Nanoelectromechanical switching devices: Scaling toward ultimate energy efficiency and longevity

P. Feng
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Abstract

The active search for candidates of an ideal switching device for low-voltage logic and ultralow-power applications has stimulated focused explorations of contact-mode switches (relays) based on micro/nanoelectromechanical systems (MEMS/NEMS) [1-7]. This has been driven by the fundamental advantages that mechanical devices offer, such as ideally abrupt switching with zero off-state leakage, suitable for harsh and extreme environments, and very small footprints (e.g., particularly with NEMS). In pursuing and realizing these advantages, however, significant challenges still remain today: (i) All the high-performance mechanical switches recently demonstrated are still in the MEMS domain [2-5] and are orders of magnitude larger in size or volume (>103 to 104) than the nanoscale devices presented in this work. (ii) Most truly nanoscale contact-mode NEMS switches known to date (often based on various nanowires, cantilevers and nanotubes) still suffer from very short lifetimes.nanoscale contact-mode NEMS switches
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纳米机电开关器件:向终极能源效率和寿命扩展
积极寻找低压逻辑和超低功耗应用的理想开关器件,刺激了基于微/纳米机电系统(MEMS/NEMS)的接触模式开关(继电器)的重点探索[1-7]。这是由机械设备提供的基本优势所驱动的,例如理想的突然开关,零断开状态泄漏,适用于恶劣和极端环境,占地面积非常小(例如,特别是NEMS)。然而,在追求和实现这些优势的过程中,今天仍然存在重大挑战:(i)最近展示的所有高性能机械开关仍然处于MEMS领域[2-5],并且在尺寸或体积上比本工作中提出的纳米级器件大几个数量级(>103到104)。(ii)目前已知的大多数真正的纳米级接触型NEMS开关(通常基于各种纳米线、悬臂和纳米管)的寿命仍然很短。纳米级接触型NEMS开关
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