_{}_devices", algo_name, device_count);
group.bench_with_input(
BenchmarkId::new("aggregation", &benchmark_name),
&(device_count, *algorithm),
|b, (count, algo)| {
let rt = tokio::runtime::Runtime::new().unwrap();
let (coordinator, _sender) = FederatedCoordinator::new(
"bench-coordinator".to_string(),
SelectionStrategy::Random,
GradientCompression {
algorithm: CompressionAlgorithm::TopK,
compression_ratio: 0.1,
error_correction: false,
adaptive_compression: false,
},
AggregationStrategy {
algorithm: *algo,
weighting: WeightingScheme::Equal,
byzantine_tolerance: ByzantineTolerance {
enabled: false,
max_byzantine_fraction: 0.0,
detection_algorithm: ByzantineDetection::None,
},
differential_privacy: None,
},
);
// Create dummy gradient data
let mut device_gradients = HashMap::new();
for i in 0..*count {
let device_id = format!("device-{:06}", i);
device_gradients.insert(device_id, vec![0u8; 1024]); // 1KB per device
}
let round_id = 123456789u64;
b.to_async(&rt).iter(|| async {
black_box(coordinator.aggregate_gradients(round_id, device_gradients.clone()).await.unwrap())
});
});
}
}
group.finish();
}
/// Benchmark end-to-end training round performance
fn benchmark_training_round_e2e(c: &mut Criterion) {
let mut group = c.benchmark_group("Training_Round_E2E");
group.measurement_time(Duration::from_secs(60)); // Longer measurement for E2E
let device_counts = vec![100, 1_000, 5_000];
for device_count in device_counts {
group.bench_with_input(
BenchmarkId::new("e2e_training", device_count.to_string()),
&device_count,
|b, count| {
let rt = tokio::runtime::Runtime::new().unwrap();
b.to_async(&rt).iter_custom(|iters| async move {
let mut total_duration = Duration::from_secs(0);
for _ in 0..iters {
let start = Instant::now();
// Create coordinator
let (coordinator, _sender) = FederatedCoordinator::new(
"bench-coordinator".to_string(),
SelectionStrategy::Intelligent,
GradientCompression {
algorithm: CompressionAlgorithm::TopK,
compression_ratio: 0.01,
error_correction: true,
adaptive_compression: true,
},
AggregationStrategy {
algorithm: AggregationAlgorithm::FedAvg,
weighting: WeightingScheme::Adaptive,
byzantine_tolerance: ByzantineTolerance {
enabled: true,
max_byzantine_fraction: 0.1,
detection_algorithm: ByzantineDetection::Krum,
},
differential_privacy: Some(DifferentialPrivacy {
epsilon: 1.0,
delta: 1e-5,
noise_mechanism: NoiseMechanism::Gaussian,
clipping_threshold: 1.0,
}),
},
);
// Register devices
for i in 0..*count {
let device = create_benchmark_device(&format!("device-{:06}", i));
coordinator.register_device(device).await.unwrap();
}
// Select devices
let selection_criteria = SelectionCriteria {
min_battery_level: 0.3,
min_bandwidth_mbps: 5.0,
max_latency_ms: 200,
required_availability_minutes: 30,
min_data_quality: 0.7,
};
let target_devices = (*count / 10).max(10) as u32;
let selection_result = coordinator.select_devices(target_devices, selection_criteria).await.unwrap();
// Start training round
let training_config = TrainingConfig {
local_epochs: 3,
local_batch_size: 16,
learning_rate: 0.001,
gradient_clipping: Some(1.0),
early_stopping_patience: Some(5),
};
let round_id = coordinator.start_training_round(
selection_result.selected_devices.clone(),
training_config,
Duration::from_secs(300),
).await.unwrap();
// Simulate gradient aggregation
let mut device_gradients = HashMap::new();
for device_id in &selection_result.selected_devices {
device_gradients.insert(device_id.clone(), vec![0u8; 100]);
}
coordinator.aggregate_gradients(round_id, device_gradients).await.unwrap();
total_duration += start.elapsed();
}
total_duration
});
});
}
group.finish();
}
/// Performance validation benchmark - ensures targets are met
fn benchmark_performance_validation(c: &mut Criterion) {
let mut group = c.benchmark_group("Performance_Validation");
group.bench_function("ARM_NEON_Target_2.5x", |b| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let arm_opts = ArmOptimizations {
enable_neon: true,
target_arch: ArmArchitecture::CortexA,
..Default::default()
};
optimizer.configure_arm(arm_opts);
let metrics = optimizer.optimize_for_target(EdgeTarget::ARM).unwrap();
