Abstract: In one aspect, an assembly to provide thermal cooling includes a first member having a first channel configured to receive a cooling fluid, a second member having a second channel configured to receive the cooling fluid and a first plurality of hollow and flexible conduits connecting the first and second members. Each of the first plurality of hollow and flexible conduits is configured to provide a path for the cooling fluid to flow between the first and second channels.

Abstract: A high power drive stack system is provided which includes a cabinet (20) having a vaporizable dielectric fluid cooling system (110) and a plurality of receivers (22) for accepting a plurality of modules (30) containing power electronics. The modules are removably attachable to the receivers by at least two non-latching, dry-break connectors (210). Each of the at least two connectors providing both a fluid connection and an electrical connection between the cabinet and the module.

Abstract: An air conditioning equipment having an in-room unit connected to one end of the refrigerant pipes and an out-room unit connected to the other end of the refrigerant pipes. The air conditioning equipment includes signal coupling portions which are respectively disposed at both end parts of the refrigerant pipes. Each of the signal coupling portions couples an alternating current (AC) control signal to the refrigerant pipes and exhibits a predetermined impedance with respect to an AC electric signal. The configuration of the air conditioning equipment brings forth the advantages that the electrical insulation devices used in the prior art are dispensed with, and the signal transmissions between the in-room unit and the out-room unit can be performed by a simple apparatus configuration.

Abstract: According to one embodiment, the electronic device includes: a heating element that has: a first electronic part; and a plurality of connection terminals provided around the first electronic part; a first circuit board that has: a first surface; a second surface opposite to the first surface; an opening; and a plurality of pads provided around the opening at the first surface to be electrically connected with the connection terminals, respectively; a heat receiving member that has a heat receiving portion faced to the heating element and that is thermally connected to the heating element; a pressing member that presses the heat receiving member toward the first circuit board; and a support member that supports the first circuit board at a periphery of the opening from the second surface.

Abstract: To increase air flow, an air intake/outtake (i.e., intake, outtake, or both) is positioned on a front surface of a housing, such as a rack-mounted computer network switch housing. The front surface includes jacks, controls, plugs, receptacles or other input/output for connection with the processor in the housing. The air intake/outtake is one or more openings on the front surface with the input/output components. In one embodiment, to avoid interference with the input/output components and increasing the height of the housing, the air intake/outtake is a slot extending most of or all of the distance between the sides of the housing and being above or below the input/output. An intermediate plate may be used to form and support the air intake/outtake.

Abstract: Thermoelectric-enhanced, liquid-cooling apparatus and method are provided for facilitating cooling of one or more components of an electronics rack. The apparatus includes a liquid-cooled structure in thermal communication with the component(s) to be cooled, and a liquid-to-air heat exchanger coupled in fluid communication with the liquid-cooled structure via a coolant loop for receiving coolant from and supply coolant to the liquid-cooled structure. A thermoelectric array is disposed with first and second coolant loop portions in thermal contact with first and second sides of the array. The thermoelectric array operates to transfer heat from coolant passing through the first loop portion to coolant passing through the second loop portion, and cools coolant passing through the first loop portion before the coolant passes through the liquid-cooled structure. Coolant passing through the first and second loop portions passes through the liquid-to-air heat exchanger for cooling thereof.

Abstract: An exemplary electronic device includes a circuit board defining apertures therein, an electronic component arranged on the circuit board and surrounded by the apertures, a heat spreader arranged on the electronic component, and a latching mechanism fixing the heat spreader to the electronic component. The latching mechanism includes latching arms extending outwards from the heat spreader and elastic poles. Each latching arm defines a latching hole aligned with one of the apertures of the circuit board. The poles respectively extend through the apertures and the latching holes in turn. Each pole includes a main body engaged in the corresponding latching hole and a head resiliently abutting against the latching arm.

Abstract: The present invention relates to a device adapted in order to decrease stress on connection points between a heat generating source and a substrate. The device 13 comprises a larger heat-dissipating part 7, and at least one smaller heat-dissipating part 6. The larger part 7 is arranged with at least one cavity 8 for housing the at least one smaller part 6. The at least one smaller part 6 is adapted to be attached to at least one heat-generating source 2, and at the same time more mobile in the cavity 8 and/or less affected by changes in temperature than the larger part.

