HumanDreamer: Generating Controllable Human-Motion Videos via Decoupled Generation

Boyuan Wang; Xiaofeng Wang; Chaojun Ni; Guosheng Zhao; Zhiqin Yang; Zheng Zhu; Muyang Zhang; Yukun Zhou; Xinze Chen; Guan Huang; Lihong Liu; Xingang Wang

arXiv · 2503.24026

HumanDreamer: Generating Controllable Human-Motion Videos via Decoupled Generation

Boyuan Wang·Xiaofeng Wang·Chaojun Ni·Guosheng Zhao·Zhiqin Yang·Zheng Zhu·Muyang Zhang·Yukun Zhou·Xinze Chen·Guan Huang·Lihong Liu·Xingang Wang

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Abstract

Human-motion video generation has been a challenging task, primarily due to the difficulty inherent in learning human body movements. While some approaches have attempted to drive human-centric video generation explicitly through pose control, these methods typically rely on poses derived from existing videos, thereby lacking flexibility. To address this, we propose HumanDreamer, a decoupled human video generation framework that first generates diverse poses from text prompts and then leverages these poses to generate human-motion videos. Specifically, we propose MotionVid, the largest dataset for human-motion pose generation. Based on the dataset, we present MotionDiT, which is trained to generate structured human-motion poses from text prompts. Besides, a novel LAMA loss is introduced, which together contribute to a significant improvement in FID by 62.4%, along with respective enhancements in R-precision for top1, top2, and top3 by 41.8%, 26.3%, and 18.3%, thereby advancing both the Text-to-Pose control accuracy and FID metrics. Our experiments across various Pose-to-Video baselines demonstrate that the poses generated by our method can produce diverse and high-quality human-motion videos. Furthermore, our model can facilitate other downstream tasks, such as pose sequence prediction and 2D-3D motion lifting.

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BibTeX RIS

Boyuan Wang, Xiaofeng Wang, Chaojun Ni, Guosheng Zhao, Zhiqin Yang, Zheng Zhu, Muyang Zhang, Yukun Zhou, Xinze Chen, Guan Huang, Lihong Liu, Xingang Wang. 2025-03-31. HumanDreamer: Generating Controllable Human-Motion Videos via Decoupled Generation. https://arxiv.org/abs/2503.24026

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