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    • 3. 发明申请
    • MULTI DEVICE COOLING
    • 多设备冷却
    • WO2007114913A3
    • 2008-11-20
    • PCT/US2007008281
    • 2007-03-30
    • COOLIGY INCUPADHYA GIRISHWERNER DOUGLAS EMUNCH MARK
    • UPADHYA GIRISHWERNER DOUGLAS EMUNCH MARK
    • F28F7/00F24H3/02F28D15/00H05K7/20
    • G06F1/20F28D1/0408F28D2021/0028F28F3/022F28F2270/00G06F2200/201H05K7/20154
    • A micro scale cooling system comprises a first heat exchanger (120) thermally coupled to a first heat source (115). The cooling system also has a second heat exchanger (130) thermally coupled to a second heat source ( 125) and a connection between the first heat exchanger and the second heat exchanger. A fluid flows through the first and second cooling plates. The cooling system has a first pump (150) for driving the fluid. The cooling system further includes a first radiator (160) and tubing that interconnects the first heat exchanger, the second heat exchanger, the first pump, and the first radiator. The tubing of some embodiments is designed to minimize fluid loss. Some embodiments optionally include a first fan to reject heat from the first radiator, and/or a volume compensator for counteracting fluid loss over time. In some embodiments, at least one heat exchanger has at least one micro scale structure.
    • 微型冷却系统包括热耦合到第一热源(115)的第一热交换器(120)。 冷却系统还具有热耦合到第二热源(125)的第二热交换器(130)和第一热交换器与第二热交换器之间的连接。 流体流过第一和第二冷却板。 冷却系统具有用于驱动流体的第一泵(150)。 冷却系统还包括第一散热器(160)和连接第一热交换器,第二热交换器,第一泵和第一散热器的管道。 一些实施例的管道被设计成使流体损失最小化。 一些实施例可选地包括第一风扇以排除来自第一散热器的热量,和/或用于抵消随着时间的流体损失的体积补偿器。 在一些实施例中,至少一个热交换器具有至少一个微尺度结构。
    • 6. 发明申请
    • COUNTER FLOW MICRO HEAT EXCHANGER FOR OPTIMAL PERFORMANCE
    • 计数器流量微热交换器,实现最佳性能
    • WO2005121681A3
    • 2008-06-05
    • PCT/US2005016875
    • 2005-05-12
    • COOLIGY INCMUNCH MARKUPADHYA GIRISH
    • MUNCH MARKUPADHYA GIRISH
    • H01L23/473F28F3/00
    • H01L23/473H01L2924/0002H01L2924/00
    • A micro heat exchanger and an integrated circuit are oriented according to a counter flow orientation. To determine this orientation, a temperature gradient of the integrated circuit is determined. The temperature gradient is used to determine a temperature vector that preferably indicates a directional orientation from a hot portion of the integrated circuit to a cold portion. The micro heat exchanger circulates a cooling fluid to receive heat transferred from the integrated circuit. A directional flow of this cooling liquid is determined. The directional flow is measured as a directional vector from an inlet of the micro heat exchanger to an outlet. The counter flow orientation is defined as the temperature vector oriented opposite that of the directional flow.
    • 微型热交换器和集成电路根据逆流方向定向。 为了确定这个方向,确定集成电路的温度梯度。 温度梯度用于确定温度向量,该温度向量优选地表示从集成电路的热部分到冷部分的方向取向。 微型热交换器循环冷却流体以接收从集成电路传递的热量。 确定该冷却液体的定向流动。 定向流量被测量为从微型热交换器的入口到出口的方向矢量。 逆流方向定义为与方向流相反的温度矢量。
    • 7. 发明申请
    • LIQUID COOLING FOR BACKLIT DISPLAYS
    • 背板显示液体冷却
    • WO2007056599A2
    • 2007-05-18
    • PCT/US2006043999
    • 2006-11-09
    • COOLIGY INCMUNCH MARKUPADHYA GIRISH
    • MUNCH MARKUPADHYA GIRISH
    • H01L23/467
    • G06F1/20G02F1/133603G02F2001/133628G06F1/1601G06F2200/1612G06F2200/201
    • The present invention provides a cooling system for a backlit device. The cooling system has a first heat collector that comprises a micro tube. The first heat collector is for maintaining contact with the backlit device. The cooling system also has a first radiator, a first pump, an interconnecting tubing, a fluid, and optionally a fan and/or a reservoir. The first radiator is for distributing and/or dispersing heat, the first pump is for driving a fluid flow, and the reservoir is for storing the fluid. The interconnect tubing is interposed between the first heat collector, the first radiator, and the first pump to form a closed cooling loop. Some embodiments further provide a method of cooling a backlit device by using such a cooling system.
