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Recent Advances on Neuromorphic Systems Using Phase-Change Materials

机译:使用相变材料的神经形态系统的最新进展

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摘要

Realization of brain-like computer has always been human’s ultimate dream. Today, the possibility of having this dream come true has been significantly boosted due to the advent of several emerging non-volatile memory devices. Within these innovative technologies, phase-change memory device has been commonly regarded as the most promising candidate to imitate the biological brain, owing to its excellent scalability, fast switching speed, and low energy consumption. In this context, a detailed review concerning the physical principles of the neuromorphic circuit using phase-change materials as well as a comprehensive introduction of the currently available phase-change neuromorphic prototypes becomes imperative for scientists to continuously progress the technology of artificial neural networks. In this paper, we first present the biological mechanism of human brain, followed by a brief discussion about physical properties of phase-change materials that recently receive a widespread application on non-volatile memory field. We then survey recent research on different types of neuromorphic circuits using phase-change materials in terms of their respective geometrical architecture and physical schemes to reproduce the biological events of human brain, in particular for spike-time-dependent plasticity. The relevant virtues and limitations of these devices are also evaluated. Finally, the future prospect of the neuromorphic circuit based on phase-change technologies is envisioned.
机译:实现类似大脑的计算机一直是人类的终极梦想。如今,由于一些新兴的非易失性存储设备的出现,大大实现了实现这一梦想的可能性。在这些创新技术中,相变存储设备因其出色的可扩展性,快速的切换速度和低能耗而被普遍认为是模仿生物大脑的最有前途的候选者。在这种情况下,有关使用相变材料的神经形态电路的物理原理的详细综述,以及对当前可用的相变神经形态原型的全面介绍,对于科学家来说,迫切需要不断发展人工神经网络技术。在本文中,我们首先介绍人脑的生物学机制,然后简要讨论相变材料的物理性质,这些相变材料最近在非易失性存储领域得到了广泛的应用。然后,我们根据相变材料各自的几何结构和物理方案,对相变材料在不同类型的神经形态电路上的最新研究进行了调查,以再现人脑的生物事件,尤其是与时间相关的可塑性。还评估了这些设备的相关优点和局限性。最后,展望了基于相变技术的神经形态电路的未来前景。

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