Evaluation of Cryogenic Temperature Sensors for Use in Electromagnetic Fields

E. C. Burdette, M. L. Studwell
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引用次数: 2

Abstract

The establishment of organ banks for long-term storage could become feasible if rapid, uniform electromagnetic thawing of cryopreserved organs can be accomplished. Internal and external temperature measurements of the organ during thawing will be nec­ essary to provide real-time data on tissue heating rate and distribution. This information will be use­ ful for both optimization of thawing system design and as an input for system power control. But because conventional measurement techniques which are useful at cryogenic temperatures are not suitable for use with EM thawing systems, several alternative methods for making temperature measurements have been inves­ tigated. These alternative methods include techniques where temperature probes are implanted in the bio­ logical tissue and techniques employing non-invasive temperature sensors. From a clinical standpoint, a non-invasive temperature sensor would be the best alternative for measurements in cryopreserved organs. It would minimize introduction of foreign materials into the organ and would also reduce long term costs by eliminating the need to implant separate sensors in each organ. On the other hand, temperature probes can provide localized temperature data which a ■noninvasive measurement technique might not. Also, probes are more nearly feasible in the current measurement technology than are non-invasive techniques. In this paper, the requirements of a cryogenic temperature sensor suitable for use in the presence of an electro­ magnetic field will be discussed and both non-invasive and probe measurement techniques will be considered.
用于电磁场的低温传感器的评价
如果能够实现冷冻器官快速、均匀的电磁解冻,建立长期储存的器官库是可行的。在解冻过程中,器官的内部和外部温度测量将是必要的,以提供组织加热速率和分布的实时数据。这些信息将用于解冻系统设计的优化和作为系统功率控制的输入。但是,由于在低温下有用的传统测量技术不适合用于电磁解冻系统,因此研究了几种可供选择的温度测量方法。这些替代方法包括将温度探头植入生物组织的技术和采用非侵入性温度传感器的技术。从临床角度来看,非侵入性温度传感器将是冷冻保存器官测量的最佳选择。这将最大限度地减少外来物质进入器官,并减少长期成本,因为无需在每个器官中植入单独的传感器。另一方面,温度探头可以提供局部温度数据,而非侵入式测量技术可能无法做到这一点。此外,在当前的测量技术中,探针比非侵入性技术更接近可行。本文将讨论适合在电磁场中使用的低温传感器的要求,并将考虑非侵入式和探针式测量技术。
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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