CrewAI vs AutoGen — Role-Based Teams or Conversation Agents? (2026)
This CrewAI vs AutoGen comparison helps you choose the right multi-agent framework for your project. We cover architecture differences, side-by-side Python code, production readiness analysis, and a decision matrix grounded in real-world trade-offs.
1. Why CrewAI vs AutoGen Matters
Section titled “1. Why CrewAI vs AutoGen Matters”CrewAI and AutoGen solve multi-agent coordination in fundamentally different ways: one uses structured role assignments, the other uses emergent conversation.
Two Philosophies for Multi-Agent AI
Section titled “Two Philosophies for Multi-Agent AI”CrewAI and AutoGen both coordinate multiple LLM-powered agents. Both support tool use, memory, and integration with OpenAI, Anthropic, and open-source models. From the outside, they solve the same problem.
They solve it in fundamentally different ways.
CrewAI treats multi-agent coordination like a team of employees. You assign roles, define goals, hand out tasks. The framework routes work between agents based on your task definitions. You stay in control of who does what.
AutoGen treats multi-agent coordination like a group conversation. Agents exchange messages. A manager (itself an LLM) decides who speaks next. Coordination emerges from the conversation rather than from a predefined task assignment.
This distinction determines everything: how you debug, how predictable your system is, how fast you ship, and how well the system scales in production. For the broader landscape including LangGraph, see the full agentic frameworks comparison.
The Core Difference in One Sentence
Section titled “The Core Difference in One Sentence”- CrewAI: You define agents with roles and tasks. The framework orchestrates a structured workflow.
- AutoGen: You define agents that talk to each other. Coordination emerges from the conversation.
Pick CrewAI if you want to ship fast with predictable behavior. Pick AutoGen if your agents need to negotiate, debate, and reason through open-ended problems together.
2. What’s New in 2026
Section titled “2. What’s New in 2026”| Feature | CrewAI (2026) | AutoGen (2026) |
|---|---|---|
| Version | 0.100+ (stable API) | 0.4.x (major rewrite from 0.2) |
| Execution modes | Sequential + hierarchical + consensual | Group chat + two-agent + custom topologies |
| Enterprise tier | CrewAI+ with managed deployment | AutoGen Studio (visual builder) |
| Memory | Short-term, long-term, entity memory built-in | Teachable agents with persistent memory |
| Async support | Full async with crew.kickoff_async() | Improved async in v0.4 core refactor |
| Structured output | Pydantic model output parsing | JSON mode + function calling |
| LLM providers | OpenAI, Anthropic, Ollama, LiteLLM | OpenAI, Azure, Anthropic, local models |
AutoGen v0.4 was a significant rewrite. If you tried AutoGen in 2024 and found it rough, the current API is substantially different. Check the AutoGen v0.4 migration guide before forming opinions based on older versions.
3. Real-World Problem Context
Section titled “3. Real-World Problem Context”The framework choice is driven by whether your workflow has predictable task handoffs (CrewAI) or requires dynamic agent negotiation (AutoGen).
When This Decision Comes Up
Section titled “When This Decision Comes Up”You need multiple agents working together. A single mega-agent with 20 tools gets confused — context window bloat kills reasoning quality. You split responsibilities across specialized agents. Now you need a framework to coordinate them.
Three real scenarios where this choice matters:
Content production pipeline: A research agent gathers data, an analyst agent extracts insights, a writer agent produces drafts, an editor agent reviews. CrewAI maps perfectly here — each agent has a clear role, tasks flow sequentially, and the output of one task feeds the next.
Collaborative code debugging: An agent reads the error, another searches the codebase, another proposes a fix, another runs tests. The agents need to go back and forth — “that fix broke test X, try again.” AutoGen’s conversational model handles this naturally because the iteration is emergent, not pre-planned.
Customer support escalation: A triage agent classifies the issue, a domain expert agent handles it, a supervisor agent reviews. CrewAI’s hierarchical process mode fits here — the manager agent oversees quality and can reassign work if output is poor.
The pattern: if you can draw your workflow as a flowchart with clear handoffs, CrewAI. If agents need to iterate and negotiate dynamically, AutoGen.
3. How CrewAI vs AutoGen Works — Architecture
Section titled “3. How CrewAI vs AutoGen Works — Architecture”CrewAI builds on four building blocks (agents, tasks, crew, process); AutoGen builds on three (AssistantAgent, UserProxyAgent, GroupChatManager).
