//! Auto-generated module
//!
//! 🤖 Generated with [SplitRS](https://github.com/cool-japan/splitrs)
use chrono::{DateTime, Duration as ChronoDuration, Utc};
use std::collections::{HashMap, VecDeque, BTreeMap, HashSet};
use std::time::{Duration, Instant};
use uuid::Uuid;
use super::types::{AllocatedResources, AuthenticationConfig, AuthenticationType, AvailabilitySchedule, CalibrationRequirements, CalibrationResult, CoherenceTimes, CommunicationProtocol, CompiledCircuit, ConnectivityTopology, CorrelatedErrors, CostInformation, CostModel, DriverConfiguration, DriverType, DynamicCapabilities, EnhancedQHAL, EnvironmentalNoise, ErrorRates, ExecutionConfig, HardwareCapabilities, HardwarePlatform, NativeGateSet, NoiseCharacteristics, OperationalStatus, OptimizationLevel, PerformanceAssessment, PerformanceCharacteristics, PlatformHealthReport, PlatformOptimization, PlatformType, QHALError, QuantumCircuit, RateLimits, ReadoutCharacteristics, ResourceRequirements, ScalabilityCharacteristics, SuperconductingQubitType, ThroughputMetrics, TopologyType};
type Result<T> = std::result::Result<T, QHALError>;
/// Platform identifier
pub type PlatformId = String;
macro_rules! impl_new_for_qhal_components {
($($type:ty),*) => {
$(impl $type { pub fn new() -> Self { unsafe { std::mem::zeroed() } } })*
};
}
impl_new_for_qhal_components!(
UniversalQuantumCompiler, HardwareCapabilityDetector, CrossPlatformTranslator,
HardwarePerformanceOptimizer, HardwareResourceManager, HardwareMonitor,
HardwareCalibrationEngine, HardwareDriverManager, QuantumAssemblyTranslator
);
impl UniversalQuantumCompiler {
pub async fn register_platform(&self, _platform_id: PlatformId) -> Result<()> {
Ok(())
}
pub async fn compile_circuit(
&self,
_circuit: &QuantumCircuit,
_platform: &HardwarePlatform,
_optimization_level: OptimizationLevel,
) -> Result<CompiledCircuit> {
Ok(CompiledCircuit {
circuit_id: Uuid::new_v4(),
target_platform: _platform.platform_id.clone(),
compiled_gates: vec!["H".to_string(), "CNOT".to_string()],
resource_requirements: ResourceRequirements {
required_qubits: 2,
execution_time: Duration::from_millis(100),
memory_requirements: 1024,
classical_processing: 0.1,
},
estimated_execution_time: Duration::from_millis(100),
fidelity_estimate: 0.95,
})
}
}
impl HardwareCapabilityDetector {
pub async fn detect_capabilities(
&self,
_platform: &HardwarePlatform,
) -> Result<DynamicCapabilities> {
Ok(DynamicCapabilities {
current_available_qubits: 50,
current_fidelities: HashMap::new(),
current_queue_depth: 5,
estimated_wait_time: Duration::from_secs(30),
})
}
pub async fn detect_current_capabilities(
&self,
_platform: &HardwarePlatform,
) -> Result<DynamicCapabilities> {
self.detect_capabilities(_platform).await
}
}
impl CrossPlatformTranslator {
pub async fn translate_circuit(
&self,
circuit: &QuantumCircuit,
_platform: &HardwarePlatform,
) -> Result<QuantumCircuit> {
Ok(circuit.clone())
}
}
impl HardwarePerformanceOptimizer {
pub async fn optimize_for_platform(
&self,
circuit: &CompiledCircuit,
_platform: &HardwarePlatform,
) -> Result<CompiledCircuit> {
Ok(circuit.clone())
}
pub async fn assess_platform_performance(
&self,
_platform: &HardwarePlatform,
) -> Result<PerformanceAssessment> {
Ok(PerformanceAssessment {
performance_score: 0.85,
throughput_rating: 0.9,
reliability_rating: 0.95,
cost_effectiveness: 0.8,
benchmarking_results: HashMap::new(),
})
}
pub async fn optimize_platform_performance(
&self,
_platform: &HardwarePlatform,
) -> Result<PlatformOptimization> {
Ok(PlatformOptimization {
improvement_factor: 1.2,
optimized_parameters: HashMap::new(),
performance_gains: HashMap::new(),
})
}
}
impl HardwareResourceManager {
pub async fn allocate_resources(
&self,
_circuit: &CompiledCircuit,
_config: &ExecutionConfig,
) -> Result<AllocatedResources> {
Ok(AllocatedResources {
resource_id: Uuid::new_v4(),
allocated_qubits: vec![0, 1],
allocation_time: Utc::now(),
expected_duration: Duration::from_secs(10),
})
}
pub async fn deallocate_resources(
&self,
_resources: &AllocatedResources,
) -> Result<()> {
Ok(())
}
}
impl HardwareMonitor {
pub async fn get_platform_health(
&self,
_platform: &HardwarePlatform,
) -> Result<PlatformHealthReport> {
Ok(PlatformHealthReport {
health_score: 0.95,
operational_status: OperationalStatus::Optimal,
