Cross-modal Observation Hypothesis Inference

Hypothesis inference, a sophisticated cognitive process that allows humans to construct plausible explanations for incomplete observations, is paramount to our ability to make sense of the world around us. Despite the universality of this skill, it remains under-explored within the context of multi-modal AI, which necessitates analyzing observation, recalling information in the mind, and generating explanations. In this work, we propose the <u>C</u>ross-modal <u>O</u>bservation hypothes<u>I</u>s i<u>N</u>ference task (COIN). Given a textual description of a partially observed event, COIN strives to recall the most probable event from the visual mind (video pool), and infer the subsequent action flow connecting the visual mind event and the observed textural event. To advance the development of this field, we propose a large-scale text-video dataset, Tex-COIN, that contains 39,796 meticulously annotated hypothesis inference examples and auxiliary commonsense knowledge (appearance, clothing, action, etc.) for key video characters. Based on the proposed Tex-COIN dataset, we design a strong baseline, COINNet, which features two perspectives: 1) aligning temporally displaced textual observations with target videos via transformer-based multi-task learning, and 2) inferring the action flow with non-parametric graph-based inference grounded in graph theory. Extensive experiments on the Tex-COIN dataset validate the effectiveness of our COINNet by significantly outperforming the state-of-the-arts.

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Publication Details

Published
2024-10-26
DOI
https://doi.org/10.1145/3664647.3681591
Primary Topic
Multimodal Machine Learning Applications
Type
article
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article

Cross-modal Observation Hypothesis Inference

Jingyuan Chen, Jiaxu Miao, Zhou Zhao, Shengyu Zhang et al.
Multimodal Machine Learning Applications
article

Cross-modal Observation Hypothesis Inference

Jingyuan Chen, Jiaxu Miao, Zhou Zhao, Shengyu Zhang, Yueying Li, Mengze Li, Tao Wu, Kairong Han, Jiahe Xu
article en

Abstract

Hypothesis inference, a sophisticated cognitive process that allows humans to construct plausible explanations for incomplete observations, is paramount to our ability to make sense of the world around us. Despite the universality of this skill, it remains under-explored within the context of multi-modal AI, which necessitates analyzing observation, recalling information in the mind, and generating explanations. In this work, we propose the <u>C</u>ross-modal <u>O</u>bservation hypothes<u>I</u>s i<u>N</u>ference task (COIN). Given a textual description of a partially observed event, COIN strives to recall the most probable event from the visual mind (video pool), and infer the subsequent action flow connecting the visual mind event and the observed textural event. To advance the development of this field, we propose a large-scale text-video dataset, Tex-COIN, that contains 39,796 meticulously annotated hypothesis inference examples and auxiliary commonsense knowledge (appearance, clothing, action, etc.) for key video characters. Based on the proposed Tex-COIN dataset, we design a strong baseline, COINNet, which features two perspectives: 1) aligning temporally displaced textual observations with target videos via transformer-based multi-task learning, and 2) inferring the action flow with non-parametric graph-based inference grounded in graph theory. Extensive experiments on the Tex-COIN dataset validate the effectiveness of our COINNet by significantly outperforming the state-of-the-arts.

Sun Yat-sen University (CN), Zhejiang University (CN)
Openalex Percentile: Top 82%
Multimodal Machine Learning Applications
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