ABot-PhysWorld: Interactive World Foundation Model for Robotic Manipulation with Physics Alignment

Fuente: arXiv
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Autori principali: Chen, Yuzhi, Chen, Ronghan, Huo, Dongjie, Yang, Yandan, Qi, Dekang, Liu, Haoyun, Lin, Tong, Zeng, Shuang, Xiao, Junjin, Chang, Xinyuan, Xiong, Feng, Wei, Xing, Ma, Zhiheng, Xu, Mu
Natura: Preprint
Pubblicazione: 2026
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author Chen, Yuzhi
Chen, Ronghan
Huo, Dongjie
Yang, Yandan
Qi, Dekang
Liu, Haoyun
Lin, Tong
Zeng, Shuang
Xiao, Junjin
Chang, Xinyuan
Xiong, Feng
Wei, Xing
Ma, Zhiheng
Xu, Mu
author_facet Chen, Yuzhi
Chen, Ronghan
Huo, Dongjie
Yang, Yandan
Qi, Dekang
Liu, Haoyun
Lin, Tong
Zeng, Shuang
Xiao, Junjin
Chang, Xinyuan
Xiong, Feng
Wei, Xing
Ma, Zhiheng
Xu, Mu
contents Video-based world models offer a powerful paradigm for embodied simulation and planning, yet state-of-the-art models often generate physically implausible manipulations - such as object penetration and anti-gravity motion - due to training on generic visual data and likelihood-based objectives that ignore physical laws. We present ABot-PhysWorld, a 14B Diffusion Transformer model that generates visually realistic, physically plausible, and action-controllable videos. Built on a curated dataset of three million manipulation clips with physics-aware annotation, it uses a novel DPO-based post-training framework with decoupled discriminators to suppress unphysical behaviors while preserving visual quality. A parallel context block enables precise spatial action injection for cross-embodiment control. To better evaluate generalization, we introduce EZSbench, the first training-independent embodied zero-shot benchmark combining real and synthetic unseen robot-task-scene combinations. It employs a decoupled protocol to separately assess physical realism and action alignment. ABot-PhysWorld achieves new state-of-the-art performance on PBench and EZSbench, surpassing Veo 3.1 and Sora v2 Pro in physical plausibility and trajectory consistency. We will release EZSbench to promote standardized evaluation in embodied video generation.
format Preprint
id arxiv_https___arxiv_org_abs_2603_23376
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle ABot-PhysWorld: Interactive World Foundation Model for Robotic Manipulation with Physics Alignment
Chen, Yuzhi
Chen, Ronghan
Huo, Dongjie
Yang, Yandan
Qi, Dekang
Liu, Haoyun
Lin, Tong
Zeng, Shuang
Xiao, Junjin
Chang, Xinyuan
Xiong, Feng
Wei, Xing
Ma, Zhiheng
Xu, Mu
Computer Vision and Pattern Recognition
Robotics
Video-based world models offer a powerful paradigm for embodied simulation and planning, yet state-of-the-art models often generate physically implausible manipulations - such as object penetration and anti-gravity motion - due to training on generic visual data and likelihood-based objectives that ignore physical laws. We present ABot-PhysWorld, a 14B Diffusion Transformer model that generates visually realistic, physically plausible, and action-controllable videos. Built on a curated dataset of three million manipulation clips with physics-aware annotation, it uses a novel DPO-based post-training framework with decoupled discriminators to suppress unphysical behaviors while preserving visual quality. A parallel context block enables precise spatial action injection for cross-embodiment control. To better evaluate generalization, we introduce EZSbench, the first training-independent embodied zero-shot benchmark combining real and synthetic unseen robot-task-scene combinations. It employs a decoupled protocol to separately assess physical realism and action alignment. ABot-PhysWorld achieves new state-of-the-art performance on PBench and EZSbench, surpassing Veo 3.1 and Sora v2 Pro in physical plausibility and trajectory consistency. We will release EZSbench to promote standardized evaluation in embodied video generation.
title ABot-PhysWorld: Interactive World Foundation Model for Robotic Manipulation with Physics Alignment
topic Computer Vision and Pattern Recognition
Robotics
url https://arxiv.org/abs/2603.23376