OASIS: Object-guided Attention for Text-conditional Diffusion Synthesis of Human Interaction Sequences

Analyzing and synthesizing human-object interaction is crucial for advancing intelligent systems that engage with the physical environment. However, simultaneous tracking of human and object data presents inherent challenges, resulting in limitations in dataset scale, diversity, and annotation quality within this domain, thereby hindering the generalization ability of trained models. This study introduces OASIS, a novel framework that extends pretrained text-conditional human motion diffusion models to address the complex task of fullbody 3D hand-object interaction generation. Specifically, we freeze the parameters of the pretrained motion diffusion model, while incorporating additional object-guided attention layers, which we train to adapt the human motion latents to match the input object motion sequence and the text. Our method can be understood as a ControlNet [38] for interaction. Through extensive experimentation, we demonstrate the effectiveness and robustness of our framework in generating realistic handobject interactions from textual descriptions. Our method surpasses the state-of-the-art performance in FID and accuracy interaction fidelity metrics compared to the prior best method IMoS [10], with improvements of 0.08 in FID and $2 \%$ in accuracy for body motion synthesis, and 0.15 in FID and $10 \%$ in accuracy for hand motion synthesis.

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Published
2025-05-26
DOI
https://doi.org/10.1109/fg61629.2025.11099295
Primary Topic
Natural Language Processing Techniques
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article
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article

OASIS: Object-guided Attention for Text-conditional Diffusion Synthesis of Human Interaction Sequences

Fernando De La Torre, Shingo Takagi, Zoltán Á. Milacski, Tianhui Cai et al.
Natural Language Processing Techniques
article

OASIS: Object-guided Attention for Text-conditional Diffusion Synthesis of Human Interaction Sequences

Fernando De La Torre, Shingo Takagi, Zoltán Á. Milacski, Tianhui Cai, Chih-Chun Yang, Daeil Kim, Aayush Prakash
article en

Abstract

Analyzing and synthesizing human-object interaction is crucial for advancing intelligent systems that engage with the physical environment. However, simultaneous tracking of human and object data presents inherent challenges, resulting in limitations in dataset scale, diversity, and annotation quality within this domain, thereby hindering the generalization ability of trained models. This study introduces OASIS, a novel framework that extends pretrained text-conditional human motion diffusion models to address the complex task of fullbody 3D hand-object interaction generation. Specifically, we freeze the parameters of the pretrained motion diffusion model, while incorporating additional object-guided attention layers, which we train to adapt the human motion latents to match the input object motion sequence and the text. Our method can be understood as a ControlNet [38] for interaction. Through extensive experimentation, we demonstrate the effectiveness and robustness of our framework in generating realistic handobject interactions from textual descriptions. Our method surpasses the state-of-the-art performance in FID and accuracy interaction fidelity metrics compared to the prior best method IMoS [10], with improvements of 0.08 in FID and $2 \%$ in accuracy for body motion synthesis, and 0.15 in FID and $10 \%$ in accuracy for hand motion synthesis.

Carnegie Mellon University (US)
Openalex Percentile: Top 90%
Natural Language Processing Techniques
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