{"title":"一种采用经典制冷的电力微电子冷却替代方法","authors":"F. Chiriac, V. Chiriac","doi":"10.1109/THETA.2007.363417","DOIUrl":null,"url":null,"abstract":"Classical refrigeration using vapor compression has been widely applied over the last decades to large-scale industrial systems, with few known applications to the microelectronics cooling field, due to the small size limitation. The present study proposes an efficient mechanical refrigeration system to actively cool the electronic components populating a printed circuit board in high-power microelectronics system. The proposed system includes several miniaturized components - compressor, evaporator, condenser - part of a refrigeration system designed to fit the smaller scale power electronics. The system is thermally optimized to reach high COP (coefficients of performance). An array of micro-channels is used for the evaporator/condenser units. A previous study indicated that the R-134s refrigerant provides the best COP/feasibility ratio, while being the most suitable for microelectronics applications (Phelan et al., 2004). The present study develops an analytical model of the proposed small scale vapor compression refrigerator using the R-134a refrigerant. The refrigeration system is thermally optimized for cooling powers ranging from 20 - 100W, with the COP of the system reaching values up to 4.5. In the final section of the study, the efficiency of the proposed system is further compared to existing active cooling techniques using thermoelectric coolers (TEC). The advantages of the proposed system are highlighted, establishing a baseline performance vs. size relationship for vapor-compression refrigerators, to serve as the basis for comparison for future miniaturized refrigeration systems","PeriodicalId":346940,"journal":{"name":"2007 International Conference on Thermal Issues in Emerging Technologies: Theory and Application","volume":"2020 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2007-05-21","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"15","resultStr":"{\"title\":\"An Alternative Method for the Cooling of Power Microelectronics Using Classical Refrigeration\",\"authors\":\"F. Chiriac, V. 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引用次数: 15
摘要
在过去的几十年里,利用蒸汽压缩的经典制冷已经广泛应用于大型工业系统,但由于体积小的限制,在微电子冷却领域的应用很少。提出了一种高效的机械制冷系统,对大功率微电子系统中印刷电路板上的电子元件进行主动冷却。提出的系统包括几个小型化的部件-压缩机,蒸发器,冷凝器-制冷系统的一部分,旨在适应较小规模的电力电子设备。该系统进行了热优化,以达到高COP(性能系数)。微通道阵列用于蒸发器/冷凝器单元。先前的一项研究表明,R-134s制冷剂提供了最佳的COP/可行性比,同时最适合微电子应用(Phelan et al., 2004)。本研究建立了采用R-134a制冷剂的小型蒸汽压缩制冷机的分析模型。制冷系统经过热优化,制冷功率范围为20 - 100W,系统COP高达4.5。在研究的最后一部分,提出的系统的效率进一步与现有的热电冷却器(TEC)的主动冷却技术进行比较。提出的系统的优点是突出,建立了一个基准性能与尺寸关系的蒸汽压缩冰箱,作为基础的比较,为未来的小型化制冷系统
An Alternative Method for the Cooling of Power Microelectronics Using Classical Refrigeration
Classical refrigeration using vapor compression has been widely applied over the last decades to large-scale industrial systems, with few known applications to the microelectronics cooling field, due to the small size limitation. The present study proposes an efficient mechanical refrigeration system to actively cool the electronic components populating a printed circuit board in high-power microelectronics system. The proposed system includes several miniaturized components - compressor, evaporator, condenser - part of a refrigeration system designed to fit the smaller scale power electronics. The system is thermally optimized to reach high COP (coefficients of performance). An array of micro-channels is used for the evaporator/condenser units. A previous study indicated that the R-134s refrigerant provides the best COP/feasibility ratio, while being the most suitable for microelectronics applications (Phelan et al., 2004). The present study develops an analytical model of the proposed small scale vapor compression refrigerator using the R-134a refrigerant. The refrigeration system is thermally optimized for cooling powers ranging from 20 - 100W, with the COP of the system reaching values up to 4.5. In the final section of the study, the efficiency of the proposed system is further compared to existing active cooling techniques using thermoelectric coolers (TEC). The advantages of the proposed system are highlighted, establishing a baseline performance vs. size relationship for vapor-compression refrigerators, to serve as the basis for comparison for future miniaturized refrigeration systems