Orchestration enables the coordination of multiple agents, workflows, and external systems to solve complex problems that require specialized capabilities and parallel execution.
Overview
The Orchestration primitive provides the framework for coordinating complex operations across multiple agents, workflows, and systems. Unlike single-agent execution or linear workflows, orchestration manages parallel operations, dynamic task distribution, resource allocation, and inter-agent communication. Orchestration is essential for:- Complex Problem Solving: Break down complex tasks across specialized agents
- Parallel Execution: Run multiple operations simultaneously for efficiency
- Resource Management: Allocate tasks based on agent capabilities and availability
- Dynamic Coordination: Adapt execution based on intermediate results
- System Integration: Coordinate across multiple external systems and services
- Scalability: Handle high-volume operations with automatic load distribution
Multi-Agent Coordination
Manage multiple specialized agents working together on complex tasks
Dynamic Task Routing
Intelligently route tasks to appropriate agents based on capabilities
Parallel Execution
Execute multiple operations concurrently for optimal performance
State Synchronization
Maintain consistent state across distributed agent executions
How Orchestration Works
When you use orchestration:- Task Analysis: Orchestrator analyzes the problem and identifies sub-tasks
- Agent Selection: Routes tasks to appropriate specialized agents
- Parallel Execution: Executes independent tasks concurrently
- Result Aggregation: Collects and synthesizes results from all agents
- Dependency Management: Ensures tasks execute in proper order when dependent
- Error Handling: Manages failures and retries across distributed execution
Intelligent Routing: The orchestrator automatically selects the best agent for each task based on capabilities, availability, and past performance.
Orchestration Patterns
Hub-and-Spoke
Central orchestrator coordinates multiple specialized agents:Pipeline
Sequential processing through specialized agents:Map-Reduce
Parallel processing with aggregation:Code Examples
Basic Orchestration
Explicit Task Distribution
Map-Reduce Pattern
Dynamic Agent Routing
Monitoring Orchestration
Use Cases
1. Comprehensive Research Reports
Orchestrate research, analysis, and writing:2. E-Commerce Order Processing
Coordinate order fulfillment across multiple systems:3. Content Production Pipeline
Orchestrate content creation workflow:4. Customer Support Triage
Route and handle support tickets:5. Data Processing Pipeline
Process large datasets with parallel agents:6. Software Development Workflow
Coordinate development tasks:Best Practices
Agent Design
Single Responsibility
Single Responsibility
Clear Capability Definitions
Clear Capability Definitions
Appropriate Granularity
Appropriate Granularity
Dependency Management
Error Handling
Resource Management
Limit Parallel Execution
Limit Parallel Execution
Batch Processing
Batch Processing
Timeout Configuration
Timeout Configuration
Integration with Other Primitives
With Workflows
Combine orchestration with structured workflows:With Memory
Share knowledge across orchestrated agents:With Custom Tools
Provide specialized tools to agents:With Multi-Agent Transfer
Enable agent-to-agent transfers:Performance Considerations
Parallel vs Sequential
Cost Optimization
Monitoring and Metrics
Troubleshooting
Tasks Not Executing in Parallel
Tasks Not Executing in Parallel
Problem: Tasks run sequentially despite no dependenciesSolutions:
- Verify tasks have no dependencies defined
- Check concurrency limits aren’t too restrictive
- Ensure enough agent instances are available
- Review agent capability matching
Agent Selection Not Working
Agent Selection Not Working
Problem: Wrong agents being selected for tasksSolutions:
- Make agent descriptions more specific
- Add explicit capability definitions
- Use explicit agent assignment instead of automatic routing
- Review task descriptions for clarity
Orchestration Timeout
Orchestration Timeout
Problem: Orchestration times out before completionSolutions:
- Increase overall orchestration timeout
- Optimize slow tasks
- Increase parallel execution
- Break into smaller orchestrations
Dependency Deadlock
Dependency Deadlock
Problem: Tasks waiting for each other creating deadlockSolutions:
- Review dependency graph for cycles
- Ensure dependencies are acyclic (DAG)
- Use visualization tools to inspect dependencies
- Simplify dependency structure
Advanced Patterns
Conditional Orchestration
Adapt execution based on intermediate results:Hierarchical Orchestration
Orchestrations calling orchestrations:Event-Driven Orchestration
Trigger orchestrations from events:Related Primitives
Workflow
Structure multi-step processes with defined logic
Multi-Agent
Enable collaboration between agents
Parallelization
Execute tasks concurrently for performance
Background
Run orchestrations asynchronously
Additional Resources
API Reference
Complete orchestration API docs
Orchestration Patterns
Common design patterns
Examples
Real-world examples