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我们如何进行归纳?

How do we generalize?

作者信息

Taylor Jessica Elizabeth, Cortese Aurelio, Barron Helen C, Pan Xiaochuan, Sakagami Masamichi, Zeithamova Dagmar

机构信息

The Department of Decoded Neurofeedback, Computational Neuroscience Laboratories, Advanced Telecommunications Research Institute International, Kyoto, Japan.

Institute of Cognitive Neuroscience, University College London, UK.

出版信息

Neuron Behav Data Anal Theory. 2021 Aug 30;1. doi: 10.51628/001c.27687.

Abstract

Humans and animals are able to generalize or transfer information from previous experience so that they can behave appropriately in novel situations. What mechanisms-computations, representations, and neural systems-give rise to this remarkable ability? The members of this Generative Adversarial Collaboration (GAC) come from a range of academic backgrounds but are all interested in uncovering the mechanisms of generalization. We started out this GAC with the aim of arbitrating between two alternative conceptual accounts: (1) generalization stems from integration of multiple experiences into summary representations that reflect generalized knowledge, and (2) generalization is computed on-the-fly using separately stored individual memories. Across the course of this collaboration, we found that-despite using different terminology and techniques, and although some of our specific papers may provide evidence one way or the other-we in fact largely agree that both of these broad accounts (as well as several others) are likely valid. We believe that future research and theoretical synthesis across multiple lines of research is necessary to help determine the degree to which different candidate generalization mechanisms may operate simultaneously, operate on different scales, or be employed under distinct conditions. Here, as the first step, we introduce some of these candidate mechanisms and we discuss the issues currently hindering better synthesis of generalization research. Finally, we introduce some of our own research questions that have arisen over the course of this GAC, that we believe would benefit from future collaborative efforts.

摘要

人类和动物能够从先前的经验中归纳或迁移信息,以便在新的情境中做出恰当的行为。是什么机制——计算、表征和神经系统——产生了这种非凡的能力?这个生成对抗协作团队(GAC)的成员来自不同的学术背景,但都对揭示归纳机制感兴趣。我们启动这个GAC的目的是在两种不同的概念解释之间进行裁决:(1)归纳源于将多种经验整合为反映归纳知识的概要表征,(2)归纳是通过即时使用单独存储的个体记忆来计算的。在这次合作过程中,我们发现——尽管使用了不同的术语和技术,而且我们的一些具体论文可能会提供支持其中一种或另一种观点的证据——但实际上我们在很大程度上都认同这两种宽泛的解释(以及其他几种解释)可能都是有效的(。我们认为,未来跨多条研究线路的研究和理论综合对于帮助确定不同的候选归纳机制可能同时运行的程度、在不同尺度上运行的情况或在不同条件下被采用的情况是必要的。在这里,作为第一步,我们介绍其中一些候选机制,并讨论目前阻碍归纳研究更好综合的问题。最后,我们介绍一些在这次GAC过程中出现的我们自己的研究问题,我们认为这些问题将受益于未来的合作努力。

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