The Casimir effect between micromechanical components on a silicon chip

H. B. Chan, J. Zou, Z. Marcet, A. Rodriguez, M. T. H. Reid, A. McCauley, I. Kravchenko, T. Lu, Y. Bao, S. Johnson
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引用次数: 3

Abstract

The Casimir force originates from quantum fluctuations. While this force is too weak to have any measurable effects between objects at separations larger than ~10 μm it dominates the interaction between electrically neutral surfaces at the nanoscale. By fabricating a doubly clamped microbeam for sensing the force and a comb actuator to control the distance, we demonstrate that the Casimir force can become the dominant interaction between components within the same silicon chip.
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硅片上微机械元件之间的卡西米尔效应
卡西米尔力起源于量子涨落。虽然这种力太弱,在距离大于~10 μm的物体之间没有任何可测量的影响,但它在纳米尺度上主导了电中性表面之间的相互作用。通过制造用于感应力的双夹紧微梁和用于控制距离的梳状致动器,我们证明了卡西米尔力可以成为同一硅芯片内组件之间的主要相互作用。
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