Numerical study of thermophysical characteristics of a cryogenic surface

M. Tazhenova, R. Sultan, K. A. Katpayeva
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Abstract

This article is devoted to the development of a universal cryo surface for cooling and further work with active samples of various compositions in the surface temperature range of 80 K – 300K. To build a computer model of a universal cryo surface, the finite element method was used, which has a deep theoretical justification and is used to solve a wide range of problems. range of tasks. In the work, a computer model of a universal cryo surface with automatic maintenance of a given temperature in the range from 80 K to 300 K was created, which is intended for efficient production, taking into account all possible wishes of the system user and solving a wide range of problems. In the course of the study, working drawings of the cryo surface were obtained, a computer model of a universal cryo plate was developed, and thermophysical processes in it were studied. Based on the created mesh of the model and the results of the consumption of the working cryo-liquid, the optimal temperature values of the cryo surface were determined. With the help of this development, the problems of innovative materials processing technologies will be solved when creating a heat exchanger and substrate, creating an efficient pump for cryo-liquid, as well as creating a temperature maintenance system of various accuracy. The result will be a system with compactness, versatility, and autonomy.
低温表面热物理特性的数值研究
本文致力于开发一种用于冷却的通用低温表面,并进一步研究表面温度范围为80k - 300K的各种成分的活性样品。采用有限元法建立通用低温表面的计算机模型,具有较深的理论依据,可用于解决广泛的问题。任务范围。在这项工作中,创建了一个通用低温表面的计算机模型,该模型可以自动维持给定的温度,范围从80 K到300 K,这是为了提高生产效率,考虑到系统用户的所有可能的愿望,并解决广泛的问题。在研究过程中,获得了冷面工作图,建立了通用冷板的计算机模型,并对其热物理过程进行了研究。根据所建立的模型网格,结合低温工作液的消耗结果,确定了低温表面的最佳温度值。在这一发展的帮助下,在制造热交换器和基板、制造高效的低温液体泵以及制造各种精度的温度维护系统时,创新材料加工技术的问题将得到解决。其结果将是一个紧凑、多功能性和自主性的系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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