assert!(
metrics.performance_improvement >= 2.5,
"ARM NEON target not met: {:.2}x < 2.5x",
metrics.performance_improvement
);
black_box(metrics)
})
});
group.bench_function("RISCV_RVV_Target_4.8x", |b| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let riscv_opts = RiscVOptimizations {
enable_rvv: true,
vector_length: RiscVVectorLength::VLEN512,
target_variant: RiscVVariant::Vector,
..Default::default()
};
optimizer.configure_riscv(riscv_opts);
let metrics = optimizer.optimize_for_target(EdgeTarget::RISCV).unwrap();
assert!(
metrics.performance_improvement >= 4.8,
"RISC-V RVV target not met: {:.2}x < 4.8x",
metrics.performance_improvement
);
black_box(metrics)
})
});
group.bench_function("WASM_SIMD_Target_1.8x", |b| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let wasm_opts = WasmOptimizations {
enable_simd: true,
enable_threads: true,
..Default::default()
};
optimizer.configure_wasm(wasm_opts);
let metrics = optimizer.optimize_for_target(EdgeTarget::WASM).unwrap();
assert!(
metrics.performance_improvement >= 1.8,
"WASM SIMD target not met: {:.2}x < 1.8x",
metrics.performance_improvement
);
black_box(metrics)
})
});
group.bench_function("Mobile_GPU_Target_4.0x", |b| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let mobile_gpu_opts = MobileGpuOptimizations {
gpu_vendor: MobileGpuVendor::Apple,
compute_shaders: true,
tile_based_rendering: true,
bandwidth_optimization: true,
power_efficiency: true,
};
optimizer.configure_mobile_gpu(mobile_gpu_opts);
let metrics = optimizer.optimize_for_target(EdgeTarget::MobileGPU).unwrap();
assert!(
metrics.performance_improvement >= 4.0,
"Mobile GPU target not met: {:.2}x < 4.0x",
metrics.performance_improvement
);
black_box(metrics)
})
});
group.bench_function("IoT_Power_Target_10x", |b| {
b.iter(|| {
let mut optimizer = EdgeTargetOptimizer::new();
let iot_opts = IoTOptimizations {
ultra_low_power: true,
minimal_memory: true,
wake_on_inference: true,
target_platform: IoTPlatform::ESP32,
..Default::default()
};
optimizer.configure_iot(iot_opts);
let metrics = optimizer.optimize_for_target(EdgeTarget::IoT).unwrap();
assert!(
metrics.power_efficiency_gain >= 10.0,
"IoT power efficiency target not met: {:.2}x < 10.0x",
metrics.power_efficiency_gain
);
black_box(metrics)
})
});
group.finish();
}
// Helper function to create benchmark test devices
fn create_benchmark_device(device_id: &str) -> FederatedDevice {
use std::collections::HashSet;
FederatedDevice {
device_id: device_id.to_string(),
device_type: EdgeDeviceType::StandardMobile,
status: DeviceStatus::Available,
network_info: NetworkInfo {
connection_type: ConnectionType::WiFi,
bandwidth_mbps: 50.0,
latency_ms: 20,
reliability: 0.95,
data_plan: DataPlan {
unlimited: true,
monthly_allowance_gb: None,
current_usage_gb: 0.0,
cost_per_gb: None,
},
},
power_status: PowerStatus {
battery_level: 0.8,
is_charging: false,
power_source: PowerSource::Battery,
estimated_battery_life_minutes: Some(240),
},
compute_capabilities: ComputeCapabilities {
cpu_cores: 4,
ram_mb: 4096,
has_gpu: false,
simd_support: true,
estimated_flops: 1e9,
memory_bandwidth_gbps: 10.0,
},
data_info: DataInfo {
sample_count: 1000,
quality_score: 0.9,
privacy_level: PrivacyLevel::Personal,
distribution: DataDistribution {
distribution_type: "normal".to_string(),
parameters: HashMap::new(),
},
},
availability: AvailabilitySchedule {
timezone_offset_hours: 0,
available_hours: (0..24).collect(),
preferred_duration_minutes: 30,
blackout_periods: vec![],
},
performance_metrics: PerformanceMetrics {
avg_training_time_seconds: 300.0,
avg_upload_time_seconds: 10.0,
accuracy_contribution: 0.85,
reliability_score: 0.9,
communication_efficiency: 0.8,
},
last_seen: SystemTime::now(),
}
}
criterion_group!(
edge_benchmarks,
benchmark_arm_neon_optimization,
benchmark_riscv_vector_optimization,
benchmark_wasm_simd_optimization,
benchmark_mobile_gpu_optimization,
benchmark_iot_optimization,
benchmark_federated_device_selection,
benchmark_gradient_aggregation,
benchmark_training_round_e2e,
benchmark_performance_validation
);
criterion_main!(edge_benchmarks);