Enhancing radiative heat transfer with meta‐atomic displacement

Controlling and manipulating radiative heat transfer remains a pivotal challenge in both scientific inquiry and technological advancement, traditionally tackled through the precise geometric design of metastructures. However, geometrical optimization cannot break the inherent shackles of local modes within individual meta-atoms, which hinders sustained progress in radiative heat transfer. Here, we propose a comprehensive strategy based on interatomic displacement to achieve superior heat transfer performance while obviating the need for increasingly complex structural designs. This meta-atomic displacement strategy enables a shift from quasi-isolated localized resonances to extended nonlocal resonant modes induced by strong interactions among neighboring meta-atoms, resulting in a radiative heat conductance that surpasses other previously reported geometrical structures. Furthermore, this meta-atomic displacement strategy can be seamlessly applied to various metastructures, offering significant implications for advancing thermal science and next-generation energy devices.

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Publication Details

Journal
Nanophotonics
Published
2025-03-19
DOI
https://doi.org/10.1515/nanoph-2024-0729
Citations
2
Primary Topic
Thermal Radiation and Cooling Technologies
Type
article
Field-Weighted Citation Impact
1.91

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article

Enhancing radiative heat transfer with meta‐atomic displacement

Cheng-Long Zhou, Shuihua Yang, Mauro Antezza, Cheng‐Wei Qiu et al.
2 citations
Nanophotonics
Thermal Radiation and Cooling Technologies
1.91
article

Enhancing radiative heat transfer with meta‐atomic displacement

Cheng-Long Zhou, Shuihua Yang, Mauro Antezza, Cheng‐Wei Qiu, Yong Zhang, Yang Huang, Hong-Liang Yi
article en
2 citations

Abstract

Controlling and manipulating radiative heat transfer remains a pivotal challenge in both scientific inquiry and technological advancement, traditionally tackled through the precise geometric design of metastructures. However, geometrical optimization cannot break the inherent shackles of local modes within individual meta-atoms, which hinders sustained progress in radiative heat transfer. Here, we propose a comprehensive strategy based on interatomic displacement to achieve superior heat transfer performance while obviating the need for increasingly complex structural designs. This meta-atomic displacement strategy enables a shift from quasi-isolated localized resonances to extended nonlocal resonant modes induced by strong interactions among neighboring meta-atoms, resulting in a radiative heat conductance that surpasses other previously reported geometrical structures. Furthermore, this meta-atomic displacement strategy can be seamlessly applied to various metastructures, offering significant implications for advancing thermal science and next-generation energy devices.

NanophotonicsVol. 14(23)
Jiangnan University (CN), Centre National de la Recherche Scientifique (FR), National University of Singapore (SG), Institut Universitaire de France (FR), Harbin Institute of Technology (CN), Laboratoire Charles Coulomb (FR), Ministry of Industry and Information Technology (CN)
National Research Foundation, National Research Foundation Singapore, Ministry of Education - Singapore, Agence Nationale de la Recherche, National Natural Science Foundation of China, Government of Jiangsu Province, Hong Kong University of Science and Technology, Science and Technology Support Program of Jiangsu Province, Fundamental Research Funds for the Central Universities
Affordable and clean energy
Openalex Percentile: Top 17%
Thermal Radiation and Cooling Technologies
1.91
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