Neuronal Cell Type Classification Using Locally Sparse Networks

Ofek Ophir, Orit Shefi, O. Lindenbaum
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Abstract

The brain is likely the most complex organ, given the variety of functions it controls, the number of cells it comprises, and their corresponding connectivity and diversity. Identifying and studying neurons, the major building blocks of the brain, is a crucial milestone and is essential for understanding brain functionality in health and disease. Recent developments in machine learning have provided advanced abilities for classifying neurons, mainly according to their morphology. This paper aims to provide an explainable deep-learning framework to classify neurons based on their electrophysiological activity. Our analysis is performed on data provided by the Allen Cell Types database. The data contains a survey of biological features derived from single-cell recordings from mice. Neurons are classified into subtypes based on Cre mouse lines using an inherently interpretable locally sparse deep neural network model. We show state-of-the-art results in the neuron classification task while providing explainability to the decisions made by the model.
基于局部稀疏网络的神经元细胞类型分类
大脑可能是最复杂的器官,因为它控制着各种各样的功能,它所包含的细胞数量,以及它们相应的连通性和多样性。识别和研究神经元(大脑的主要组成部分)是一个至关重要的里程碑,对于理解大脑在健康和疾病中的功能至关重要。机器学习的最新发展为神经元分类提供了先进的能力,主要是根据它们的形态。本文旨在提供一个可解释的深度学习框架,根据神经元的电生理活动对其进行分类。我们的分析是根据Allen Cell Types数据库提供的数据进行的。这些数据包含了对来自小鼠单细胞记录的生物学特征的调查。使用固有可解释的局部稀疏深度神经网络模型,基于Cre小鼠系将神经元分类为亚型。我们在神经元分类任务中展示了最先进的结果,同时为模型做出的决策提供了可解释性。
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