agency-swarm
RepositoryFreeAgency Swarm framework
Capabilities13 decomposed
hierarchical multi-agent orchestration with agency-based organization
Medium confidenceOrganizes multiple AI agents into a hierarchical agency structure where agents are assigned specific roles, descriptions, and instructions that define their responsibilities. The Agency class serves as a central orchestrator that creates and initializes agents, establishes communication threads between them according to a defined agency chart, and routes user inputs through the appropriate agent chain. This hierarchical approach enables clear separation of concerns and scalable multi-agent systems where agents collaborate through structured message flows rather than direct peer-to-peer communication.
Uses OpenAI Assistants API as the underlying execution engine while adding a hierarchical agency abstraction layer that manages agent initialization, thread creation, and inter-agent communication flows — enabling structured collaboration without requiring custom message routing logic
Provides tighter integration with OpenAI's Assistants API than generic LLM frameworks, reducing boilerplate for agent setup while maintaining flexibility through customizable agency charts
thread-based inter-agent communication with message routing
Medium confidenceImplements a Thread system that creates and manages dedicated conversation channels between agents using OpenAI's API. Each thread maintains a message history and handles tool call execution, with messages flowing between agents according to the agency chart. The framework supports both synchronous (Thread class) and asynchronous (ThreadAsync class) communication modes, allowing agents to exchange messages, process tool results, and maintain context across multi-turn conversations. This abstraction decouples agent communication from the underlying OpenAI API details.
Wraps OpenAI's Thread API with a dual sync/async implementation that abstracts away API details while preserving tool call handling and message sequencing — enabling developers to switch between synchronous and asynchronous modes without rewriting agent logic
Provides native async support out-of-the-box unlike many agent frameworks that bolt on async later, and maintains tight coupling with OpenAI's Assistants API for reliable tool execution
tool factory with dynamic schema generation from python code
Medium confidenceThe ToolFactory class dynamically generates OpenAI-compatible tool schemas from Python functions or classes without requiring manual JSON schema authoring. It introspects Python type hints and Pydantic models to automatically create function calling schemas that OpenAI's API can understand. This eliminates the error-prone process of manually writing JSON schemas and keeps tool definitions co-located with implementation. The factory handles complex types, nested models, and optional parameters, converting Python's type system directly to OpenAI's schema format.
Implements automatic schema generation from Python type hints and Pydantic models, eliminating manual JSON schema authoring by introspecting Python code and converting it directly to OpenAI-compatible schemas — keeping tool definitions in Python rather than JSON
Reduces boilerplate compared to frameworks requiring manual schema writing, and maintains single source of truth in Python code rather than duplicating definitions in JSON
agent communication with message passing and tool result handling
Medium confidenceImplements a message-passing system where agents communicate through structured messages that flow through threads. When an agent needs to use a tool, the framework intercepts the tool call, executes it, and returns the result back to the agent through the message stream. This enables agents to collaborate by calling tools and sharing results without direct coupling. The system handles tool call parsing, execution, and result formatting, abstracting away the complexity of OpenAI's function calling protocol.
Abstracts OpenAI's function calling protocol into a message-passing system where tool calls and results flow through the same thread as agent messages, enabling transparent tool integration without agents needing to understand the underlying API mechanics
Provides cleaner abstraction over OpenAI's function calling than raw API usage, and enables tool result tracking and debugging through the message system
custom agent creation through inheritance and composition
Medium confidenceEnables developers to create custom agents by subclassing the Agent class and defining custom tools, instructions, and behaviors. Agents can be composed with specific tool sets and instructions that define their capabilities and expertise. The framework provides base classes and patterns for extending agents with domain-specific functionality, allowing teams to build reusable agent templates. Custom agents can override methods to customize initialization, message handling, or tool execution without modifying the core framework.
