Preparation of phase change Heat storage wood with in-situ generation of thermal conductive particles to improve photothermal conversion efficiency

IF 7.1 3区 材料科学 Q1 GREEN & SUSTAINABLE SCIENCE & TECHNOLOGY
Yanchen Li , Yanhong Jia , Kaibao Wang , Zichun Guo , Hongwu Guo
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Abstract

Wood has been developed with phase change heat storage function using balsa as a natural packaging material, and PEG was employed as a material for phase change heat storage (PCHS). Moreover, the thermal conductivity efficiency of the wood was be improved by in-situ synthesizing Fe3O4 in wood. The prepared PCHS wood was characterized by high solidification and melting enthalpies. The temperature of phase change ranged from 21.47 °C to 35.30 °C, consistent with the temperature range that makes humans comfortable in their body. The in-situ generation of Fe3O4 not only improves the PCHS wood's thermal conductivity efficiency, but also forms a 3D network structure with PCHS materials, thereby improving the dimensional stability. Comparing with original wood, PCHS wood shows good temperature regulation function, which can quickly convert light energy into internal energy and has a longer period of thermal radiation at low temperatures. The generated PCHS wood shows a promising application as indoor temperature regulating materials to promote building energy conservation.

Abstract Image

利用原位生成的导热颗粒制备相变蓄热木,以提高光热转换效率
利用轻木作为天然包装材料,开发出了具有相变蓄热功能的木材,并将 PEG 用作相变蓄热(PCHS)的材料。此外,还通过在木材中原位合成 Fe3O4 提高了木材的导热效率。所制备的 PCHS 木材具有凝固焓和熔化焓高的特点。相变温度在 21.47 ℃ 至 35.30 ℃ 之间,与人体舒适的温度范围一致。原位生成的Fe3O4不仅提高了PCHS木材的导热效率,还与PCHS材料形成了三维网络结构,从而提高了尺寸稳定性。与原始木材相比,PCHS 木材具有良好的温度调节功能,能快速将光能转化为内能,在低温下具有较长的热辐射期。生成的 PCHS 木材有望用作室内温度调节材料,促进建筑节能。
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来源期刊
CiteScore
5.80
自引率
6.40%
发文量
174
审稿时长
32 days
期刊介绍: Materials Today Sustainability is a multi-disciplinary journal covering all aspects of sustainability through materials science. With a rapidly increasing population with growing demands, materials science has emerged as a critical discipline toward protecting of the environment and ensuring the long term survival of future generations.
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