Agent clusters are the fundamental organizational units in QAM. They enable efficient management of large-scale agent systems through hierarchical organization and quantum-optimized resource allocation.
from qam.cluster_management import ClusterManager, AgentCluster
from qam.quantum_reasoning import QuantumReACT
# Initialize cluster management
manager = ClusterManager()
# Create a new cluster
cluster = manager.create_cluster()
# Add agents to cluster
cluster.add_agent("agent1")
cluster.add_agent("agent2")
# Update resource requirements
cluster.update_resource_requirements({
"cpu": 4,
"memory": 8192,
"qubits": 100
})QAM provides sophisticated resource management capabilities, ensuring optimal distribution of computational and quantum resources across agent clusters.
from qam.resource_management import ResourceManager
# Initialize resource management
rm = ResourceManager()
# Add resource pools
rm.add_resource_pool("quantum_compute", 1000, "qubits")
rm.add_resource_pool("classical_compute", 5000, "cpu_cores")
# Allocate resources to clusters
allocation = rm.allocate_resource("quantum_compute", "cluster-1", 250)
print(f"Allocated {allocation.amount} qubits to {allocation.cluster_id}")
# Monitor resource utilization
metrics = rm._calculate_utilization()
print(f"Current utilization: {metrics}")The QuantumReACT engine enables quantum-inspired decision making, allowing agents to make optimal choices based on complex contextual information.
from qam.quantum_reasoning import QuantumReasoningState, QuantumReACT
# Initialize quantum reasoning
react_engine = QuantumReACT()
reasoning_state = QuantumReasoningState()
# Define decision context
context = {
"available_actions": ["process_task", "delegate_task", "postpone_task"],
"current_load": 0.75,
"priority_level": "high",
"resource_availability": 0.4
}
# Make quantum-informed decision
decision = react_engine.make_decision(context, reasoning_state)
print(f"Chosen action: {decision.action} (confidence: {decision.confidence})")
# Process outcome and update reasoning
outcome = Outcome(
decision_id=decision.id,
success=True,
feedback={"completion_time": 120, "resource_usage": 0.3},
timestamp=time.time()
)
react_engine.reflect_and_adjust(outcome, reasoning_state)-
Dynamic Scaling
- Monitor resource utilization
- Adjust allocations based on demand
- Implement automatic scaling thresholds
-
Quantum-Classical Hybrid Optimization
- Use quantum resources for complex decisions
- Leverage classical computing for routine tasks
- Balance resource costs and performance
-
Hierarchical Organization
- Group related agents together
- Maintain optimal cluster sizes (100-1000 agents)
- Implement sub-clustering for large groups
-
Resource Distribution
- Allocate resources based on priority
- Implement fair-sharing policies
- Monitor and adjust based on utilization
# Get cluster performance metrics
cluster_metrics = cluster.get_performance_metrics()
print(f"Cluster efficiency: {cluster_metrics['efficiency']}")
# Monitor resource allocation
allocation_history = rm.get_allocation_history("quantum_compute")
for record in allocation_history:
print(f"Time: {record.timestamp}, Amount: {record.amount}")# Check cluster health
for cluster_id, cluster in manager.root_clusters:
metrics = cluster.get_total_resource_requirements()
utilization = cluster.get_performance_metrics()
print(f"Cluster {cluster_id}:")
print(f" Resources: {metrics}")
print(f" Utilization: {utilization}")-
Resource Exhaustion
- Implement graceful degradation
- Use backup resource pools
- Prioritize critical operations
-
Decision Conflicts
- Implement conflict resolution strategies
- Use quantum reasoning for optimal choices
- Maintain decision history for learning
# Implement recovery from resource exhaustion
try:
allocation = rm.allocate_resource("quantum_compute", "cluster-1", 1000)
except ResourceExhaustionError:
# Fall back to classical computing
allocation = rm.allocate_resource("classical_compute", "cluster-1", 100)
# Handle decision conflicts
if decision.confidence < 0.6:
# Get alternative decision paths
alternatives = react_engine.get_alternative_decisions(context, reasoning_state)
# Choose best alternative
decision = max(alternatives, key=lambda d: d.confidence)