Provides Agent base class designed for inheritance, allowing developers to create custom agents by subclassing and overriding methods — enabling domain-specific agent templates without forking the framework
Supports extensibility through inheritance patterns that Python developers understand, enabling custom agents without requiring framework modifications
tool system with pydantic-based schema validation and type safety
Medium confidenceProvides a BaseTool class that serves as the foundation for all agent tools, using Pydantic models for input validation and type checking. Tools are defined as Python classes inheriting from BaseTool, with method signatures automatically converted to OpenAI function schemas. The ToolFactory class dynamically generates tool definitions from Python functions or classes, handling schema generation and validation. This approach ensures type safety at the agent-tool boundary and enables automatic schema generation for OpenAI's function calling API without manual JSON schema writing.
Uses Pydantic models as the single source of truth for tool schemas, automatically generating OpenAI-compatible function definitions from Python type hints rather than requiring manual JSON schema authoring — reducing boilerplate and keeping schema definitions co-located with implementation
Eliminates manual JSON schema writing that plagues other agent frameworks, and provides runtime validation that catches parameter errors before tools execute, unlike frameworks that rely on LLM-generated function calls without validation
built-in specialized agents with pre-configured capabilities
Medium confidenceProvides pre-built agent implementations like BrowsingAgent and Genesis Agency that come with pre-configured tools and instructions for common tasks. BrowsingAgent includes web browsing capabilities, while Genesis Agency provides code generation and file manipulation tools. These specialized agents can be instantiated directly or extended through inheritance, reducing boilerplate for common use cases. The framework includes agents like Devid with FileWriter tools, demonstrating the pattern of agents bundled with domain-specific tool sets.
Provides domain-specific agent templates (BrowsingAgent, Genesis, Devid) that bundle instructions, tools, and configurations together, allowing developers to instantiate specialized agents with one line of code rather than manually assembling tools and writing instructions
Reduces time-to-first-working-agent compared to building from scratch, and provides reference implementations for common patterns that developers can learn from and extend
model context protocol (mcp) integration for external tool ecosystems
Medium confidenceIntegrates with the Model Context Protocol (MCP) standard, enabling agents to access tools and resources exposed through MCP servers. The framework includes MCP integration that allows agents to discover and call tools from external MCP-compatible services without requiring custom tool implementations. This enables agents to leverage existing tool ecosystems and third-party integrations through a standardized protocol, extending agent capabilities beyond built-in tools.
Implements native MCP support allowing agents to call tools through the Model Context Protocol standard, enabling interoperability with any MCP-compatible service without custom adapters — positioning agency-swarm as part of a larger MCP ecosystem
Provides standards-based tool integration unlike proprietary tool ecosystems, enabling agents to leverage tools from multiple vendors and open-source projects that implement MCP
agent instruction and role definition with customizable system prompts
Medium confidenceAllows developers to define agent behavior through customizable instructions, names, and descriptions that shape how agents interpret tasks and interact with tools. Each Agent class accepts a description and instructions parameter that define the agent's role, expertise, and behavioral guidelines. These instructions are passed to OpenAI's Assistants API as system prompts, enabling fine-grained control over agent personality, reasoning style, and decision-making without code changes. This approach separates agent behavior definition from implementation, enabling prompt engineering and behavioral tuning.
Separates agent behavior definition from implementation by accepting natural language instructions that are passed directly to OpenAI's Assistants API, enabling prompt engineering and behavioral tuning without modifying agent code or tool definitions
Provides more flexibility than hard-coded agent behavior, and enables non-technical stakeholders to tune agent behavior through prompt engineering rather than requiring code changes
multiple user interface modes (terminal, web ui, programmatic api)
Medium confidenceProvides multiple ways to interact with an agency: terminal-based CLI interface for command-line usage, web UI (Gradio-based) for browser-based interaction, and programmatic API for integration into applications. The Agency class exposes methods that can be called directly from Python code, while the framework also includes CLI utilities and web interface wrappers. This multi-interface approach enables the same agency to be deployed across different channels without reimplementation, supporting different user preferences and deployment scenarios.
