arXiv:2504.11609stat.MLcs.AI2025-04中稿 · Journal of the Ame…被引 15

用因果推理让生成模型的隐藏表示可解释

Towards Interpretable Deep Generative Models via Causal Representation Learning

  • 基于因果关系构建可解释的生成模型表示
  • 融合潜在变量、因果图与非参数统计方法
  • 适合关注模型可解释性的研究者与应用开发者

近年来,生成式人工智能的发展依赖于深度学习和生成建模等技术,在多个领域达到顶尖性能。这些方法的成功部分源于其学习复杂多模态数据隐含表示的能力。然而,深度神经网络通常为黑箱,难以解析其内部表示。为解决这一问题,因果表示学习(CRL)作为新兴领域应运而生,以因果性为指导,构建灵活、可解释且可迁移的生成式AI模型。CRL整合了三大统计思想:(i) 潜在变量模型(如因子分析);(ii) 含潜在变量的因果图模型;(iii) 非参数统计与深度学习。本文从统计视角介绍CRL,强调其与经典模型的联系及统计与因果可识别性结果。同时,文中还探讨了关键应用方向、实现策略与未解的统计问题。

原文摘要 · Abstract (English)

Recent developments in generative artificial intelligence (AI) rely on machine learning techniques such as deep learning and generative modeling to achieve state-of-the-art performance across wide-ranging domains. These methods' surprising performance is due in part to their ability to learn implicit "representations" of complex, multi-modal data. Unfortunately, deep neural networks are notoriously black boxes that obscure these representations, making them difficult to interpret or analyze. To resolve these difficulties, one approach is to build new interpretable neural network models from the ground up. This is the goal of the emerging field of causal representation learning (CRL) that uses causality as a vector for building flexible, interpretable, and transferable generative AI. CRL can be seen as a synthesis of three intrinsically statistical ideas: (i) latent variable models such as factor analysis; (ii) causal graphical models with latent variables; and (iii) nonparametric statistics and deep learning. This paper introduces CRL from a statistical perspective, focusing on connections to classical models as well as statistical and causal identifiability results. We also highlights key application areas, implementation strategies, and open statistical questions.

可解释性因果学习生成模型表示学习

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