Probabilistic Distillation Transformer: Modelling Uncertainties for Visual Abductive Reasoning

Visual abduction reasoning aims to find the most plausible explanation for incomplete observations, and suffers from inherent uncertainties and ambiguities, which mainly stem from the latent causal relations, incomplete observations, and the reasoning itself. To address this, we propose a probabilistic model named Uncertainty-Guided Probabilistic Distillation Transformer (UPD-Trans) to model uncertainties for Visual Abductive Reasoning. In order to better discover the correct cause-effect chain, we model all the potential causal relations into a unified reasoning framework, thus both the direct relations and latent relations are considered. In order to reduce the effect of the stochasticity and uncertainty for reasoning: 1) we extend the deterministic Transformer to a probabilistic Transformer by considering those uncertain factors as Gaussian random variables and explicitly modeling their distribution; 2) we introduce a distillation mechanism between the posterior branch with complete observations and the prior branch with incomplete observations to transfer posterior knowledge. Evaluation results on the benchmark datasets, consistently demonstrate the commendable performance of our UPD-Trans, with significant improvements after latent relation modeling and uncertainty modeling.

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Published
2024-10-26
DOI
https://doi.org/10.1145/3664647.3680791
Primary Topic
Multimodal Machine Learning Applications
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article
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article

Probabilistic Distillation Transformer: Modelling Uncertainties for Visual Abductive Reasoning

Xiaole Ma, Lili Wan, Wanru Xu, Yigang Cen et al.
Multimodal Machine Learning Applications
article

Probabilistic Distillation Transformer: Modelling Uncertainties for Visual Abductive Reasoning

Xiaole Ma, Lili Wan, Wanru Xu, Yigang Cen, Zhenjiang Miao, Yi Tian
article en

Abstract

Visual abduction reasoning aims to find the most plausible explanation for incomplete observations, and suffers from inherent uncertainties and ambiguities, which mainly stem from the latent causal relations, incomplete observations, and the reasoning itself. To address this, we propose a probabilistic model named Uncertainty-Guided Probabilistic Distillation Transformer (UPD-Trans) to model uncertainties for Visual Abductive Reasoning. In order to better discover the correct cause-effect chain, we model all the potential causal relations into a unified reasoning framework, thus both the direct relations and latent relations are considered. In order to reduce the effect of the stochasticity and uncertainty for reasoning: 1) we extend the deterministic Transformer to a probabilistic Transformer by considering those uncertain factors as Gaussian random variables and explicitly modeling their distribution; 2) we introduce a distillation mechanism between the posterior branch with complete observations and the prior branch with incomplete observations to transfer posterior knowledge. Evaluation results on the benchmark datasets, consistently demonstrate the commendable performance of our UPD-Trans, with significant improvements after latent relation modeling and uncertainty modeling.

Beijing Jiaotong University (CN)
Gender equality
Openalex Percentile: Top 81%
Multimodal Machine Learning Applications
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Probabilistic Distillation Transformer: Modelling Uncertainties for Visual Abductive Reasoning — Xiaole Ma, Lili Wan, et al. · (2024) | TGRS Research Map | TGRS