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Elastic resistance change and action potential generation of non-faradaic Pt/TiO2/Pt capacitors

机译:弹性阻力变化和动作电位代non-faradaic Pt /二氧化钛/ Pt电容器

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Electric current in the mixed ionic-electronic conductor TiO2 is hysteretic, i.e. history-dependent, and its use is versatile in electronic devices. Nowadays, biologically inspired, analogue-type computing systems, known as neuromorphic systems, are being actively investigated owing to their new and intriguing physical concepts. The realization of artificial synapses is important for constructing neuromorphic Systems. In mammalians' brains, the plasticity of synapses between neighbouring nerve cells arises from action potential firing. Emulating action potential firing via inorganic systems has therefore become important in neuromorphic engineering. In this work, the current-voltage hysteresis of TiO2-based non-faradaic capacitors is investigated to primarily focus on the correlation between the blocking contact and the elasticity, i.e. non-plasticity, of the capacitors' resistance change, in experimental and theoretical methods. The similarity between the action potential firing behaviour in nerve cells and the elasticity of the non-faradaic capacitors is addressed.
机译:在混合ionic-electronic电流导体二氧化钛是滞后的。history-dependent,它的使用是多才多艺的电子设备。启发,模拟型计算系统神经形态系统,正在积极由于他们新的和有趣的调查物理概念。突触对建设很重要神经形态系统。之间的突触可塑性邻近的神经细胞起源于动作电位射击。通过无机模仿动作电位放电系统因此变得很重要神经工程。电流电压的滞后TiO2-basednon-faradaic电容器研究主要关注之间的相关性阻止接触和弹性。non-plasticity,电容器的阻力变化,在实验和理论方法。动作电位之间的相似性在神经细胞和发射行为弹性non-faradaic电容器解决。

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