| Literature DB >> 33567420 |
Jinlin Song1,2, Qiang Cheng2, Bo Zhang2, Lu Lu2, Xinping Zhou3, Zixue Luo2, Run Hu2.
Abstract
Near-field radiative heat transfer (NFRHT) governed by evanescent waves, provides a platform to thoroughly understand the transport behavior of nonradiative photons, and also has great potential in high-efficiency energy harvesting and thermal management at the nanoscale. It is more usual in nature that objects participate in heat transfer process in many-body form rather than the frequently-considered two-body scenarios, and the inborn mutual interactions among objects are important to be understood and utilized for practical applications. The last decade has witnessed considerable achievements on many-body NFRHT, ranging from the establishment of different calculation methods to various unprecedented heat transport phenomena that are distinct from two-body systems. In this invited review, we introduce concisely the basic physics of NFRHT, lay out various theoretical methods to deal with many-body NFRHT, and highlight unique functionalities realized in many-body systems and the resulting applications. At last, the key challenges and opportunities of many-body NFRHT in terms of fundamental physics, experimental validations, and potential applications are outlined and discussed.Entities:
Keywords: many-body system; near-field radiative heat transfer; theoretical method; thermal functionality
Year: 2021 PMID: 33567420 DOI: 10.1088/1361-6633/abe52b
Source DB: PubMed Journal: Rep Prog Phys ISSN: 0034-4885