Comparing performance between a deep neural network and monkeys with bilateral removals of visual area TE in categorizing feature-ambiguous stimuli.

IF 1.5 4区 医学 Q3 MATHEMATICAL & COMPUTATIONAL BIOLOGY Journal of Computational Neuroscience Pub Date : 2022-08-01 Epub Date: 2023-05-17 DOI:10.1007/s10827-023-00854-y
Narihisa Matsumoto, Mark A G Eldridge, J Megan Fredericks, Kaleb A Lowe, Barry J Richmond
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Abstract

In the canonical view of visual processing the neural representation of complex objects emerges as visual information is integrated through a set of convergent, hierarchically organized processing stages, ending in the primate inferior temporal lobe. It seems reasonable to infer that visual perceptual categorization requires the integrity of anterior inferior temporal cortex (area TE). Many deep neural networks (DNNs) are structured to simulate the canonical view of hierarchical processing within the visual system. However, there are some discrepancies between DNNs and the primate brain. Here we evaluated the performance of a simulated hierarchical model of vision in discriminating the same categorization problems presented to monkeys with TE removals. The model was able to simulate the performance of monkeys with TE removals in the categorization task but performed poorly when challenged with visually degraded stimuli. We conclude that further development of the model is required to match the level of visual flexibility present in the monkey visual system.

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比较深度神经网络和双侧去除视觉区域TE的猴子在对特征模糊刺激进行分类方面的表现。
在视觉处理的经典观点中,复杂物体的神经表示是随着视觉信息通过一组收敛的、分层组织的处理阶段整合而出现的,最终在灵长类动物的下颞叶结束。似乎可以合理地推断,视觉感知分类需要前颞下皮层(TE区)的完整性。许多深度神经网络(DNN)的结构是为了模拟视觉系统中层次处理的规范视图。然而,DNN和灵长类动物的大脑之间存在一些差异。在这里,我们评估了一个模拟的视觉层次模型在区分去除TE的猴子遇到的相同分类问题方面的性能。该模型能够模拟去除TE的猴子在分类任务中的表现,但在受到视觉退化刺激的挑战时表现不佳。我们得出的结论是,需要进一步开发该模型,以匹配猴子视觉系统中存在的视觉灵活性水平。
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来源期刊
CiteScore
2.00
自引率
8.30%
发文量
32
审稿时长
3 months
期刊介绍: The Journal of Computational Neuroscience provides a forum for papers that fit the interface between computational and experimental work in the neurosciences. The Journal of Computational Neuroscience publishes full length original papers, rapid communications and review articles describing theoretical and experimental work relevant to computations in the brain and nervous system. Papers that combine theoretical and experimental work are especially encouraged. Primarily theoretical papers should deal with issues of obvious relevance to biological nervous systems. Experimental papers should have implications for the computational function of the nervous system, and may report results using any of a variety of approaches including anatomy, electrophysiology, biophysics, imaging, and molecular biology. Papers investigating the physiological mechanisms underlying pathologies of the nervous system, or papers that report novel technologies of interest to researchers in computational neuroscience, including advances in neural data analysis methods yielding insights into the function of the nervous system, are also welcomed (in this case, methodological papers should include an application of the new method, exemplifying the insights that it yields).It is anticipated that all levels of analysis from cognitive to cellular will be represented in the Journal of Computational Neuroscience.
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