CrewAI’s Architecture
Section titled “CrewAI’s Architecture”CrewAI has four building blocks:
Agents — defined by role, goal, and backstory. The role is a job title (“Senior Data Analyst”). The goal is what success looks like (“Produce accurate quarterly analysis”). The backstory provides context the LLM uses to shape behavior. Each agent gets specific tools.
Tasks — units of work assigned to agents. A task has a description, an expected output format, and an assigned agent. Tasks can depend on other tasks.
Crew — a container that groups agents and tasks, with a process type (sequential or hierarchical) that defines execution order.
Process — the execution strategy. Sequential runs tasks in order. Hierarchical adds a manager agent that delegates and reviews.
from crewai import Agent, Task, Crew, Process
researcher = Agent( role="Senior Research Analyst", goal="Find comprehensive, accurate data on the topic", backstory="You are a veteran analyst with 15 years of experience in technical research.", tools=[search_tool, arxiv_tool], verbose=True,)
writer = Agent( role="Technical Content Writer", goal="Transform research findings into clear, engaging content", backstory="You specialize in making complex technical topics accessible.",)
research_task = Task( description="Research the latest developments in multi-agent AI systems", expected_output="A detailed report with key findings and citations", agent=researcher,)
write_task = Task( description="Write a 600-word article based on the research report", expected_output="A polished article ready for publication", agent=writer,)
crew = Crew( agents=[researcher, writer], tasks=[research_task, write_task], process=Process.sequential, verbose=True,)
result = crew.kickoff()50 lines. Two agents, two tasks, a crew. Readable by anyone.
AutoGen’s Architecture
Section titled “AutoGen’s Architecture”AutoGen has three building blocks:
AssistantAgent — an LLM-powered agent with a system message and optional tool registrations. It responds to messages.
UserProxyAgent — represents the user (or an automated proxy). It can execute code, provide input, and initiate conversations.
GroupChat + GroupChatManager — the coordination layer. The GroupChatManager uses an LLM to decide which agent speaks next based on the conversation history.
from autogen import AssistantAgent, UserProxyAgent, GroupChat, GroupChatManager
llm_config = {"model": "gpt-4o", "api_key": os.environ["OPENAI_API_KEY"]}
researcher = AssistantAgent( name="researcher", system_message="You research topics thoroughly. Provide facts and citations.", llm_config=llm_config,)
writer = AssistantAgent( name="writer", system_message="You write clear, engaging content based on research provided in the conversation.", llm_config=llm_config,)
user_proxy = UserProxyAgent( name="user", human_input_mode="NEVER", code_execution_config={"work_dir": "output"}, max_consecutive_auto_reply=10,)
group_chat = GroupChat( agents=[user_proxy, researcher, writer], messages=[], max_round=12,)
manager = GroupChatManager(groupchat=group_chat, llm_config=llm_config)user_proxy.initiate_chat(manager, message="Write a 600-word article on multi-agent AI systems")The GroupChatManager decides: should the researcher speak first, or the writer? It reads the conversation and picks. Run this twice and you might get different execution orders. That flexibility is a feature for research — and a liability for production.
4. Head-to-Head Feature Comparison
Section titled “4. Head-to-Head Feature Comparison”CrewAI leads on determinism and prototyping speed; AutoGen leads on code execution and emergent multi-turn coordination.
📊 Visual Explanation
Section titled “📊 Visual Explanation”CrewAI vs AutoGen — Which Multi-Agent Framework?
