PhysEvolve: Verifier-grounded Self-evolution for Physical Reasoning with Executable Worlds
Summary
PhysEvolve 提出一个验证器驱动的自演化框架,利用物理引擎验证模型自生成的可执行世界与反事实仿真,以 GRPO 训练视觉语言模型的因果物理推理能力,在 PhysBench、CausalPhys 和 ContPhy 上取得显著提升且无需人类干预数据。
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Paper page - PhysEvolve: Verifier-grounded Self-evolution for Physical Reasoning with Executable Worlds
Source: https://huggingface.co/papers/2610.34921
Abstract
Physevolve trains vision-language models in causal physical reasoning by using a physics engine to validate self-generated executable worlds and counterfactual simulations, improving performance on dynamics benchmarks without human data.
Physical reasoningunderpins how embodied systems understand and act in the physical world, yetvision-language models(VLMs) remain unreliable on questions about dynamics and physical causality. Progress is critically constrained by the scarcity of groundedcounterfactualtraining data, as observational videos capture only the factual trajectory that occurred. Theself-evolvingparadigm offers a route beyond fixed datasets by enabling models to construct their own training problems. Extending this paradigm to physics, however, requires an external source of truth that can both validate model-proposed environments and verify alternative physical outcomes under intervention. We introduce , a verifier-groundedself-evolvingframework that trains VLMs forcausal physical reasoningfrom model-proposed executable worlds and simulation-authored tasks. At each round, a shared VLM proposesexecutable world programsand evidence schemas; a deterministicphysics enginefreezes each valid world, simulates matched baseline and body-elidedcounterfactualbranches, and synthesizes discrete, answer-bound visual tasks. Exact verifier feedback from task solving updates both the shared policy viaGRPOand an adaptive curriculum over physical intents. Starting from Qwen3-VL-8B-Instruct, achieves targeted gains acrossPhysBench, CausalPhys, andContPhywithout human intervention data, improvingPhysBenchThrowing by 8.8 points andContPhyCounterfactualRemoval and Goal-Pit by 7.4 and 24.4 points. These gains concentrate on interaction-sensitive and altered-world questions, demonstrating zero-shot transfer of causal principles to unseen complex dynamics (cloth, fluid, soft bodies) and real-world video.
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