Abstract: A method and apparatus for thermally processing a substrate is provided. In one embodiment, a method for thermally treating a substrate is provided. The method includes transferring a substrate to a chamber at a first temperature, the chamber having a heating source and a cooling source disposed in opposing portions of the chamber, heating the substrate in the chamber during a first time period to a second temperature, heating the substrate in the chamber to a third temperature during a second time period, and cooling the substrate in the chamber to a fourth temperature that is substantially equal to the second temperature during the second time period, wherein the second time period is about 2 seconds or less.

Abstract: The invention relates to a portable electronic device, e.g. a mobile phone, comprising a shell, a display, a battery, a processor and a receiver. In the portable electronic device is at least one of the components configured to heat exchange with a phase changing material which is arranged within the portable electronic device.

Abstract: Cooling apparatus and method are provided for immersion-cooling of an electronic subsystem of an electronics rack. The cooling apparatus includes a housing at least partially surrounding and forming a sealed compartment about the electronic subsystem and a dielectric fluid disposed within the sealed compartment, with the electronic subsystem being immersed within the dielectric fluid. A liquid-cooled vapor condenser is provided which includes a plurality of thermally conductive condenser fins extending within the sealed compartment in an upper portion of the compartment. The condenser fins facilitate cooling of dielectric fluid vapor rising to the upper portion of the compartment. A filler material is disposed within the sealed compartment to reduce the amount of dielectric fluid required within the compartment to achieve immersion-cooling of the electronic subsystem, and the filler material includes a shaped surface to direct dielectric fluid vapor within the compartment towards the condenser fins.

Abstract: Electronic circuit boards are arranged as respective parallel pairs defining a narrow gap there between. One or more such pairs of boards are supported within a hermitically sealable housing and cooled by way of spraying an atomized liquid coolant from a plurality of nozzles into each narrow gap. Transfer of heat from the circuit boards results in vaporization of at least some of the atomized liquid within the narrow gap. The housing further serves to guide a circulation of vapors out of each narrow gap, back toward the nozzles, and back into each narrow gap. A heat exchanger exhausts heat from the housing and overall system, wherein vapor is condensed back to liquid phase during contact and heat transfer therewith. Condensed liquid is collected and re-pressurized for delivery back to the nozzles such that a sustained cooling operation is performed.

Abstract: A circuit board includes a pump and a channel. The channel includes a liquid metal and a coating. The liquid metal is pumped through the channel by the pump and the coating reduces diffusion and chemical reaction between the liquid metal and at least portions of the channel. The liquid metal can carry thermal energy to act as a heat transfer mechanism between two or more locations on the substrate. The substrate may include electrical interconnects to allow electrical components to be populated onto the substrate to form an electronics assembly.

Abstract: A cooling apparatus for a power electronics system includes a jet plate, a target plate, a plurality of fluid collection passageways, and a fluid outlet. The jet plate includes an array of impingement jets having a jet body and an impingement jet channel. The target plate includes an array of microchannel cells having a plurality of radially-extending wavy-fin microchannels. The coolant fluid is directed toward an impingement location through the array of impingement jets and travels through the wavy-fin microchannels. The plurality of fluid collection passageways are arranged in a grid pattern such that the coolant fluid exits the wavy-fin microchannels and flows into the plurality of fluid passageways. The coolant fluid exits the cooling apparatus through the fluid outlet. The cooling apparatus may be incorporated into a power electronics module having a power electronics device to cool the power electronics device.

Abstract: An evaporator is disclosed for a cooling circuit. The evaporator includes a housing having at least one wall for contacting a heat emitting device. A channel, the cross section of which is small enough to allow convection boiling, and a separation volume are located in the evaporator. The separation volume is located at a vapor exiting port of the channel. The evaporator can include a liquid reservoir.

Abstract: An electric drive is disclosed which includes at least a choke unit, a power step unit, and a capacitor unit for implementing power supply to an electricity-consuming device. A cooling arrangement is disclosed for cooling the choke unit, the power step unit, and the capacitor unit. The choke unit, the power step unit, and the capacitor unit can be distributed into at least two separate and separately coolable entities, and the cooling arrangement can include parallel cooling apparatuses for cooling the at least two separate and separately coolable entities.