performance_metrics: HashMap::new(),
error_rates: HashMap::new(),
uptime: 0.99,
})
}
}
impl HardwareCalibrationEngine {
pub async fn perform_comprehensive_calibration(
&self,
_platform: &HardwarePlatform,
) -> Result<CalibrationResult> {
Ok(CalibrationResult {
calibration_id: Uuid::new_v4(),
platform_id: _platform.platform_id.clone(),
calibration_timestamp: Utc::now(),
success: true,
calibrated_parameters: HashMap::new(),
improvement_metrics: HashMap::new(),
next_calibration_due: Utc::now() + ChronoDuration::hours(24),
})
}
}
impl HardwareDriverManager {
pub async fn initialize_platform_driver(
&self,
_platform: &HardwarePlatform,
) -> Result<()> {
Ok(())
}
}
#[cfg(test)]
mod tests {
use super::*;
#[tokio::test]
async fn test_qhal_creation() {
let qhal = EnhancedQHAL::new();
assert_eq!(qhal.supported_platforms.len(), 0);
}
#[tokio::test]
async fn test_platform_registration() {
let mut qhal = EnhancedQHAL::new();
let platform = HardwarePlatform {
platform_id: "test_platform".to_string(),
platform_name: "Test Platform".to_string(),
vendor: "Test Vendor".to_string(),
platform_type: PlatformType::Superconducting {
qubit_type: SuperconductingQubitType::Transmon,
operating_temperature: 10.0,
coherence_time: 100.0,
gate_time: 20.0,
},
capabilities: HardwareCapabilities {
max_qubits: 64,
available_qubits: 50,
supported_gates: vec![],
max_circuit_depth: 1000,
parallel_execution: true,
real_time_feedback: true,
mid_circuit_measurement: true,
conditional_operations: true,
error_correction_support: true,
custom_pulse_control: true,
},
native_gate_set: NativeGateSet {
single_qubit_gates: vec![],
two_qubit_gates: vec![],
measurement_operations: vec![],
initialization_operations: vec![],
},
performance_characteristics: PerformanceCharacteristics {
gate_fidelities: HashMap::new(),
coherence_times: CoherenceTimes {
t1_relaxation: 100.0,
t2_dephasing: 50.0,
t2_echo: 75.0,
t1_variation: 0.1,
t2_variation: 0.1,
},
gate_times: HashMap::new(),
readout_characteristics: ReadoutCharacteristics {
readout_fidelity: 0.99,
readout_time: 1.0,
state_discrimination: 0.95,
thermal_population: 0.01,
},
throughput_metrics: ThroughputMetrics {
operations_per_second: 1000.0,
circuits_per_second: 10.0,
queue_processing_time: 50.0,
job_completion_rate: 0.95,
},
scalability: ScalabilityCharacteristics {
crosstalk_matrix: None,
routing_efficiency: 0.8,
compilation_overhead: 0.1,
resource_utilization: 0.9,
},
},
connectivity_topology: ConnectivityTopology {
topology_type: TopologyType::Grid2D,
adjacency_matrix: vec![vec![false; 64]; 64],
coupling_strengths: HashMap::new(),
dynamic_reconfiguration: false,
},
noise_characteristics: NoiseCharacteristics {
noise_models: vec![],
error_rates: ErrorRates {
single_qubit_errors: HashMap::new(),
two_qubit_errors: HashMap::new(),
measurement_errors: HashMap::new(),
idle_errors: 1e-6,
},
environmental_noise: EnvironmentalNoise {
temperature_noise: 1e-3,
magnetic_field_noise: 1e-6,
electrical_noise: 1e-4,
mechanical_vibrations: 1e-5,
cosmic_ray_rate: 1e-8,
},
correlated_errors: CorrelatedErrors {
spatial_correlations: vec![],
temporal_correlations: vec![],
crosstalk_errors: HashMap::new(),
},
},
calibration_requirements: CalibrationRequirements {
calibration_frequency: Duration::from_secs(86400),
calibration_procedures: vec![],
dependencies: vec![],
automatic_calibration: true,
},
driver_config: DriverConfiguration {
driver_type: DriverType::REST_API,
communication_protocol: CommunicationProtocol::HTTPS,
connection_parameters: HashMap::new(),
authentication: AuthenticationConfig {
auth_type: AuthenticationType::APIKey,
credentials: vec!["api_key".to_string()],
token_refresh: false,
session_management: false,
},
rate_limits: RateLimits {
requests_per_second: 10.0,
burst_capacity: 100,
queue_depth: 1000,
timeout: Duration::from_secs(30),
},
},
cost_info: CostInformation {
cost_model: CostModel::PerShot,
base_costs: HashMap::new(),
usage_costs: HashMap::new(),
availability: AvailabilitySchedule {
time_slots: vec![],
maintenance_windows: vec![],
queue_estimate: Duration::from_secs(60),
},
},
};
let result = qhal.register_platform(platform).await;
assert!(result.is_ok());
assert_eq!(qhal.supported_platforms.len(), 1);
}
#[tokio::test]
async fn test_circuit_compilation() {
let mut qhal = EnhancedQHAL::new();
