制冷剂
制冷
水冷
蒸汽压缩制冷
主动冷却
功率(物理)
热交换器
材料科学
环境科学
机械工程
计算机科学
核工程
工程类
物理
热力学
作者
Suxin Qian,David Catalini,Jan Muehlbauer,Boyang Liu,Het Mevada,Huilong Hou,Yunho Hwang,Reinhard Radermacher,Ichiro Takeuchi
出处
期刊:Science
[American Association for the Advancement of Science (AAAS)]
日期:2023-05-18
卷期号:380 (6646): 722-727
被引量:82
标识
DOI:10.1126/science.adg7043
摘要
Developing zero-global warming potential refrigerants has emerged as one area that helps address global climate change concerns. Various high-efficiency caloric cooling techniques meet this goal, but scaling them up to technologically meaningful performance remains challenging. We have developed an elastocaloric cooling system with a maximum cooling power of 260 watts and a maximum temperature span of 22.5 kelvin. These values are among the highest reported for any caloric cooling system. Its key feature is the compression of fatigue-resistant elastocaloric nitinol (NiTi) tubes configured in a versatile multimode heat exchange architecture, which allows the harnessing of both high delivered cooling power and large temperature spans. Our system shows that elastocaloric cooling, which only emerged 8 years ago, is a promising direction for commercializing caloric cooling.
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