Engineering topolectrical circuits

IF 34.8
Yuxin Jiang, Wenhao Li, Weixuan Zhang, Ce Shang, Yihao Yang, Xiangdong Zhang, Ching Hua Lee, Ronny Thomale
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Abstract

Topolectrical circuits are electrical networks that encode topological band theory. Their physical behaviour is set by how the components are wired together, not by where they are placed. This wiring-centred design delivers defect tolerance, directional signal flow without bulky magnetic parts, and amplified response at boundaries. Conventional electronics obtain these only by adding isolators, feedback or calibration after the circuit is laid out. In this Review, we identify which capabilities are engineering-ready and which remain confined to the laboratory. We cover the underlying physics, the resulting sensors and engineering applications, and cross-disciplinary uses in quantum simulation, artificial intelligence-assisted design and curved-space geometries. We then examine how co-integration with memristive devices makes the platform adaptive and history-dependent. We close with the hardware routes towards deployable electronics, from monolithic chips to flexible substrates and body-worn systems. Topolectrical circuits route signals one way without magnets and keep working when components fail. These capabilities come from how the components are wired together, not from added parts. This Review covers their physics, applications across sensing, wireless power and communications, and the path towards integrated, flexible and adaptive electronics.

Abstract Image

工程拓扑电路
拓扑电路是编码拓扑频带理论的电子网络。它们的物理行为是由组件如何连接在一起决定的,而不是由它们的位置决定的。这种以布线为中心的设计提供了缺陷容忍度,定向信号流没有笨重的磁性部件,并在边界处放大了响应。传统的电子学只能通过在电路布局后添加隔离器、反馈或校准来获得这些。在这篇综述中,我们确定了哪些能力是工程准备就绪的,哪些能力仍然局限于实验室。我们涵盖了基础物理学,由此产生的传感器和工程应用,以及在量子模拟,人工智能辅助设计和弯曲空间几何中的跨学科应用。然后,我们研究了与记忆器件的协整如何使平台自适应和依赖于历史。我们以硬件路线接近可部署电子产品,从单片芯片到柔性基板和身体穿戴系统。拓扑电路在没有磁铁的情况下单向传输信号,并在元件失效时保持工作。这些功能来自组件如何连接在一起,而不是来自添加的部件。这篇综述涵盖了它们的物理,在传感,无线电源和通信方面的应用,以及走向集成,灵活和自适应电子的道路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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