Modern Agent Orchestration Frameworks¶
⏱️ Estimated reading time: 22 minutes
Introduction¶
Agent orchestration frameworks provide the infrastructure for coordinating multiple AI agents, managing complex workflows, and building sophisticated multi-agent systems. This section covers the latest frameworks that have emerged in 2024-2025, each offering unique approaches to agent coordination and workflow management.
Framework Overview¶
Quick Comparison¶
Framework | Release | Key Focus | Best For | Complexity |
---|---|---|---|---|
OpenAI Swarm | Jan 2025 | Lightweight coordination | Simple multi-agent tasks | Low |
CrewAI | 2024 | Role-based agents | Team simulations | Medium |
AutoGen | 2023 | Conversational agents | Research & complex dialogues | Medium |
AgentFlow | 2024 | Visual workflows | Business process automation | Low |
Semantic Kernel | 2023 | Enterprise integration | Microsoft ecosystem | High |
LangFlow | 2024 | Visual programming | Rapid prototyping | Low |
1. OpenAI Swarm¶
Overview¶
OpenAI Swarm (released January 2025) is a lightweight, educational framework for building, orchestrating, and deploying multi-agent systems. It emphasizes simplicity and ergonomic design over heavy abstractions.
Core Concepts¶
Agents¶
from swarm import Swarm, Agent
# Define specialized agents
customer_service = Agent(
name="Customer Service",
instructions="You handle customer inquiries politely and efficiently.",
functions=[check_order_status, process_return]
)
technical_support = Agent(
name="Technical Support",
instructions="You solve technical problems and provide detailed solutions.",
functions=[diagnose_issue, provide_solution]
)
# Agents can hand off to each other
def transfer_to_technical():
"""Transfer to technical support for complex issues."""
return technical_support
Orchestration¶
swarm = Swarm()
# Run with automatic handoffs
response = swarm.run(
agent=customer_service,
messages=[{"role": "user", "content": "My device won't turn on"}]
)
# Automatically transfers to technical_support based on context
Key Features¶
- Lightweight: Minimal abstractions, easy to understand
- Stateless: No built-in state management (intentional design choice)
- Handoffs: Agents can transfer control to other agents
- Function Calling: Native OpenAI function calling support
- Educational: Designed for learning and experimentation
Example: Multi-Agent Customer Support¶
from swarm import Swarm, Agent
def check_order(order_id: str) -> str:
# Mock order checking
return f"Order {order_id} is in transit"
def escalate_to_manager():
"""Escalate complex issues to manager."""
return manager_agent
# Define agent hierarchy
frontline_agent = Agent(
name="Frontline Support",
instructions="Handle basic inquiries. Escalate complex issues.",
functions=[check_order, escalate_to_manager]
)
manager_agent = Agent(
name="Support Manager",
instructions="Handle escalated issues with authority to offer compensation.",
functions=[offer_refund, apply_discount]
)
# Use the swarm
swarm = Swarm()
response = swarm.run(
agent=frontline_agent,
messages=[{"role": "user", "content": "I want a refund!"}]
)
2. CrewAI¶
Overview¶
CrewAI enables creation of AI agent crews that work together like human teams, with defined roles, goals, and collaboration patterns.
Core Concepts¶
Agents with Roles¶
from crewai import Agent, Task, Crew
# Define agents with specific roles
researcher = Agent(
role='Senior Research Analyst',
goal='Uncover cutting-edge developments in AI',
backstory="""You work at a leading tech think tank.
Your expertise lies in identifying emerging trends.""",
verbose=True,
allow_delegation=False,
tools=[search_tool, web_scraper]
)
writer = Agent(
role='Tech Content Strategist',
goal='Craft compelling content on tech advancements',
backstory="""You are a renowned Content Strategist,
known for your insightful and engaging articles.""",
verbose=True,
allow_delegation=True,
tools=[writing_tool]
)
Tasks and Workflows¶
# Define tasks
research_task = Task(
description="""Conduct research on the latest AI agent frameworks.
Identify key features, use cases, and limitations.""",
agent=researcher,
expected_output="Detailed research report with citations"
)
writing_task = Task(
description="""Using the research, create a comprehensive blog post
about AI agent frameworks for a technical audience.""",
agent=writer,
expected_output="2000-word blog post in markdown format"
)
# Create and run crew
crew = Crew(
agents=[researcher, writer],
tasks=[research_task, writing_task],
verbose=2,
process='sequential' # or 'hierarchical'
)
result = crew.kickoff()
Advanced Features¶
Hierarchical Process¶
from crewai import Process
manager = Agent(
role='Project Manager',
goal='Ensure project success',
backstory='Experienced PM with 10 years in tech',
allow_delegation=True
)
crew = Crew(
agents=[manager, researcher, writer, reviewer],
tasks=[research_task, writing_task, review_task],
manager_agent=manager,
process=Process.hierarchical
)
Memory and Context¶
from crewai.memory import LongTermMemory, ShortTermMemory
crew = Crew(
agents=[...],
tasks=[...],
memory={
'short_term': ShortTermMemory(),
'long_term': LongTermMemory(
storage_provider="chroma",
embedding_model="text-embedding-3-small"
)
}
)
3. Microsoft AutoGen¶
Overview¶
AutoGen enables building LLM applications using multiple agents that can converse with each other to solve tasks.