Abstract: A cooling apparatus and method are provided for facilitating cooling of an electronic apparatus that includes a semiconductor element. The cooling apparatus includes an evaporator containing a coolant and evaporating the coolant under a reduced pressure lower than an ambient pressure to generate a chilled coolant, a condenser regenerating the coolant from a vapor of the coolant and being fluid-communicated with the evaporator through a bypass line, and a circulating pump and a line supplying the chilled coolant to a heat exchange area of the electronic apparatus to conduct a heat exchange with an air flow passing though the semiconductor element at a hot side of the electronic apparatus and returning the coolant after the heat exchange to the condenser.

Abstract: A heat sink is provided for directly cooling at least one electronic device package having an upper contact surface and a lower contact surface. The heat sink comprises a cooling piece formed of at least one thermally conductive material, where the cooling piece defines at least one inlet manifold configured to receive a coolant and at least one outlet manifolds configured to exhaust the coolant. The inlet and outlet manifolds are interleaved and are disposed in a spiral arrangement. The cooling piece further defines a number of millichannels disposed in a radial arrangement and configured to receive the coolant from the inlet manifolds and to deliver the coolant to the outlet manifolds. The millichannels and inlet and outlet manifolds are further configured to directly cool one of the upper and lower contact surface of the electronic device package by direct contact with the coolant, such that the heat sink comprises an integral heat sink.

Abstract: In a conventional cooling device, a heat pipe or a circulation-type liquid cooler provided with a pump is used and therefore, a large space is needed for the cooling device. There is provided a cooling device which includes a plurality of cooling modules having cooling units for cooling heat-generating elements by coolant and radiation units for radiating heat from the coolant heated in the cooling units, the plurality of cooling modules being bubble-pump-type ones in which the coolant is circulated between the radiation units and the cooling units by the coolant being boiled in the cooling units, the radiation units being arranged side by side, and a cooling fan for generating wind blowing the radiation units.

Abstract: A power module base includes a heat radiation substrate formed of a high-thermal-conduction material, an insulating substrate joined to an upper surface of the heat radiation substrate, a wiring layer provided on an upper surface of the insulating substrate, and a heat radiation fin joined to a lower surface of the heat radiation substrate. A component attachment plate thicker than the heat radiation substrate and including a through hole for accommodating the insulating substrate is joined to the upper surface of the heat radiation substrate such that the insulating substrate is located within the through hole. This power module base can maintain the upper surface of the component attachment plate flat, and various components required for a power module, such as a casing, can be attached onto the component attachment plate.

Abstract: A heat dissipation device for an electronic component mounted on a circuit board includes a heat pipe and a fastening assembly. The heat pipe includes an evaporation section and a condensation section. The fastening assembly includes a retention plate and a wire clip. The retention plate includes a retaining portion abutting against the heat pipe, and two fastening portions located at opposite sides of the evaporation section of the heat pipe. The wire clip includes two abutting portions, a resisting portion interconnecting the abutting portions, and two locking arms extending outwardly from two outer ends of the abutting portions, respectively. The retaining portion and the resisting portion abut against the evaporation section of the heat pipe, the abutting portions abut against inner surfaces of the fastening portions, the locking arms are fastened to the circuit board, thereby mounting the retention plate with the heat pipe on the electronic component.

Abstract: A heat dissipation device for a first electronic component and a second electronic component mounted on a circuit board includes a first base mounted on the first electronic component and a second base mounted on the second electronic component. The second base is movably connected with the first base. An electronic system incorporating the heat dissipation device is also provided.

Abstract: An insulation system for a fluid-filled power transformer that allows for operation of the transformer at higher temperatures and with lowered susceptibility to aging. The insulation system includes a plurality of fibers that are bound together by a solid binding agent. The solid binding agent may, for example, for sheaths around the fibers or may be in the form of dispersed particles that bind the fibers to each other. Also, a method of fabricating such an insulation system.

Abstract: A cooling apparatus and method of fabrication are provided for facilitating cooling of an electronic device. The cooling apparatus includes a thermally conductive porous material and a liquid coolant supply. The thermally conductive porous material (such as metal foam material) is coupled to a surface of the electronic device to be cooled, or a structure coupled to the electronic device. The liquid coolant supply includes a jet impingement structure, which includes one or more jet nozzles for directing liquid coolant onto the surface to be cooled. The jet nozzle(s) extends into the thermally conductive porous material, and facilitates delivery of liquid coolant onto the surface to be cooled. The thermally conductive porous material is in thermal contact with the surface to be cooled and facilitates cooling of the electronic device by boiling of the liquid coolant passing through the porous material.

