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arxiv_ml 90% Match Research Paper Robotics Engineers,AI Researchers,Control Systems Engineers,Product Designers 1 week ago

Debate2Create: Robot Co-design via Large Language Model Debates

robotics › sim-to-real
📄 Abstract

Abstract: Automating the co-design of a robot's morphology and control is a long-standing challenge due to the vast design space and the tight coupling between body and behavior. We introduce Debate2Create (D2C), a framework in which large language model (LLM) agents engage in a structured dialectical debate to jointly optimize a robot's design and its reward function. In each round, a design agent proposes targeted morphological modifications, and a control agent devises a reward function tailored to exploit the new design. A panel of pluralistic judges then evaluates the design-control pair in simulation and provides feedback that guides the next round of debate. Through iterative debates, the agents progressively refine their proposals, producing increasingly effective robot designs. Notably, D2C yields diverse and specialized morphologies despite no explicit diversity objective. On a quadruped locomotion benchmark, D2C discovers designs that travel 73% farther than the default, demonstrating that structured LLM-based debate can serve as a powerful mechanism for emergent robot co-design. Our results suggest that multi-agent debate, when coupled with physics-grounded feedback, is a promising new paradigm for automated robot design.
Authors (2)
Kevin Qiu
Marek Cygan
Submitted
October 29, 2025
arXiv Category
cs.RO
arXiv PDF

Key Contributions

Introduces Debate2Create (D2C), a framework where LLM agents engage in a dialectical debate to jointly optimize a robot's morphology and control policy. This iterative process progressively refines proposals, yielding effective and diverse robot designs, demonstrated on a quadruped locomotion benchmark.

Business Value

Accelerates the development of novel and high-performing robots by automating complex design and control optimization processes, leading to more capable and specialized robotic systems.