基于氧化铪构建的人工神经网络研究

Research on artificial neural network based on hafnium oxide

  • 摘要: 基于氧化铪铁电隧道结(Ferroelectric Tunnel Junctions, ferroelectric tunnel junctions (FTJs))的材料特性与器件性能,结合其在存内计算中的应用潜力,系统研究了铪基材料在人工神经网络中的应用与实现,为未来非冯·诺依曼架构的硬件实现提供了理论与实验依据。本综述首先探讨了铪基材料的研究背景、国内外研究现状及发展趋势;接着分析了FTJ的工作原理,涵盖开关比、耐久性以及多态存储等关键指标,并总结了当前改善材料铁电性能的主要方法;最后重点讨论了铪基FTJ在人工神经网络中的应用,并对其未来发展方向进行了展望。

     

    Abstract: This paper systematically examines the application and implementation of hafnium-based materials in artificial neural networks, offering both theoretical insights and experimental foundations for the hardware realization of non-von Neumann architectures. Material properties, device performance of HfO2-based FTJs, and their potential applications in in-memory computing are thoroughly analyzed. First, the research background, global advancements, and emerging trends in hafnium-based materials are reviewed. Subsequently, the operational principles of FTJs are explored, with an emphasis on critical metrics such as switching ratio, endurance, and multi-state storage, alongside current strategies to enhance their ferroelectric characteristics. Finally, the integration of hafnium-based FTJs into neural networks is evaluated, and potential future development pathways are projected.

     

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