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    • 4. 发明专利
    • Steam pressure cooling system for cooling electronic apparatus
    • 用于冷却电子设备的蒸汽压力冷却系统
    • JP2007150284A
    • 2007-06-14
    • JP2006296295
    • 2006-10-31
    • Modine Mfg Coモーディーン・マニュファクチャリング・カンパニーModine Manufacturing Company
    • WILSON MICHAEL JWATTELET JONATHAN PYIN JIANMIN
    • H01L23/427F25B1/00G06F1/20H05K7/20
    • F25B40/00G06F1/20G06F2200/201
    • PROBLEM TO BE SOLVED: To provide an active cooling system associated with heat rejection for cooling microprocessors. SOLUTION: The steam pressure cooling system 10 is provided for cooling one or several microprocessors 12 and 14 through one or several cold plates 22 and 24 which are connected with the microprocessors 12 and 14. The cold plates 22 and 24 include evaporation apparatuses 32 and 34 respectively. The system 10 is designed to operate for the purpose of making the quality of a refrigerant which gets out of the evaporation apparatuses 32 and 34 less than 100% in order to maximize the cooling capacity of the cold plates 22 and 24 (that is, to avoid drying up of the evaporation apparatuses 32 and 34). The system is provided with a suction line heat exchanger 26 and a compressor 16 is protected by increasing the quality of the refrigerant from the evaporation apparatuses to at least 100% in order to supply the compressor 16 with a vapor phase refrigerant. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供与冷却微处理器的散热有关的主动冷却系统。 解决方案:蒸汽压力冷却系统10用于通过与微处理器12和14连接的一个或多个冷板22和24冷却一个或多个微处理器12和14.冷板22和24包括蒸发装置 32和34。 系统10被设计成为了使蒸发装置32和34离开蒸发装置32和34的制冷剂的质量小于100%,以使冷板22和24的冷却能力最大化(即,为 避免蒸发装置32和34的干燥)。 该系统设置有吸入管线热交换器26,并且通过将制冷剂从蒸发装置的质量提高至至少100%来保护压缩机16,以便向压缩机16供应气相制冷剂。 版权所有(C)2007,JPO&INPIT
    • 9. 发明专利
    • DE60011196T2
    • 2005-06-23
    • DE60011196
    • 2000-08-17
    • MODINE MFG CO
    • VOSS MARK GWATTELET JONATHAN PMEMORY STEPHEN B
    • F28F9/26B60H1/32F25B9/00F25B39/00F25B39/02F25B40/00F28D1/04F28D1/047F28D7/00F28F1/02
    • Extreme compactness is achieved in a combined evaporator 22 and suction line heat exchanger 20 through the use of a first, elongated, flattened, multi-port tube 34 having a major dimension DM, a minor dimension dm measured transverse to the major dimension DM and opposed ends 38, 42. The tube is formed in a serpentine configuration by bends 48 across the minor dimension dm with a plurality of generally parallel, spaced runs 46 extending between the ends 38, 42 to define the evaporator 22. An evaporator inlet fixture 30 is provided on one of the ends 38 and an evaporator outlet fixture 32 is provided on the other end 42. Fins 50 extend between adjacent ones of the runs 46. A second, elongated, flattened, multiport tube 70 having a length that is a minor fraction of that of the first tube includes opposed ends 72, 74 a major dimension DM, and a minor dimension dm measured transverse to the major dimension DM. The second tube, along a side wall substantially defining the major dimension DM is bonded to a corresponding side wall of the first tube 34 at a location 58 immediately upstream of the outlet fixture 32 to be in good heat exchange relation therewith to define a heat exchange suction line heat exchanger integral with the evaporator 22.
    • 10. 发明专利
    • BR0003878A
    • 2001-04-03
    • BR0003878
    • 2000-08-30
    • MODINE MFG CO
    • VOSS MARK GWATTELET JONATHAN PMEMORY STEPHEN B
    • F28F9/26B60H1/32F25B9/00F25B39/00F25B39/02F25B40/00F28D1/04F28D1/047F28D7/00F28F1/02F28D1/02F25B41/06
    • Extreme compactness is achieved in a combined evaporator 22 and suction line heat exchanger 20 through the use of a first, elongated, flattened, multi-port tube 34 having a major dimension DM, a minor dimension dm measured transverse to the major dimension DM and opposed ends 38, 42. The tube is formed in a serpentine configuration by bends 48 across the minor dimension dm with a plurality of generally parallel, spaced runs 46 extending between the ends 38, 42 to define the evaporator 22. An evaporator inlet fixture 30 is provided on one of the ends 38 and an evaporator outlet fixture 32 is provided on the other end 42. Fins 50 extend between adjacent ones of the runs 46. A second, elongated, flattened, multiport tube 70 having a length that is a minor fraction of that of the first tube includes opposed ends 72, 74 a major dimension DM, and a minor dimension dm measured transverse to the major dimension DM. The second tube, along a side wall substantially defining the major dimension DM is bonded to a corresponding side wall of the first tube 34 at a location 58 immediately upstream of the outlet fixture 32 to be in good heat exchange relation therewith to define a heat exchange suction line heat exchanger integral with the evaporator 22.