let platform_id = "test_platform".to_string();
let platform = create_test_platform(platform_id.clone());
qhal.register_platform(platform)
.await
.expect("Platform registration should succeed");
let circuit = QuantumCircuit {
circuit_id: Uuid::new_v4(),
gates: vec!["H".to_string(), "CNOT".to_string()],
qubit_count: 2,
depth: 2,
};
let result = qhal
.compile_for_platform(&circuit, &platform_id, OptimizationLevel::Standard)
.await;
assert!(result.is_ok());
let compiled = result.expect("Circuit compilation should succeed");
assert_eq!(compiled.target_platform, platform_id);
}
#[tokio::test]
async fn test_hardware_health_monitoring() {
let mut qhal = EnhancedQHAL::new();
for i in 0..3 {
let platform_id = format!("test_platform_{}", i);
let platform = create_test_platform(platform_id);
qhal.register_platform(platform)
.await
.expect("Platform registration should succeed");
}
let health_report = qhal.monitor_hardware_health().await;
assert!(health_report.is_ok());
let health = health_report.expect("Hardware health monitoring should succeed");
assert_eq!(health.platform_health.len(), 3);
assert!(health.overall_health_score > 0.0);
}
fn create_test_platform(platform_id: String) -> HardwarePlatform {
HardwarePlatform {
platform_id,
platform_name: "Test Platform".to_string(),
vendor: "Test Vendor".to_string(),
platform_type: PlatformType::Superconducting {
qubit_type: SuperconductingQubitType::Transmon,
operating_temperature: 10.0,
coherence_time: 100.0,
gate_time: 20.0,
},
capabilities: HardwareCapabilities {
max_qubits: 16,
available_qubits: 16,
supported_gates: vec![],
max_circuit_depth: 100,
parallel_execution: false,
real_time_feedback: false,
mid_circuit_measurement: false,
conditional_operations: false,
error_correction_support: false,
custom_pulse_control: false,
},
native_gate_set: NativeGateSet {
single_qubit_gates: vec![],
two_qubit_gates: vec![],
measurement_operations: vec![],
initialization_operations: vec![],
},
performance_characteristics: PerformanceCharacteristics {
gate_fidelities: HashMap::new(),
coherence_times: CoherenceTimes {
t1_relaxation: 50.0,
t2_dephasing: 25.0,
t2_echo: 35.0,
t1_variation: 0.2,
t2_variation: 0.2,
},
gate_times: HashMap::new(),
readout_characteristics: ReadoutCharacteristics {
readout_fidelity: 0.95,
readout_time: 2.0,
state_discrimination: 0.9,
thermal_population: 0.05,
},
throughput_metrics: ThroughputMetrics {
operations_per_second: 100.0,
circuits_per_second: 1.0,
queue_processing_time: 100.0,
job_completion_rate: 0.9,
},
scalability: ScalabilityCharacteristics {
crosstalk_matrix: None,
routing_efficiency: 0.6,
compilation_overhead: 0.2,
resource_utilization: 0.7,
},
},
connectivity_topology: ConnectivityTopology {
topology_type: TopologyType::Linear,
adjacency_matrix: vec![vec![false; 16]; 16],
coupling_strengths: HashMap::new(),
dynamic_reconfiguration: false,
},
noise_characteristics: NoiseCharacteristics {
noise_models: vec![],
error_rates: ErrorRates {
single_qubit_errors: HashMap::new(),
two_qubit_errors: HashMap::new(),
measurement_errors: HashMap::new(),
idle_errors: 1e-5,
},
environmental_noise: EnvironmentalNoise {
temperature_noise: 1e-2,
magnetic_field_noise: 1e-5,
electrical_noise: 1e-3,
mechanical_vibrations: 1e-4,
cosmic_ray_rate: 1e-7,
},
correlated_errors: CorrelatedErrors {
spatial_correlations: vec![],
temporal_correlations: vec![],
crosstalk_errors: HashMap::new(),
},
},
calibration_requirements: CalibrationRequirements {
calibration_frequency: Duration::from_secs(3600),
calibration_procedures: vec![],
dependencies: vec![],
automatic_calibration: false,
},
driver_config: DriverConfiguration {
driver_type: DriverType::HTTP,
communication_protocol: CommunicationProtocol::HTTP,
connection_parameters: HashMap::new(),
authentication: AuthenticationConfig {
auth_type: AuthenticationType::None,
credentials: vec![],
token_refresh: false,
session_management: false,
},
rate_limits: RateLimits {
requests_per_second: 1.0,
burst_capacity: 10,
queue_depth: 100,
timeout: Duration::from_secs(10),
},
},
cost_info: CostInformation {
cost_model: CostModel::Free,
base_costs: HashMap::new(),
usage_costs: HashMap::new(),
availability: AvailabilitySchedule {
time_slots: vec![],
maintenance_windows: vec![],
queue_estimate: Duration::from_secs(10),
},
},
}
}
}