Claude Code and Codex as an Agent Team
Claude CodeCodexмультиагентная разработка
How the Claude Code and Codex loop works
The underlying idea is straightforward: Claude Code takes the role of orchestrator, while Codex or a dedicated subagent handles implementation and review. What matters is not simply that two models communicate, but that responsibility is explicitly divided between them.
The original user post describes four scenarios, with every prompt addressed to Claude Code. They include collaborative 80/20 problem-solving, a development loop that sends Codex back for revisions, brainstorming until a simple resilient solution emerges, and a setup with an orchestrator, developer, and reviewer.
The most practical configuration looks like this:
- Orchestrator breaks work into bounded tasks, passes along context, and decides whether the process can continue.
- Developer changes the code and reports exactly what was completed.
- Reviewer independently checks correctness, security, edge cases, and API misuse.
A similar pattern appears in the Claude Codex technical guide on agent orchestration, MindStudio materials, and the claude-codex and claude-code-orchestra projects. Their emphasis is on separate contexts, structured reviewer verdicts, and gates that prevent a task from advancing without review.
The danger is equally clear. Giving an agent unrestricted access speeds up the loop, but also magnifies the consequences of a faulty command. The first things I would examine are permission boundaries, whether changes can be reversed, and whether the validator can truly stop the executor rather than merely leave a comment afterward.
Why role separation changes quality
The benefit appears when the second agent does not merely continue the first agent's reasoning, but independently searches for its mistakes. Otherwise, you get an expensive chorus of agreement rather than an engineering review.
For bounded tasks, this pattern can reduce a single model's blind spots and make the revision loop explicit. Independent work can run in parallel, but one orchestrator still needs to assemble the final result; otherwise, context drift quickly consumes the gains.
The collected materials do not provide a standardized benchmark. It is more sensible to evaluate real effectiveness through the share of defects found, the number of revision cycles, execution latency, and coverage of security issues and edge cases.
To me, this is not multi-agent magic. It is process discipline applied to models. The main unresolved question remains the same: who reviews the reviewer when both agents confidently miss the same error?