- Intuitive role/goal/backstory syntax maps to business processes
- Sequential and hierarchical process modes for predictable execution
- Built-in short-term, long-term, and entity memory
- Structured task outputs with Pydantic model support
- Fast prototyping — working crew in under 50 lines of code
- CrewAI+ enterprise tier with managed deployment
- Less flexibility for emergent, open-ended agent coordination
- Debugging role misinterpretation requires tracing LLM prompt internals
- Agents negotiate and iterate naturally through message passing
- First-class code execution via UserProxyAgent sandbox
- Flexible group chat topologies for complex multi-turn reasoning
- AutoGen Studio provides a visual no-code builder
- Microsoft-backed with native Azure AI Foundry integration
- Teachable agents retain knowledge across sessions
- Non-deterministic speaker selection makes behavior harder to predict
- Higher token cost — conversation overhead between agents adds up
Detailed Comparison Table
Section titled “Detailed Comparison Table”| Capability | CrewAI | AutoGen |
|---|---|---|
| Execution model | Role-based task delegation | Conversational message passing |
| Coordination | Sequential / hierarchical process | GroupChatManager (LLM-selected speakers) |
| Determinism | High — task order is explicit | Low — speaker selection varies per run |
| Code execution | Via tools | First-class with UserProxyAgent |
| Memory | Short-term + long-term + entity | Teachable agents + context memory |
| Structured output | Pydantic models via output_pydantic | JSON mode + function calling |
| Human-in-the-loop | Basic (human_input_mode on tasks) | UserProxyAgent with ALWAYS input mode |
| Tool assignment | Per-agent (enforces role boundaries) | Per-conversation (shared across agents) |
| Visual builder | No (CLI-first) | AutoGen Studio |
| Enterprise offering | CrewAI+ | Azure AI integration |
| Learning curve | Low — role/goal metaphor is intuitive | Medium — conversation model takes practice |
| Boilerplate | ~50 lines for a basic crew | ~60 lines for a basic group chat |
5. Code Comparison
Section titled “5. Code Comparison”The most visible API difference: CrewAI assigns tools per agent to enforce role boundaries; AutoGen registers tools to the conversation and shares them freely.
Custom Tool Definition
Section titled “Custom Tool Definition”CrewAI:
from crewai.tools import tool
@tool("Search Database")def search_database(query: str) -> str: """Search the internal knowledge base for relevant documents.""" results = db.similarity_search(query, k=5) return "\n".join([doc.page_content for doc in results])
# Assign tool to a specific agentanalyst = Agent( role="Data Analyst", goal="Answer questions using the knowledge base", tools=[search_database], # only this agent can use it)AutoGen:
from autogen import AssistantAgent, UserProxyAgent
assistant = AssistantAgent("analyst", llm_config=llm_config)user_proxy = UserProxyAgent("user", human_input_mode="NEVER")
# Register tool for LLM to call@user_proxy.register_for_execution()@assistant.register_for_llm(description="Search the internal knowledge base")def search_database(query: str) -> str: results = db.similarity_search(query, k=5) return "\n".join([doc.page_content for doc in results])Key difference: CrewAI’s tools belong to agents. AutoGen’s tools belong to the conversation. CrewAI enforces tool boundaries by role — the writer cannot use the database tool if you only gave it to the analyst. AutoGen’s tools are available to any agent the tool is registered with, which is more flexible but less structured.
Task Output Handling
Section titled “Task Output Handling”CrewAI — structured output with Pydantic:
from pydantic import BaseModel
class ResearchReport(BaseModel): title: str key_findings: list[str] confidence_score: float
research_task = Task( description="Research multi-agent AI trends", expected_output="Structured research report", agent=researcher, output_pydantic=ResearchReport, # enforced schema)
result = crew.kickoff()report: ResearchReport = research_task.output.pydanticprint(report.key_findings) # typed accessAutoGen — output from conversation:
# AutoGen returns the full conversation historychat_result = user_proxy.initiate_chat( manager, message="Research multi-agent AI trends and provide key findings",)
# Parse the last message or use function calling for structurelast_message = chat_result.chat_history[-1]["content"]CrewAI gives you typed, validated output per task. AutoGen gives you a conversation transcript that you parse. For production pipelines where downstream systems expect structured data, CrewAI’s approach requires less post-processing.
6. When to Use Which — Decision Framework
Section titled “6. When to Use Which — Decision Framework”If you can draw your workflow as a flowchart with clear handoffs, choose CrewAI; if agents need to iterate dynamically, choose AutoGen.
Choose CrewAI When
Section titled “Choose CrewAI When”- You can map your workflow to clear roles with distinct responsibilities
- Tasks flow in a predictable sequence (or with a manager overseeing delegation)
- You need structured, typed outputs from each step
- Fast prototyping speed matters — ship a working MVP in hours, not days
- Business stakeholders need to understand the agent architecture
- You want built-in memory without writing your own storage layer
Choose AutoGen When
Section titled “Choose AutoGen When”- Agents need to debate, negotiate, or iterate on a solution collaboratively
- The task involves code generation, execution, and correction loops
- You are building a research prototype where emergent behavior is desirable
- You want agents that teach each other and retain knowledge across sessions
- Your team is in a Microsoft/Azure ecosystem and wants native integration
- The workflow is open-ended — you cannot fully predefine the execution order
Choose Neither (Use LangGraph) When
Section titled “Choose Neither (Use LangGraph) When”- You need checkpointing and resume-on-failure for long-running workflows
- Human-in-the-loop approval is required at specific steps with state persistence
- Full auditability of every decision and state transition is non-negotiable
- The workflow has complex conditional branching that must behave identically every time
See the LangGraph tutorial and agentic frameworks comparison for details on when LangGraph is the right choice.