Core Concepts¶
Conversational Agents¶
from autogen import AssistantAgent, UserProxyAgent, GroupChat
# Create assistant agent
assistant = AssistantAgent(
name="assistant",
llm_config={
"model": "gpt-4",
"temperature": 0
},
system_message="You are a helpful AI assistant."
)
# Create user proxy (can execute code)
user_proxy = UserProxyAgent(
name="user_proxy",
human_input_mode="NEVER",
max_consecutive_auto_reply=10,
code_execution_config={
"work_dir": "coding",
"use_docker": False
}
)
Group Chat¶
# Create multiple specialized agents
coder = AssistantAgent(
name="Coder",
system_message="You are an expert programmer."
)
reviewer = AssistantAgent(
name="Reviewer",
system_message="You review code for quality and bugs."
)
tester = AssistantAgent(
name="Tester",
system_message="You write comprehensive tests."
)
# Create group chat
groupchat = GroupChat(
agents=[user_proxy, coder, reviewer, tester],
messages=[],
max_round=20
)
manager = GroupChatManager(groupchat=groupchat)
# Start conversation
user_proxy.initiate_chat(
manager,
message="Create a Python function to calculate fibonacci numbers with tests."
)
Advanced Features¶
Teachable Agents¶
from autogen.agentchat.contrib.teachable_agent import TeachableAgent
teachable_agent = TeachableAgent(
name="teachable_agent",
llm_config={"model": "gpt-4"},
teach_config={
"verbosity": 1,
"reset_db": False,
"path_to_db_dir": "./tmp/teachable_agent_db"
}
)
# Agent learns from interactions
user_proxy.initiate_chat(
teachable_agent,
message="Remember that our company's main product is called 'AgentHub'"
)
# Later conversations will remember this information
4. AgentFlow¶
Overview¶
AgentFlow provides a visual, low-code approach to building agent workflows with drag-and-drop interfaces.
Key Features¶
- Visual Builder: Drag-and-drop workflow design
- Pre-built Components: Library of common agent patterns
- Integration Hub: Connectors for popular services
- Version Control: Git-based workflow versioning
Example Configuration¶
name: customer-onboarding-flow
version: 1.0.0
agents:
- id: validator
type: validation-agent
config:
schema: customer-schema.json
- id: enricher
type: data-enrichment-agent
config:
sources:
- crm
- public-apis
- id: scorer
type: scoring-agent
config:
model: risk-assessment-v2
workflow:
start: validator
steps:
- from: validator
to: enricher
condition: validation.success == true
- from: enricher
to: scorer
- from: scorer
to: end
output: final-score
5. Semantic Kernel (Microsoft)¶
Overview¶
Semantic Kernel is an SDK that integrates LLMs with conventional programming languages, particularly optimized for the Microsoft ecosystem.
Core Concepts¶
Skills and Functions¶
from semantic_kernel import Kernel
from semantic_kernel.functions import kernel_function
kernel = Kernel()
class TimeSkill:
@kernel_function(
description="Get the current time",
name="get_time"
)
def get_current_time(self) -> str:
return datetime.now().strftime("%Y-%m-%d %H:%M:%S")
@kernel_function(
description="Add days to current date",
name="add_days"
)
def add_days(self, days: int) -> str:
future = datetime.now() + timedelta(days=days)
return future.strftime("%Y-%m-%d")
# Register skill
kernel.import_skill(TimeSkill(), "time")
Planner¶
from semantic_kernel.planning import ActionPlanner
planner = ActionPlanner(kernel)
# Create plan from goal
plan = await planner.create_plan(
"Book a meeting room for next Tuesday at 2 PM"
)
# Execute plan
result = await kernel.run_async(plan)
Memory¶
from semantic_kernel.memory import MemoryStore
memory = MemoryStore()
# Save memories
await memory.save_information(
collection="meetings",
id="meeting-001",
text="Team standup every Monday at 9 AM"
)
# Retrieve relevant memories
memories = await memory.search(
collection="meetings",
query="When is the team standup?",
limit=5
)
6. LangFlow¶
Overview¶
LangFlow provides a visual interface for building LangChain flows, making it easy to prototype and deploy agent workflows without extensive coding.
