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Intra-Thalamic and Thalamocortical Connectivity: Potential Implication for Deep Learning

机译:肺内和丘脑皮质连通性:深度学习的潜在意义

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Contrary to the traditional view that the thalamus acts as a passive relay station of sensory information to the cortex, a number of experimental studies have demonstrated the effects of peri-geniculate and cortico-thalamic projections on the transmission of visual input. In the present study, we implemented a mechanistic model to facilitate the understanding of peri-geniculate and cortico-thalamic effects on the transfer function of geniculate cells and their firing patterns. As a result, the model successfully captures some fundamental properties of early-stage visual processing in mammalian brain. We conclude, therefore, that the thalamus is not a passive relay center and the intra-thalamic circuitry is of great importance to biological vision. In summary, intra-thalamic and thalamocortical circuitries have implications in early-stage visual processing, and could constitute a valid tool for refining information relay and compression in artificial neural networks (ANN), leading to deep learning models of higher performance.
机译:与传统的观点认为丘脑充当皮层感觉信息的被动中继站相反,许多实验研究已经证明了丘脑周围和皮质丘脑投影对视觉输入传递的影响。在本研究中,我们实现了一种机制模型,以帮助理解周膝状和皮质丘脑对膝状细胞的传递功能及其放电方式的影响。结果,该模型成功地捕获了哺乳动物大脑中早期视觉处理的一些基本特性。因此,我们得出的结论是,丘脑不是被动的中继中心,而丘脑内部电路对于生物视觉非常重要。总而言之,丘脑内和丘脑皮质回路在早期视觉处理中具有意义,并且可以构成一种有效的工具,用于改进人工神经网络(ANN)中的信息中继和压缩,从而导致更高性能的深度学习模型。

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