7. CrewAI vs AutoGen Trade-offs and Pitfalls
Section titled “7. CrewAI vs AutoGen Trade-offs and Pitfalls”Both frameworks rely on LLM quality and share the core failure mode of unpredictable coordination — but each has distinct failure patterns to guard against.
CrewAI Failure Modes
Section titled “CrewAI Failure Modes”Role misinterpretation: The LLM interprets natural-language role descriptions. A subtle wording change — “Senior Analyst” vs “Research Analyst” — can shift agent behavior in non-obvious ways. Test role definitions with your specific LLM. What works with GPT-4o may behave differently with Claude.
Task dependency confusion: When tasks reference each other’s outputs, CrewAI passes the output as context. If the upstream task produces unexpected output (too long, wrong format), downstream tasks inherit that confusion. Always use output_pydantic for critical handoff points.
Hierarchical mode cost: The manager agent in hierarchical mode makes extra LLM calls for every delegation and review decision. For a crew with 5 agents and 8 tasks, hierarchical mode can triple your LLM costs compared to sequential. Use hierarchical only when dynamic delegation is genuinely needed.
AutoGen Failure Modes
Section titled “AutoGen Failure Modes”Speaker selection loops: The GroupChatManager can get stuck — selecting the same agent repeatedly, or ping-ponging between two agents without making progress. Set max_round aggressively and implement a termination condition beyond just the TERMINATE keyword.
Token explosion: Every agent message becomes part of the conversation context. A 12-round group chat with 4 agents can easily consume 30,000-50,000 tokens in context alone. At GPT-4o pricing, a single run can cost $0.50-$1.00. Multiply by hundreds of daily runs and costs escalate fast.
Code execution risks: UserProxyAgent with code execution enabled will run whatever code the LLM generates. In production, this requires sandboxing. AutoGen provides Docker-based execution, but you must configure it explicitly. The default local execution mode is a security risk.
Shared Limitations
Section titled “Shared Limitations”Both frameworks depend on LLM quality. Neither can make a weak model coordinate well. Both suffer from the fundamental unpredictability of LLM-based coordination — agents sometimes ignore instructions, produce hallucinated outputs, or get stuck in loops. Build retry logic and output validation at every step.
8. CrewAI vs AutoGen Interview Questions
Section titled “8. CrewAI vs AutoGen Interview Questions”Framework selection questions test whether you match coordination model to requirements — not whether you can recite API syntax.
What Interviewers Expect
Section titled “What Interviewers Expect”CrewAI vs AutoGen questions test whether you understand the trade-off between structured orchestration and emergent coordination. Interviewers want you to match framework choice to requirements, not state a preference.
Strong vs Weak Answer Patterns
Section titled “Strong vs Weak Answer Patterns”Q: “You’re building a multi-agent system to automate financial report generation. CrewAI or AutoGen?”
Weak: “I’d use CrewAI because it’s simpler and easier to set up.”
Strong: “Financial reports require predictable, auditable outputs — the same inputs should produce structurally consistent reports every time. CrewAI’s sequential process gives me that determinism. I’d define a data-extraction agent with database tools, an analysis agent that interprets the data, and a writer agent that formats the report. Each task would use output_pydantic to enforce schema compliance at every handoff. AutoGen’s conversational model would introduce non-determinism in the execution order, which is unacceptable for financial compliance. If I needed human review before publication, I’d wrap the CrewAI crew inside a LangGraph node with an interrupt checkpoint.”
Why the strong answer works: It names the requirement (determinism, auditability), maps it to a specific CrewAI feature (sequential process, output_pydantic), explains why AutoGen fails the requirement (non-deterministic speaker selection), and adds a production consideration (LangGraph for human-in-the-loop).
Q: “When would you choose AutoGen over CrewAI?”
