Two-Phase Thermal Metamaterial

Zifu Xu, Longqiu Li, Jiaxin Li
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Abstract

The capability of thermal metamaterials is required from single function to multifunction under different external heat conditions. The methods to develop thermal materials by simple structural transformations have been explored. While, the components of traditional thermal metamaterial are mainly set as solid materials, which is difficult to change the composition of materials, such as recombing and fixing the spatial position of material, because of material rigidity. Therefore, the potential of thermal materials is limited. Liquid has fluidity in spatial structure, for which the efficient combination of solid-liquid materials provides an avenue for dynamically modeling thermal field. Herein, we propose the concept of two-phase thermal metamaterial, which is switchable by microscale elements. On one side, we develop a switchable thermal meta-unit manipulated by micro-element under the gradient field and explore the process of heat transfer by focusing on radiation and conduction under translucent media condition. Otherwise, we propose a method to achieve a non-reciprocal heat transfer system by the design of two-phase media. The propose of two-phase thermal metamaterials set a general background for a variety of applications for complex conditions.
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两相热超材料
在不同的外界热条件下,热超材料的性能要求从单一功能到多功能。探索了通过简单的结构转变来开发热材料的方法。而传统的热超材料的成分主要设置为固体材料,由于材料的刚性,难以改变材料的组成,如重新梳理和固定材料的空间位置。因此,热材料的潜力是有限的。液体在空间结构上具有流动性,固液材料的有效结合为热场的动态建模提供了途径。在此,我们提出了可由微尺度元件切换的两相热超材料的概念。一方面,我们开发了一种在梯度场下由微元素操纵的可切换热元单元,并通过聚焦于半透明介质条件下的辐射和传导来探索传热过程。另外,我们提出了一种通过设计两相介质来实现非互反传热系统的方法。两相热超材料的提出为其在复杂条件下的各种应用奠定了基础。
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