Abstracts the Agency interface to support multiple interaction modes (CLI, web, programmatic) from a single implementation, using Gradio for web UI and exposing direct Python methods for programmatic access — enabling deployment flexibility without duplicating agency logic
Provides out-of-the-box support for multiple interfaces unlike frameworks that require separate implementations per interface, reducing deployment complexity
asynchronous agent processing with async/await support
Medium confidenceImplements ThreadAsync class alongside the synchronous Thread class, enabling non-blocking agent execution and message processing. Agents can process multiple tasks concurrently using Python's asyncio, with the framework handling async context management and concurrent message flows. This enables building responsive applications where agent processing doesn't block user interactions, and multiple agents can work in parallel. The async implementation maintains the same message routing and tool execution semantics as the synchronous version.
Provides ThreadAsync as a first-class async alternative to Thread, maintaining identical message routing and tool execution semantics while enabling concurrent agent processing — avoiding the common pattern of bolting async onto synchronous frameworks
Native async support from the ground up enables better concurrency handling than frameworks that add async as an afterthought, and maintains consistency with OpenAI's async client libraries
observability and tracking with callback handlers
Medium confidenceIncludes a tracking system with LocalCallbackHandler that captures agent execution events, tool calls, and message flows for observability and debugging. The TrackingManager coordinates callback handlers that log or process agent activities, enabling developers to monitor agent behavior, debug issues, and collect metrics. This abstraction allows plugging in different tracking backends (local logging, remote telemetry, etc.) without modifying agent code, supporting both development debugging and production monitoring.
Implements a callback handler pattern (LocalCallbackHandler + TrackingManager) that decouples observability from agent execution, allowing multiple tracking backends to be plugged in without modifying agent code — enabling flexible monitoring strategies
Provides structured observability hooks unlike frameworks that require manual logging, and supports multiple tracking backends through a unified callback interface
agent state management and configuration persistence
Medium confidenceManages agent state including configuration, tools, instructions, and model settings through the Agent class. Agents maintain their own state and configuration that persists across message exchanges, enabling stateful interactions where agents remember their role and capabilities. The framework handles agent initialization with OpenAI's Assistants API, creating persistent assistant instances that maintain state server-side. This enables agents to be paused, resumed, and reused across sessions without losing context or configuration.
Delegates agent state management to OpenAI's Assistants API, creating persistent assistant instances that maintain state server-side rather than requiring local state management — simplifying state persistence but creating API dependency
Eliminates the need for custom state persistence logic by leveraging OpenAI's managed state, but trades flexibility for simplicity compared to frameworks with local state management
Capabilities are decomposed by AI analysis. Each maps to specific user intents and improves with match feedback.
Related Artifactssharing capabilities
Artifacts that share capabilities with agency-swarm, ranked by overlap. Discovered automatically through the match graph.
Langflow
Visual multi-agent and RAG builder — drag-and-drop flows with Python and LangChain components.
Agency Swarm
Framework for creating collaborative AI agent swarms.
Pydantic AI
Type-safe agent framework by Pydantic — structured outputs, dependency injection, model-agnostic.
Phidata
Agent framework with memory, knowledge, tools — function calling, RAG, multi-agent teams.
Semantic Kernel
Microsoft's SDK for integrating LLMs into apps — plugins, planners, and memory in C#/Python/Java.
Agents
Library/framework for building language agents
Best For
- ✓teams building complex multi-agent systems with clear role separation
- ✓developers creating AI agent teams for enterprise workflows
- ✓builders prototyping hierarchical agent architectures
- ✓developers building agent systems requiring persistent conversation state
- ✓teams implementing asynchronous agent workflows
- ✓builders needing fine-grained control over inter-agent message flows
- ✓Python developers building agent tools
- ✓teams avoiding manual JSON schema maintenance
Known Limitations
- ⚠Hierarchical structure may become complex to manage with >10 agents without careful design
- ⚠Communication overhead increases with agency depth and agent count
- ⚠Requires explicit agency chart definition upfront — no dynamic agent discovery
- ⚠Thread state is tied to OpenAI API — no built-in local persistence or caching
- ⚠Asynchronous mode adds complexity for error handling and retry logic
- ⚠Message history grows unbounded — requires manual cleanup or archival strategy
Requirements
Input / Output
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