Weak: “When I need agents to talk to each other.”
Strong: “AutoGen excels when the coordination logic is emergent. Consider a collaborative debugging system: one agent reads the stack trace, another searches the codebase, another proposes a fix, another runs tests. The fix might fail — now the agents need to iterate. How many iterations? Which agent goes next? That depends on what the test output says. You cannot predefine this flow in CrewAI’s sequential process. AutoGen’s group chat handles it naturally because each agent responds to the latest message. I’d add a max_round limit and a cost ceiling to prevent runaway conversations.”
9. CrewAI vs AutoGen in Production
Section titled “9. CrewAI vs AutoGen in Production”CrewAI is more production-ready out of the box; AutoGen requires additional guardrails — especially for code execution and token cost management.
CrewAI Production Patterns
Section titled “CrewAI Production Patterns”CrewAI is the more production-ready option out of the box. A typical deployment pattern:
API Request → Task Validation → Crew.kickoff() → Structured Output → Response ├── Agent 1 (tools: DB, search) ├── Agent 2 (tools: calculator) └── Agent 3 (no tools, writing only)Production checklist for CrewAI:
- Pin your CrewAI version — API changes between minor versions
- Use
output_pydanticon every task for typed, validated outputs - Set
max_iteron agents to prevent infinite tool-calling loops - Enable
verbose=Falsein production (verbose logging is expensive) - Use
memory=Trueon the crew for cross-run learning, but point storage at a persistent backend - Monitor LLM token usage per crew run — set budget alerts
AutoGen Production Patterns
Section titled “AutoGen Production Patterns”AutoGen requires more guardrails for production use:
API Request → UserProxy.initiate_chat() → GroupChatManager → Conversation → Parse Output ├── Agent A (assistant) ├── Agent B (assistant) └── Agent C (code executor)Production checklist for AutoGen:
- Set
max_roundon GroupChat — never let conversations run unbounded - Use Docker-based code execution, not local — mandatory for security
- Implement custom speaker selection functions instead of relying on LLM selection
- Parse structured output from the final message using function calling, not string parsing
- Set
max_consecutive_auto_replyon all agents to prevent loops - Log full conversation transcripts for debugging and auditing
Cost Comparison at Scale
Section titled “Cost Comparison at Scale”| Scenario | CrewAI (est. cost/run) | AutoGen (est. cost/run) |
|---|---|---|
| 3 agents, simple pipeline | $0.05-0.10 | $0.08-0.15 |
| 5 agents, hierarchical | $0.15-0.30 | $0.25-0.50 |
| 5 agents, 15+ rounds | $0.20-0.40 | $0.50-1.50 |
| With code execution loops | $0.30-0.60 | $0.80-2.00+ |
AutoGen’s conversational overhead — every agent reads the full conversation history on every turn — makes it consistently more expensive at the same task complexity. The gap widens with more rounds.
10. Summary and Key Takeaways
Section titled “10. Summary and Key Takeaways”CrewAI for structured role-based workflows; AutoGen for conversational, iterative multi-agent reasoning — neither replaces LangGraph for complex stateful orchestration.
The Decision in 30 Seconds
Section titled “The Decision in 30 Seconds”| Factor | CrewAI | AutoGen |
|---|---|---|
| Mental model | Team with job roles | Conversation between experts |
| Determinism | High | Low |
| Prototyping speed | Very fast | Fast |
| Production readiness | Higher | Requires more guardrails |
| Code execution | Via tools | First-class |
| Token efficiency | Better | Higher overhead |
| Best for | Structured workflows, fast shipping | Research, iteration, code tasks |
Official Documentation
Section titled “Official Documentation”- CrewAI Documentation — Agents, tasks, crews, and enterprise features
- CrewAI GitHub — Source code and community examples
- AutoGen Documentation — Official docs for AutoGen v0.4+
- AutoGen GitHub — Source code, examples, and notebooks
- AutoGen Studio — Visual builder for AutoGen workflows
Related
Section titled “Related”- Agentic AI Frameworks — LangGraph, CrewAI & AutoGen — Full three-way comparison with LangGraph deep dive
- AI Agents and Agentic Systems — How agents reason, use tools, and manage memory
- Agentic Design Patterns — Reflection, planning, tool use, and multi-agent patterns
- LangGraph Tutorial — Build stateful agents with checkpointing and human-in-the-loop
- GenAI System Design — Architecture patterns for production AI systems
- GenAI Interview Questions — Practice questions on agent design and framework selection
Last updated: March 2026. Both CrewAI and AutoGen are under active development; verify current API details against official documentation before building production systems.
