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Autori principali: Lin, Jingzhong, Li, Xinru, Qi, Yuanyuan, Zhang, Bohao, Liu, Wenxiang, Tang, Kecheng, Huang, Wenxuan, Xu, Xiangfeng, Li, Bangyan, Wang, Changbo, He, Gaoqi
Natura: Preprint
Pubblicazione: 2025
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Accesso online:https://arxiv.org/abs/2505.05589
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author Lin, Jingzhong
Li, Xinru
Qi, Yuanyuan
Zhang, Bohao
Liu, Wenxiang
Tang, Kecheng
Huang, Wenxuan
Xu, Xiangfeng
Li, Bangyan
Wang, Changbo
He, Gaoqi
author_facet Lin, Jingzhong
Li, Xinru
Qi, Yuanyuan
Zhang, Bohao
Liu, Wenxiang
Tang, Kecheng
Huang, Wenxuan
Xu, Xiangfeng
Li, Bangyan
Wang, Changbo
He, Gaoqi
contents Reactive dance generation (RDG), the task of generating a dance conditioned on a lead dancer's motion, holds significant promise for enhancing human-robot interaction and immersive digital entertainment. Despite progress in duet synchronization and motion-music alignment, two key challenges remain: generating fine-grained spatial interactions and ensuring long-term temporal coherence. In this work, we introduce \textbf{ReactDance}, a diffusion framework that operates on a novel hierarchical latent space to address these spatiotemporal challenges in RDG. First, for high-fidelity spatial expression and fine-grained control, we propose Hierarchical Finite Scalar Quantization (\textbf{HFSQ}). This multi-scale motion representation effectively disentangles coarse body posture from subtle limb dynamics, enabling independent and detailed control over both aspects through a layered guidance mechanism. Second, to efficiently generate long sequences with high temporal coherence, we propose Blockwise Local Context (\textbf{BLC}), a non-autoregressive sampling strategy. Departing from slow, frame-by-frame generation, BLC partitions the sequence into blocks and synthesizes them in parallel via periodic causal masking and positional encodings. Coherence across these blocks is ensured by a dense sliding-window training approach that enriches the representation with local temporal context. Extensive experiments show that ReactDance substantially outperforms state-of-the-art methods in motion quality, long-term coherence, and sampling efficiency. Project page: https://ripemangobox.github.io/ReactDance.
format Preprint
id arxiv_https___arxiv_org_abs_2505_05589
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle ReactDance: Hierarchical Representation for High-Fidelity and Coherent Long-Form Reactive Dance Generation
Lin, Jingzhong
Li, Xinru
Qi, Yuanyuan
Zhang, Bohao
Liu, Wenxiang
Tang, Kecheng
Huang, Wenxuan
Xu, Xiangfeng
Li, Bangyan
Wang, Changbo
He, Gaoqi
Computer Vision and Pattern Recognition
Artificial Intelligence
Machine Learning
Reactive dance generation (RDG), the task of generating a dance conditioned on a lead dancer's motion, holds significant promise for enhancing human-robot interaction and immersive digital entertainment. Despite progress in duet synchronization and motion-music alignment, two key challenges remain: generating fine-grained spatial interactions and ensuring long-term temporal coherence. In this work, we introduce \textbf{ReactDance}, a diffusion framework that operates on a novel hierarchical latent space to address these spatiotemporal challenges in RDG. First, for high-fidelity spatial expression and fine-grained control, we propose Hierarchical Finite Scalar Quantization (\textbf{HFSQ}). This multi-scale motion representation effectively disentangles coarse body posture from subtle limb dynamics, enabling independent and detailed control over both aspects through a layered guidance mechanism. Second, to efficiently generate long sequences with high temporal coherence, we propose Blockwise Local Context (\textbf{BLC}), a non-autoregressive sampling strategy. Departing from slow, frame-by-frame generation, BLC partitions the sequence into blocks and synthesizes them in parallel via periodic causal masking and positional encodings. Coherence across these blocks is ensured by a dense sliding-window training approach that enriches the representation with local temporal context. Extensive experiments show that ReactDance substantially outperforms state-of-the-art methods in motion quality, long-term coherence, and sampling efficiency. Project page: https://ripemangobox.github.io/ReactDance.
title ReactDance: Hierarchical Representation for High-Fidelity and Coherent Long-Form Reactive Dance Generation
topic Computer Vision and Pattern Recognition
Artificial Intelligence
Machine Learning
url https://arxiv.org/abs/2505.05589