碳纳米管中的光力和光散射

Tomer Berghaus, T. Miloh, O. Gottlieb, G. Slepyan
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引用次数: 0

摘要

对理解光机械力背后的物理原理的持续努力是一个活跃的研究领域,在各种技术领域提供了不同的应用。利用麦克斯韦应力张量建立了非手性碳纳米管(CNT)辐射压力的物理模型。我们的模型由一个积分方程系统组成,描述了电磁场(EM)在太赫兹频率范围内的单个有限长度碳纳米管的散射模式。从所提出的模型中获得的结果,提出了三种情况:I)施加在碳纳米管上的光力受到表面em模式。2)两个平行的不相同碳纳米管的光学结合3)碳纳米管中表面em模式激发的径向呼吸模式。我们目前的研究结果可以应用于基于碳纳米管的离子和气体传感器、生物传感器、场发射器件和新型超材料的设计中。
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Optical Forces and Light Scattering In Carbon Nanotubes
The ongoing effort towards understanding the physical principles underlying optomechanical forces is an active field of research that offers diverse applications in various fields of technology. The proposed physical model for the radiation pressure exerted on an achiral carbon nanotube (CNT), is formulated using the Maxwell stress tensor. Our model consists of a system of integral equations, describing the scattering pattern of an electromagnetic field (EM) for a single, finite-length, CNT in the THz frequency range. The obtained results from the proposed model, are presented for three cases: I) The optical force exerted on a CNT subjected to a surface EM-mode. II) The optical binding of two parallel non-identical CNT's III) The excitation of a radial breathing mode by the surface EM-mode in a CNT. Our current results can be implemented in the design of CNT-based ion and gas sensors, biosensors, field emission devices, and new types of metamaterials.
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