QAM is a cutting-edge quantum-inspired task scheduling and agent orchestration system that leverages Azure Quantum's capabilities for optimizing multi-agent operations. By utilizing quantum computing principles, QAM can efficiently solve complex scheduling problems that would be computationally intensive for classical approaches.
- Quantum-Optimized Scheduling: Utilizes Azure Quantum for solving QUBO-based scheduling problems
- Hierarchical Cluster Management: Organizes agents into optimized clusters for efficient task distribution
- Resource-Aware Optimization: Considers resource requirements and constraints in optimization decisions
- Quantum ReACT Integration: Quantum-enhanced reasoning for agent decision making
- Automatic Fallback Mechanisms: Graceful degradation to classical methods when quantum resources are unavailable
- Parallel Quantum Job Processing: Submit multiple optimization jobs simultaneously
- Dynamic Resource Balancing: Automatically adjusts cluster sizes based on workload
- Quantum Circuit Execution: Direct quantum circuit implementation for specific optimization tasks
- Hybrid Optimization: Combines classical and quantum approaches for optimal performance
- Superior Task Distribution: Quantum optimization finds better solutions than classical methods
- Scalable Architecture: Handles growing agent populations efficiently
- Resource Efficiency: Optimizes resource utilization across agent clusters
- Future-Proof Design: Ready for next-generation quantum hardware
- Robust Error Handling: Comprehensive fallback mechanisms ensure system reliability
# Install Azure CLI
curl -sL https://aka.ms/InstallAzureCLIDeb | sudo bash
# Verify installation
az --version
# Add quantum extension
az extension add -n quantum
# Login to Azure
az login --use-device-codepip install -r requirements.txtfrom qam.azure_quantum import AzureQuantumConfig, AzureQuantumClient
# Configure workspace
config = AzureQuantumConfig(
resource_group="your-resource-group",
workspace_name="your-workspace",
location="your-location",
subscription_id="your-subscription-id" # Optional
)
# Initialize client
client = AzureQuantumClient(config)from qam.cluster_management import ClusterManager
# Initialize manager
manager = ClusterManager()
# Create clusters
cluster1 = manager.create_cluster()
cluster2 = manager.create_cluster()
# Add agents
cluster1.add_agent("agent1")
cluster1.add_agent("agent2")
# Update resource requirements
cluster1.update_resource_requirements({
"cpu": 2.0,
"memory": 4.0
})
# Optimize cluster structure
assignments = manager.optimize_cluster_structure()from qam.scheduler import QUBOScheduler
from qam.quantum_reasoning import QuantumReasoningState
# Initialize scheduler
scheduler = QUBOScheduler()
# Create quantum reasoning state
state = QuantumReasoningState()
# Define scheduling problem
horizon = 10
result = scheduler.optimize_schedule_with_reasoning(
tasks=[...], # Your tasks here
horizon=horizon,
reasoning_state=state
)# Configure QUBO parameters
scheduler.base_weights = {
"time_penalty": 1.0,
"resource_penalty": 2.0,
"dependency_penalty": 3.0
}
# Set quantum circuit parameters
scheduler.quantum_parameters = {
"shots": 1000,
"optimization_level": 2
}from qam.enhanced_scheduler import EnhancedQUBOScheduler
# Initialize enhanced scheduler
scheduler = EnhancedQUBOScheduler()
# Configure parallel jobs
scheduler.max_parallel_jobs = 4
# Run hierarchical optimization
levels = scheduler.build_hierarchical_qubo(
tasks=[...],
clusters={...},
max_cluster_size=100
)# Define custom quantum circuit
circuit = {
"input_qubits": 2,
"operations": [
{"gate": "h", "targets": [0]},
{"gate": "cnot", "controls": [0], "targets": [1]}
]
}
# Submit custom circuit
job_id = client.submit_qubo(circuit)
result = client.wait_for_job(job_id)# Azure Quantum Configuration
export AZURE_SUBSCRIPTION_ID="your-subscription-id"
export AZURE_QUANTUM_WORKSPACE="your-workspace-name"
export AZURE_QUANTUM_LOCATION="your-location"# Cluster optimization
manager.optimization_parameters = {
"target_cluster_size": 50,
"split_threshold": 100,
"merge_threshold": 20
}
# QUBO parameters
scheduler.optimization_parameters = {
"timeout": 100,
"beta_start": 0.1,
"beta_stop": 1.0,
"sweeps": 1000
}- Set appropriate cluster size thresholds based on workload
- Adjust penalty weights for different optimization criteria
- Configure parallel job limits based on available quantum resources
- Use appropriate number of qubits for problem size
- Adjust circuit depth based on quantum hardware capabilities
- Balance between quantum and classical processing
try:
result = scheduler.optimize_schedule_with_reasoning(...)
except Exception as e:
# Fallback to classical optimization
result = scheduler._classical_optimization()try:
job_id = client.submit_qubo(problem)
result = client.wait_for_job(job_id)
except Exception as e:
print(f"Quantum job failed: {e}")
# Implement fallback strategy- Fork the repository
- Create a feature branch
- Commit your changes
- Push to the branch
- Create a Pull Request
MIT License - see LICENSE file for details
