4.7 Review

Thermal conductivity of materials under pressure

期刊

NATURE REVIEWS PHYSICS
卷 4, 期 5, 页码 319-335

出版社

NATURE PORTFOLIO
DOI: 10.1038/s42254-022-00423-9

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资金

  1. Center for High Pressure Science & Technology Advanced Research (HPSTAR, Shanghai)
  2. Harbin Institute of Technology (HIT, Shenzhen)
  3. Academia Sinica (Taipei)
  4. Carnegie Institution for Science (Washington DC)
  5. Shenzhen Science and Technology Program [KQTD2020082011304508]
  6. Basic Research Program of Shenzhen at HIT [JCYJ20200109112810241]
  7. National Key R&D Program of China at HPSTAR [2018YFA0305900]
  8. Academia Sinica
  9. Ministry of Science and Technology of Taiwan [AS-CDA-106-M02, 107-2628-M-001004-MY3]
  10. Foundation for the Advancement of Outstanding Scholarship of Taiwan
  11. US National Science Foundation [EAR-1763287, EAR-2049127]

向作者/读者索取更多资源

The measurement of thermal conductivity and understanding of thermal transport mechanisms under high pressure are challenging but important. Breakthroughs in high-pressure experimental techniques have enabled in situ measurements of thermal conductivity and provided insights into thermal transport mechanisms. This Review discusses recent progress in characterization techniques, determination of thermal conductivity, and the applications of high-pressure experiments.
The thermal conductivities of materials are extremely important for many practical applications, such as in understanding the thermal balance and history of the Earth, energy conversion of devices and thermal management of electronics. However, measurements of the thermal conductivity of materials under pressure and understanding of associated thermal transport mechanisms remain some of the most difficult challenges and complex topics in high-pressure research. Breakthroughs in high-pressure experimental techniques enable in situ measurements of thermal conductivity at extreme pressure-temperature conditions. This new capability provides not only a unique insight to understand thermal transport mechanisms in materials but also opportunities to realize reversible modulation of materials' thermal properties. In this Review, we discuss recent progresses in characterization techniques developed at high pressures, in the determination of the thermal conductivity of gases, liquids and solids, as well as in establishing the correlated thermal transport mechanisms. In addition, we focus on the applications of high-pressure and high-temperature experimental simulations of materials in the Earth's interior. Mastering thermal conductivities of materials under pressure is extremely important for managing thermal processes, understanding the thermal transport mechanisms and for potential technological applications. This Review surveys the progresses in technique developments, research results and scientific implications in this field.

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