    • 本发明提供了一种用于背光装置的冷却系统。 冷却系统具有包括微管的第一集热器。 第一集热器用于保持与背光装置的接触。 冷却系统还具有第一散热器,第一泵,互连管,流体以及可选的风扇和/或储存器。 第一散热器用于分配和/或分散热量,第一泵用于驱动流体流动,并且储存器用于储存流体。 互连管插入在第一集热器,第一散热器和第一泵之间以形成封闭的冷却回路。 一些实施例还提供了通过使用这种冷却系统来冷却背光装置的方法。
    • 8. 发明申请
    • COUNTER FLOW MICRO HEAT EXCHANGER FOR OPTIMAL PERFORMANCE
    • 逆流微型热交换器的最佳性能
    • WO2005121681B1
    • 2008-07-31
    • PCT/US2005016875
    • 2005-05-12
    • COOLIGY INCMUNCH MARKUPADHYA GIRISH
    • MUNCH MARKUPADHYA GIRISH
    • H01L23/473F28F3/00
    • H01L23/473H01L2924/0002H01L2924/00
    • A micro heat exchanger and an integrated circuit are oriented according to a counter flow orientation. To determine this orientation, a temperature gradient of the integrated circuit is determined. The temperature gradient is used to determine a temperature vector that preferably indicates a directional orientation from a hot portion of the integrated circuit to a cold portion. The micro heat exchanger circulates a cooling fluid to receive heat transferred from the integrated circuit. A directional flow of this cooling liquid is determined. The directional flow is measured as a directional vector from an inlet of the micro heat exchanger to an outlet. The counter flow orientation is defined as the temperature vector oriented opposite that of the directional flow.
    • 微型热交换器和集成电路根据逆流取向。 为了确定该取向,确定集成电路的温度梯度。 温度梯度用于确定优选地表示从集成电路的热部分到冷部分的方向定向的温度矢量。 微型热交换器循环冷却流体以接收从集成电路传递的热量。 确定该冷却液的定向流动。 定向流量作为从微型热交换器的入口到出口的方向矢量进行测量。 逆流方向被定义为与定向流相反的温度矢量。
    • 9. 发明申请
    • REMOVEABLE HEAT SPREADER SUPPORT MECHANISM AND METHOD OF MANUFACTURING THEREOF
    • 可拆卸散热器支撑机构及其制造方法
    • WO2004070304A2
    • 2004-08-19
    • PCT/US2004001044
    • 2004-01-14
    • COOLIGY INCUPADHYA GIRISHMUNCH MARKZHOU PENGGOODSON KENNETHKENNY THOMAS W JR
    • UPADHYA GIRISHMUNCH MARKZHOU PENGGOODSON KENNETHKENNY THOMAS W JR
    • F28F20060101F28F7/00H05K7/20F28F
    • H01L23/36H01L23/10H01L2924/0002H01L2924/00
    • A mounting assembly comprises a rigid support bracket configured to substantially surround a heat source. The rigid support bracket is coupled to a circuit board. The mounting assembly also comprises a removable lid that is coupled to the rigid support bracket and configured to provide selective access to the heat source. The mounting assembly further comprises a heat exchanger coupled to the heat source, wherein the heat exchanger is positioned between the heat source and the removable lid. The removable lid is preferably configured and has a desired stiffness to urge the heat exchanger in contact by a substantially constant force with the heat source and prevents unwanted movement of the heat source. Further, the support bracket structure is configured to transfer the substantially constant force over a relatively large surface area on the circuit board thereby protecting the heat source from bending, breaking or collapsing from the substantially constant force. The removable lid is preferably made of a material, including but not limited to copper, which accommodates a desired amount of heat transfer from an area within the support bracket.
    • 安装组件包括构造成基本上围绕热源的刚性支撑支架。 刚性支撑托架连接到电路板。 安装组件还包括可拆卸盖,其被连接到刚性支撑托架并且构造成提供对热源的选择性接近。 安装组件还包括耦合到热源的热交换器,其中热交换器位于热源和可移除盖之间。 可移动盖优选地构造并且具有期望的刚度,以通过与热源的基本上恒定的力来促使热交换器接触,并且防止热源的不期望的移动。 此外,支撑托架结构构造成在电路板上相对较大的表面积上传递基本上恒定的力,从而保护热源免受基本恒定的力的弯曲,破坏或塌陷。 可移除盖优选地由包括但不限于铜的材料制成,其适应从支撑托架内的区域的期望量的热传递。