Features¶
- Visual Editor: Drag-and-drop components
- LangChain Compatible: Full LangChain ecosystem support
- API Generation: Automatic API endpoint creation
- Template Library: Pre-built workflow templates
Example Flow Structure¶
# Flows can be exported as Python code
from langflow import Flow
flow = Flow.from_json("customer_support_flow.json")
# Or built programmatically
from langflow.components import LLMComponent, PromptComponent
flow = Flow(name="Simple Q&A")
prompt = PromptComponent(template="Answer this: {question}")
llm = LLMComponent(model="gpt-4")
flow.add_component(prompt)
flow.add_component(llm)
flow.connect(prompt, llm)
# Run the flow
result = flow.run(inputs={"question": "What is the capital of France?"})
Choosing the Right Framework¶
Decision Matrix¶
Use Case | Recommended Framework | Why |
---|---|---|
Simple multi-agent coordination | OpenAI Swarm | Minimal complexity, easy handoffs |
Team simulation | CrewAI | Role-based design, delegation |
Research & experimentation | AutoGen | Flexible conversation patterns |
Visual workflow design | AgentFlow/LangFlow | No-code/low-code approach |
Enterprise Microsoft | Semantic Kernel | Deep Azure integration |
Complex conversations | AutoGen | Group chat, teachability |
Production systems | CrewAI + Custom | Balance of features and control |
Performance Considerations¶
# Benchmark example
import time
import asyncio
async def benchmark_framework(framework_name, task):
start = time.time()
if framework_name == "swarm":
result = await run_swarm_task(task)
elif framework_name == "crewai":
result = await run_crew_task(task)
elif framework_name == "autogen":
result = await run_autogen_task(task)
duration = time.time() - start
return {
"framework": framework_name,
"duration": duration,
"tokens_used": result.tokens,
"cost": result.cost
}
Integration Patterns¶
Combining Frameworks¶
# Use CrewAI for planning, Swarm for execution
from crewai import Crew, Agent, Task
from swarm import Swarm
# CrewAI for high-level planning
planner_crew = Crew(
agents=[strategist, analyst],
tasks=[planning_task]
)
plan = planner_crew.kickoff()
# Swarm for execution
swarm = Swarm()
for step in plan.steps:
swarm.run(
agent=execution_agents[step.type],
messages=[{"role": "system", "content": step.instruction}]
)
With LangChain¶
from langchain.agents import AgentExecutor
from crewai import Agent as CrewAgent
# Wrap CrewAI agent as LangChain tool
class CrewAITool:
def __init__(self, crew_agent: CrewAgent):
self.agent = crew_agent
def run(self, input: str) -> str:
return self.agent.execute(input)
# Use in LangChain workflow
langchain_agent = AgentExecutor(
tools=[CrewAITool(researcher), web_search, calculator],
llm=llm
)
Best Practices¶
1. Framework Selection¶
- Start simple (Swarm) and add complexity as needed
- Consider team skills and learning curve
- Evaluate long-term maintenance requirements
2. Agent Design¶
- Keep agents focused on specific roles
- Define clear handoff conditions
- Implement fallback mechanisms
3. Testing¶
# Framework-agnostic testing approach
class AgentTestCase:
def test_agent_response(self):
response = self.framework.run(
test_input="Test query",
mock_llm=True
)
assert response.success
assert "expected" in response.content
4. Monitoring¶
- Track token usage across frameworks
- Monitor agent interactions
- Log decision points and handoffs
Future Trends¶
Emerging Patterns (2025)¶
- Hybrid Orchestration: Combining multiple frameworks
- Adaptive Workflows: Self-modifying agent graphs
- Federation: Cross-organization agent collaboration
- Neural Orchestration: Learning optimal agent configurations
Upcoming Frameworks¶
- AgentOS: Operating system for agents
- SwarmNet: Decentralized agent networks
- QuantumFlow: Quantum-inspired agent orchestration
Conclusion¶
Modern orchestration frameworks offer diverse approaches to building multi-agent systems. The choice depends on your specific requirements: - Use Swarm for simple, educational projects - Choose CrewAI for role-based team simulations - Select AutoGen for complex conversational patterns - Pick AgentFlow/LangFlow for visual development - Opt for Semantic Kernel in Microsoft environments
Resources¶
Documentation¶
Tutorials¶
Next Steps¶
- Explore Autonomous Agents built with these frameworks
- Learn about Enterprise Platforms for production deployment
- Review Multi-Agent Systems architecture patterns