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Claude Prompt to Design a Multi-Agent AI Orchestration System

Design a multi-agent AI system: agent roles, orchestration pattern, task decomposition, shared memory, human-in-the-loop checkpoints, and observability.

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Your Prompt
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What this prompt does

This prompt designs a multi-agent AI system for a [system_purpose]. It defines agent roles ([agent_roles]) with capabilities, an orchestration pattern ([orchestration_type]), task decomposition, an inter-agent communication protocol, shared memory, per-agent tools ([tools]), human-in-the-loop checkpoints at [review_points], error handling with fallback chains, a per-run cost budget (max [budget]), and decision/tool-call tracing, implemented with [agent_framework]. It explicitly handles agent loops, stuck states, and conflicting outputs.

The structure works because multi-agent systems fail in specific, predictable ways: agents loop, get stuck, or disagree. Pinning down the [orchestration_type] and [review_points] before wiring anything forces those failure modes into the design instead of discovering them in production. The per-task [budget] and tracing are the guardrails that keep these systems from quietly burning money, and the fallback chains give each agent a defined path when it cannot complete its task.

When to use it

  • Designing a workflow that needs several specialized agents ([agent_roles]), not one big prompt.
  • Choosing and documenting an orchestration pattern before building ([orchestration_type]).
  • Adding human-in-the-loop checkpoints at high-stakes [review_points].
  • Putting a hard cost ceiling ([budget]) on agent runs that could otherwise loop expensively.
  • Building observability so you can trace which agent made which decision.
  • Handling the real failure modes: loops, stuck states, and conflicting agent outputs.

Example output

You get an architecture: defined [agent_roles] with capabilities and prompt templates, an orchestration design for [orchestration_type], a task-decomposition strategy, a communication protocol, shared-memory design, per-agent [tools] mappings, human checkpoints at [review_points], fallback chains, a per-run cost budget capped at [budget], tracing for agent decisions and tool calls, per-agent evaluation metrics, and a visual workflow diagram, targeting [agent_framework].

Pro tips

  • Keep [agent_roles] few and distinct; overlapping roles cause agents to duplicate work or argue over ownership.
  • Choose [orchestration_type] deliberately; a supervisor/hierarchical pattern is easier to reason about than a free-for-all.
  • Set a real [budget] and enforce it in code; an unbounded agent loop is the classic way these systems burn money.
  • Place [review_points] only where the cost of being wrong is high; checkpointing everything defeats automation.
  • Lean on tracing from the first run; without it, debugging a multi-agent failure is nearly impossible.
  • Design explicit handling for conflicting outputs (a tie-breaker or escalation), not an implicit "last agent wins."

Frequently Asked Questions

What are the main failure modes of multi-agent systems?
The big three are infinite loops, stuck states where an agent can't proceed, and conflicting outputs where agents disagree. This prompt forces explicit handling for all three rather than discovering them in production. Designing tie-breakers, timeouts, and fallback chains up front is what separates a robust system from a demo.
Why set a per-run cost budget?
Agents that call tools and each other can loop or fan out unexpectedly, and each step costs tokens. A hard `[budget]` enforced in code caps the damage when something goes wrong. Without it, a single misbehaving run can burn far more than expected before anyone notices, which is the classic multi-agent money pit.
Which orchestration pattern should I choose?
Set `[orchestration_type]` based on how much coordination you need. A hierarchical supervisor pattern, where one agent delegates and reconciles, is easier to reason about and debug than peer-to-peer free-for-alls. For most workflows, start hierarchical and only add complexity when a specific need justifies it.
Where should I put human-in-the-loop checkpoints?
Place `[review_points]` only where being wrong is expensive, such as before merging code, on detected security issues, or for architecture changes. Checkpointing every step defeats the purpose of automation and trains reviewers to rubber-stamp. Reserve human attention for the decisions that genuinely warrant it.
Why is tracing so important here?
When a multi-agent run produces a bad result, you need to see which agent made which decision and which tool call led astray. Without per-agent, per-tool-call tracing from the start, debugging is nearly impossible because the failure is distributed across several agents and steps. Tracing turns that opaque chain into something you can inspect.
Engr Mejba Ahmed

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Engr Mejba Ahmed

AI Developer · Software Engineer

I'm Mejba — I design and ship production AI systems, automations, and full-stack apps. If you want this turned into a working solution for your team, let's talk.

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