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Causality for Inherently Explainable Transformers: CAT-XPLAIN

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abstract

There have been several post-hoc explanation approaches developed to explain pre-trained black-box neural networks. However, there is still a gap in research efforts toward designing neural networks that are inherently explainable. In this paper, we utilize a recently proposed instance-wise post-hoc causal explanation method to make an existing transformer architecture inherently explainable. Once trained, our model provides an explanation in the form of top-$k$ regions in the input space of the given instance contributing to its decision. We evaluate our method on binary classification tasks using three image datasets: MNIST, FMNIST, and CIFAR. Our results demonstrate that compared to the causality-based post-hoc explainer model, our inherently explainable model achieves better explainability results while eliminating the need of training a separate explainer model. Our code is available at https://github.com/mvrl/CAT-XPLAIN.

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Latent Flow Transformer

cs.LG · 2025-05-20 · conditional · novelty 6.0

LFT replaces up to 13 of 24 transformer layers of Pythia-410M with a single flow-based layer trained with Flow Walking, achieving KL 0.736 vs 0.932 for skipping three layers.

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  • Latent Flow Transformer cs.LG · 2025-05-20 · conditional · none · ref 28 · internal anchor

    LFT replaces up to 13 of 24 transformer layers of Pythia-410M with a single flow-based layer trained with Flow Walking, achieving KL 0.736 vs 0.932 for skipping three layers.