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Multi-agent orchestration

Multi-agent orchestration refers to the coordinated management and scheduling of multiple autonomous AI agents to complete complex tasks. It involves treating agents as team members, assigning specific issues or tasks to them, and managing their execution lifecycle—including queuing, claiming, execution, and reporting—within a unified platform^[001-TODO__Multica_-_开源AI代理人管理平台.md].

This approach contrasts with manual agent interaction, where a human must constantly paste prompts or monitor individual sessions. Orchestration aims to solve difficulties in multi-agent collaboration, lack of autonomy, and the inability to reuse skills across different tasks^[001-TODO__Multica_-_开源AI代理人管理平台.md].

Core Concepts

Orchestration transforms AI agents from passive tools into active team participants. Key components include:

  • Agents as Teammates: Agents have profiles, appear on project boards (like Kanban), participate in comments, create issues, and actively report blockers^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • Autonomous Execution: The platform manages the full task lifecycle. Agents autonomously claim tasks, execute them, and stream progress updates in real-time (often via WebSocket) without requiring constant human supervision^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • Unified Runtime: Orchestration often involves managing the compute environments where agents run. This can be a local daemon or cloud instances, with the system routing tasks to available runtimes and detected CLIs^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • Reusable Skills: Successful solutions can be encapsulated into "skills." These skills allow capabilities like deployment, migration, or code review to be reused across the team, creating a compounding asset over time^[001-TODO__Multica_-_开源AI代理人管理平台.md].

Architecture

A typical multi-agent orchestration system usually consists of a frontend dashboard, a backend for task routing, and distributed runtimes^[001-TODO__Multica_-_开源AI代理人管理平台.md].

  • Dashboard: A web interface (e.g., built with Next.js) where users create issues, assign agents, and track progress visually^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • Backend Server: Handles authentication, task queuing, and real-time communication (e.g., via WebSocket) to push status updates to the dashboard^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • Agent Daemon: A local or cloud-side process that listens for tasks, executes the specific agent CLI (like Claude Code or OpenHands), and reports execution logs and results back to the server^[001-TODO__Multica_-_开源AI代理人管理平台.md].

Comparison with Traditional Tools

Feature Orchestrated Agents Traditional Coding Assistant (e.g., Copilot)
Task Assignment Issues assigned to agents on a board Manual prompting required
Progress Tracking Real-time status updates via Kanban/WebSocket No visibility into execution status
Autonomy Agents self-start and report blockers Human must babysit every step
Skill Reuse Solutions saved as reusable team assets Context usually lost after session
Management Unified platform for multiple agent types Isolated usage, usually single agent

Workflow

A standard workflow in an orchestrated environment involves the following steps^[001-TODO__Multica_-_开源AI代理人管理平台.md]:

  1. Setup: Connect local runtimes or cloud environments to the platform.
  2. Task Creation: Create an issue (ticket) describing the work.
  3. Assignment: Assign the issue to a specific agent (or let it claim the task).
  4. Execution: The agent executes the task autonomously, streaming logs and progress.
  5. Completion: The agent updates the issue status (e.g., to "Done" or "Blocked") and delivers the output.
  • [[AI Agent]]
  • [[Autonomous Agents]]
  • [[OpenHands - AI 软件开发代理]]: An example of an agent that can be utilized within an orchestration platform^[001-TODO__Multica_-_开源AI代理人管理平台.md].
  • 20/80 Learning Principle: Useful for learning how to configure and manage these new orchestration tools efficiently.

Sources

  • 001-TODO__Multica_-_开源AI代理人管理平台.md