QED传热

RAN Pub Date : 2016-04-01 DOI:10.11159/ICNMS16.105
T. Prevenslik
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引用次数: 0

摘要

经典的宏观尺度传热有三种模式:传导、辐射和对流。然而,在纳米尺度上,传热不是由经典物理控制的,而是由量子力学和量子力学的简化形式控制的。QM代表量子力学,QED代表量子电动力学。QED传热是基于普朗克定律的QM,该定律要求原子的热容量在高EM约束下消失,这是由纳米结构的高表面体积比引起的,从而排除了通常由温度升高引起的热守恒。EM代表电磁。将纳米结构视为在高电磁约束下吸收热量的QM盒子,通过QED产生持续的电磁辐射,为纳米结构充电或发射到周围环境,从而实现守恒。描述了QED传热的各种应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
QED Heat Transfer
Classical heat transfer at the macroscale proceeds by three modes: conduction, radiation, and convection. However, at the nanoscale, heat transfer is not governed by classical physics, but rather by QM and a simplified form of QED. QM stands for quantum mechanics and QED for quantum electrodynamics. QED heat transfer is based on QM by the Planck law that requires the heat capacity of the atom to vanish under high EM confinement caused by the high surface-to-volume ratios of nanostructures thereby precluding the conservation of heat by the usual increase in temperature. EM stands for electromagnetic. Treating the nanostructure as a QM box with absorbed heat under high EM confinement, conservation proceeds by QED creating standing EM radiation that charges the nanostructure or is emitted to the surroundings. Diverse applications of QED heat transfer are described.
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