Engineering
orchestrator avatar

orchestrator

Autonomous multi-agent orchestration framework for Claude Code with memory-driven workflows, parallel-first task execution, Aristotle-based deconstruction, and multi-stage quality gates.

Introduction

The orchestrator skill serves as the central command for Multi-Agent Ralph, an autonomous development framework designed to extend Claude Code's capabilities. It manages a comprehensive 10-step lifecycle—including evaluate, clarify, classify, plan, execute, and retrospective—to handle complex software tasks that exceed the capacity of single-agent interactions. By utilizing Aristotle First Principles for task deconstruction and a MemPalace-inspired memory architecture, the skill ensures that both trivial bug fixes and high-complexity refactoring or multi-file changes are executed with structural rigor and logical consistency.

  • Swarm mode capability: Automatically spawns a team of specialized agents, including coder, reviewer, tester, and security-auditor, to execute tasks in parallel.

  • Memory-driven lifecycle: Integrates persistent memory stacks (L0-L3) to leverage learned project taxonomy and institutional knowledge across sessions.

  • Quality gate enforcement: Implements mandatory validation stages, covering code correctness, security auditing (semgrep/gitleaks), and adherence to performance standards.

  • Aristotle-based analysis: Employs first-principles deconstruction to identify high-leverage actions and remove inherited assumptions before task execution.

  • Dynamic model routing: Automatically routes tasks to the appropriate model (e.g., Opus, Sonnet, or GLM) based on complexity scores from 1 to 10.

  • Invoke the skill using /orchestrator followed by the task description to trigger the automated workflow.

  • Use the --teammates flag to explicitly define the agent team composition for custom coordination needs.

  • Designed for complex engineering workflows such as migrating database schemas, implementing major authentication features, or performing large-scale code refactors.

  • Inputs typically include high-level feature requests or technical problem statements; outputs comprise a documented plan, parallel sub-agent executions, validation reports, and a final retrospective.

  • Practical constraints: Ensure that independent tasks are identified to maximize parallel efficiency; sequential tasks must be explicitly defined via dependency structures to avoid race conditions.

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