Frequently Asked Questions
What is the difference between CrewAI and AutoGen?
CrewAI uses role-based orchestration where you define agents with specific roles, goals, and backstories, then assign them tasks in a sequential or hierarchical process. AutoGen uses conversation-driven coordination where agents communicate by passing messages in a group chat, with an LLM-powered manager selecting the next speaker. CrewAI gives you faster prototyping and intuitive business-process mapping. AutoGen gives you emergent coordination suited to research and multi-turn reasoning workflows.
Which is better for production use?
CrewAI is generally better for production agent teams. It has a more predictable execution model (sequential or hierarchical processes), built-in memory, structured task outputs via Pydantic, and an enterprise tier (CrewAI+). AutoGen's conversation-driven routing introduces non-determinism because the GroupChatManager uses an LLM to select speakers. For production systems requiring precise state control beyond what CrewAI offers, consider LangGraph as the orchestration layer.
Can CrewAI and AutoGen use custom tools?
Yes, both frameworks support custom tools. CrewAI uses a @tool decorator or BaseTool class to define tools, and you assign them directly to agents. AutoGen registers tools via register_for_llm() and register_for_execution() on agents. Both integrate with LangChain tools. CrewAI's tool assignment is per-agent, which enforces role boundaries. AutoGen's tools are shared across the conversation, which is more flexible but less structured.
How do CrewAI roles compare to AutoGen agents?
CrewAI roles are defined with natural-language descriptions (role, goal, backstory) that shape agent behavior through system prompts. Each agent owns specific tools and receives specific tasks. AutoGen agents are conversational participants defined by a system message and optional tool registrations. CrewAI agents are task-oriented workers with clear boundaries, while AutoGen agents are conversation participants who can contribute freely.
Which framework is easier to learn?
CrewAI has a lower learning curve. Its role/goal/backstory syntax maps directly to how business teams think about responsibilities, and a working crew can be built in under 50 lines of Python. AutoGen's conversation model requires understanding GroupChat dynamics, speaker selection, termination conditions, and the UserProxyAgent pattern, which takes more practice to use effectively.
How does multi-agent orchestration differ between CrewAI and AutoGen?
CrewAI orchestrates agents through a defined process — sequential (tasks run in order) or hierarchical (a manager agent delegates and reviews). The execution path is predictable and follows your task definitions. AutoGen orchestrates through conversation — a GroupChatManager uses an LLM to select the next speaker based on conversation history, making coordination emergent and adaptive but non-deterministic. See the agentic frameworks comparison for how both compare to LangGraph.
How does task delegation work in CrewAI vs AutoGen?
In CrewAI, tasks are explicitly assigned to specific agents at definition time. Each task has a description, expected output format, and an assigned agent. Tasks can depend on other tasks, and outputs flow from one to the next. In AutoGen, there is no formal task delegation — agents contribute by responding to conversation messages, and the GroupChatManager decides who speaks next based on what has been said.
How do CrewAI and AutoGen handle memory?
CrewAI provides built-in short-term, long-term, and entity memory that persists across tasks within a crew run and optionally across runs. AutoGen offers Teachable agents that can retain learned facts to an external store across sessions. CrewAI's memory is more structured and integrated, while AutoGen's is more focused on knowledge retention rather than workflow state management.
When should I use CrewAI vs AutoGen?
Use CrewAI when your workflow maps to clear roles with distinct responsibilities, tasks flow in a predictable sequence, and you need structured typed outputs from each step. Use AutoGen when agents need to debate, negotiate, or iterate on solutions collaboratively, especially for code generation and debugging loops where the iteration count is unpredictable. Learn more about agentic design patterns to understand the underlying coordination strategies.
What are the pricing and licensing differences?
Both CrewAI and AutoGen are open-source and free to use. CrewAI is MIT-licensed and offers CrewAI+ as a paid enterprise tier with managed deployment and additional features. AutoGen is MIT-licensed and backed by Microsoft, with native Azure AI Foundry integration for enterprise deployments. The primary cost difference is in LLM token consumption — AutoGen's conversational overhead makes it consistently more expensive at the same task complexity, especially beyond 10 rounds.