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    • 6. 发明授权
    • Intersecting flow network for a cold plate cooling system
    • 冷轧冷却系统的相互流动网络
    • US5269372A
    • 1993-12-14
    • US047763
    • 1993-04-15
    • Richard C. ChuMichael J. Ellsworth, Jr.Robert E. SimonsDavid T. Vader
    • Richard C. ChuMichael J. Ellsworth, Jr.Robert E. SimonsDavid T. Vader
    • F28F3/12H01L23/473F28F7/00
    • F28F3/12H01L23/473H01L2924/0002
    • A cold plate for cooling electronic modules and devices is disclosed which incorporates an intersecting flow network. The flow network is designed and devised such that flow paths are arranged in a rectilinear fashion surrounding blocks of material which act as heat sinks. Supply conduits and return conduits for supplying and returning cooling fluid are disposed orthogonally to the flow directions within the flow paths and such that each supply channel is circumscribed by a plurality of return channels, and each return channel is circumscribed by a plurality of supply channels. The arrangement of the supply and return channels insures the shortest possible flow path for the cooling fluid thereby insuring maximum cooling efficiency and minimizing and localizing the temperature rise in the cooling fluid during passage from the supply conduit to the return conduit. With a minimum temperature rise of the cooling fluid over a short flow path, conduction in the cold plate insures optimum uniformity of cooling to the electronic components. The components of the cold plate either may be assembled and clamped or may be rigidly affixed to one another by means of either soldering or braising to form the structure defining the flow channels, conduits and manifold connections necessary for the consistent and uniform circulation of the cooling fluid.
    • 公开了一种用于冷却电子模块和装置的冷板,其包括相交流网络。 设计和设计流动网络,使得流动路径以围绕作为散热器的材料块的直线方式布置。 用于供应和返回冷却流体的供应管道和返回管道设置成与流动路径内的流动方向正交,并且使得每个供应通道被多个返回通道限定,并且每个返回通道被多个供应通道限定。 供应和返回通道的布置确保了用于冷却流体的最短可能的流动路径,从而确保最大的冷却效率,并且在从供应导管到返回导管的通道期间最小化和定位冷却流体中的温度升高。 随着冷却流体在短流路上的最小温升,冷板中的传导确保对电子部件的最佳冷却均匀性。 冷板的组件可以被组装和夹紧,或者可以通过焊接或炖制将它们彼此刚性地固定,以形成限定流体通道,管道和歧管连接的结构,以使冷却器的一致和均匀循环 流体。
    • 7. 发明授权
    • Impingment cooled compliant heat sink
    • 冲击冷却顺应散热器
    • US5168348A
    • 1992-12-01
    • US729655
    • 1991-07-15
    • Richard C. ChuMichael J. Ellsworth, Jr.David T. Vader
    • Richard C. ChuMichael J. Ellsworth, Jr.David T. Vader
    • H01L23/367H01L23/433
    • H01L23/4338H01L23/367H01L23/3672H01L23/3677H01L23/4336H01L2224/16225H01L2224/73253
    • An impingement cooled compliant heat sink (CHS) is employed to extract heat from an array of computer chips in an electric module. A variety of embodiments and variations are provided. The most basic implementation is a metal sheet that is brought into contact with chips on a multi-chip module, and acts as a spreader plate for jet impingement immersion cooling with fluorocarbon, liquid nitrogen, or other dielectric liquids. This can increase cooling at a given flow rate by increasing the area for heat transfer. Slots and/or holes in teh sheet located between the chip sites serve to: (1) create flexible joints in the sheet between the chips to permit conformity to neighboring chip sites, (2) allow for clearance of decoupling capacitors and other structures on the substrate between the chips, and (3) permit the dielectric coolant to flow through the plate so that there will be no pressure difference across the CHS. The absence of pressure difference across the CHS is designed to render this cooling scheme relatively insensitive to pressure variations in the module.
    • 使用冲击冷却的顺应性散热器(CHS)从电气模块中的计算机芯片阵列提取热量。 提供了各种实施例和变型。 最基本的实现是与多芯片模块上的芯片接触的金属片,并且用作用于氟碳化合物,液氮或其它电介质液体的喷射冲击浸没冷却的扩散板。 这可以通过增加热传递的面积来增加给定流速下的冷却。 位于芯片位置之间的板中的槽和/或孔用于:(1)在芯片之间的片材中创建柔性接头以允许与相邻芯片位置一致,(2)允许去耦电容器和其他结构的间隙 芯片之间的基板,和(3)允许电介质冷却剂流过板,使得在CHS之间不存在压差。 设计了在CHS之间没有压力差,使得该冷却方案对模块中的压力变化相对不敏感。
    • 8. 发明授权
    • High performance thermal interface for low temperature electronic modules
    • 用于低温电子模块的高性能热接口
    • US5463872A
    • 1995-11-07
    • US303254
    • 1994-09-08
    • David T. VaderVincent C. Vasile
    • David T. VaderVincent C. Vasile
    • H01L23/44F25B19/00
    • H01L23/445H01L2924/0002
    • A device and method for cryogenic cooling of electronic components. A mixture of a first non-condensible gas and a second condensible gas is provided within an insulative housing. The non-condensible gas mixture has a partial pressure equal to the desired saturation pressure of the condensible gas. The insulative housing also includes an immersion chamber for housing electronic components. The immersion chamber preferably comprises two retainer parts and provides an module retainer top and a lower coldplate retainer bottom. The module retainer top allows gas to pass through the module retainer portion freely. The condensible gas is then turned into liquid form by a provided condensing means. The condensed liquid thus forms and collects inside the immersion chamber against the coldplate retainer bottom to cool the electronic components placed within. The non-condensible gas permits the condensed liquid to be subcooled.
    • 电子部件低温冷却的装置和方法。 第一不可冷凝气体和第二可冷凝气体的混合物设置在绝缘壳体内。 不可冷凝气体混合物具有等于可冷凝气体的期望饱和压力的分压。 绝缘壳体还包括用于容纳电子部件的浸没室。 浸没室优选地包括两个保持器部件并且提供模块固定器顶部和下部冷板保持器底部。 模块固定器顶部允许气体自由地通过模块固定器部分。 然后,可冷凝气体通过提供的冷凝装置变成液体形式。 因此,冷凝的液体在浸入室内部形成并收集在冷板固定器底部,以冷却放置在其内的电子部件。 不可冷凝的气体允许冷凝的液体被过冷。