Abstract: A water-cooled communication chassis includes a chassis body and a water cooling unit. The chassis body includes at least one heat receiving portion, at least one heat dissipation portion, and at least one first water pipe system. The first water pipe system has a front part extended through the heat receiving portion and a rear part arranged on the heat dissipation portion, so that heat absorbed by the heat receiving portion is transferred via the first water pipe system to the heat dissipation portion and dissipated therefrom into ambient air. The water cooling unit communicates with the first water pipe system and drives a cooling fluid stored therein to circulate in between the first water pipe system and the water cooling unit, so that the heat absorbed by the heat receiving portion can be quickly and continuously carried away from the communication chassis by the circulating cooling fluid.

Abstract: An electronics component assembly for cooling high power density components including a fluid cooled module cover. In one embodiment, the electronics component assembly includes a module cover that is configured to make thermal contact with heat-generating electronic components of a module. The module cover includes an inlet, an outlet and at least one fluid passageway between the inlet and the outlet. The fluid passageway permits fluid to flow through the module cover, thereby allowing the module cover to act as a heat sink.

Abstract: An exemplary encapsulated high-voltage switch is disclosed which contains a heat-generating current conductor, a metal encapsulation surrounding the current conductor, and a cooling element. A cooler of the cooling element is fixed on a part of the encapsulation that is embodied as a mounting plate, and has cooling ribs arranged outside the encapsulation. In a section of the cooler that is embodied as a cooling block, at least a portion of the cooling ribs is arranged parallel to the mounting plate and is held on a heat distributor fixed to the mounting plate in such a way that on both sides of the heat distributor in each case one of two groups of cooling channels arises, in which the cooling channels are in each case arranged in the manner of a sandwich. The cooling channels can, for example, be oriented in a manner inclined relative to a horizontal axis of the switch.

Abstract: A heat exchanger fluid distribution manifold includes a manifold body defining a coolant fluid chamber, a single fluid inlet, and a plurality of fluid outlets. The single fluid inlet is configured to introduce a coolant fluid into the coolant fluid chamber. The plurality of fluid outlets are configured to remove the coolant fluid from the coolant fluid chamber. At least two of the plurality of fluid outlets are separated from the single fluid inlet by an unequal distance, and a coolant fluid flow rate at each fluid outlet is substantially uniform. The heat exchanger fluid distribution manifold may further include a plurality of serpentine walls along the coolant fluid chamber. Each serpentine wall comprises a spline feature located proximate to an individual fluid outlet. The spline features are optimized such that the coolant fluid flow rate is substantially uniform and a total pressure drop is less than about 2 kPa.

Abstract: A sandwich structure and method thereof is disclosed for double-sided cooling, EMI noise shielding and current carrying in mini-modules. The proposed structure comprises a top structure and a bottom structure to achieve double-sided cooling. Meanwhile, the top structure is configured to shield EMI noises as well. The proposed structure further comprises a first set of connecting structures for connecting devices of the mini-modules with the top structure and a second set of connecting structure for connecting the top structure with the bottom structure. The connecting structures are capable of carrying current.

Abstract: The invention provides a thermal-emitting memory module, a thermal-emitting module socket, and a computer system comprising the thermal-emitting memory module and the thermal-emitting module socket. An embodiment of the thermal-emitting module includes: a module substrate having electrically-conductive traces; and a semiconductor device disposed on the module substrate and coupled to the electrically-conductive traces, the module substrate including a thermal-emitting portion disposed in proximity of the semiconductor device without directly contacting the semiconductor device.

Abstract: A trace carrier is provided. The trace carrier includes a first insulating tube, a second insulating tube, a trace pair, and a sealed hollow insulating cylinder. The trace pair is passing through the first insulating tube and the second insulating tube, and is coiled up in an inner space of the first insulating tube and the second insulating tube. The sealed hollow insulating cylinder encapsulates the first insulating tube, the second insulating tube, and the trace pair, but the four terminals of the trace pair are exposed to the outside of the sealed hollow insulating cylinder.

Abstract: Method and devices are provided that integrate various internal channels and inlet and outlet ports, configured to operate with air or fluidics, with electrical circuitry. The devices comprise internal channels and outlet/inlet ports that are integrated into multiple layers of printed circuit boards. A multi-layer printed circuit board assembly is produced by laminating the plurality of layers together. The multi-layer printed circuit board assembly can accommodate a variety of off-the-shelf components, as well as electrical circuits and electronic components.

Abstract: A facility is disclosed for cooling a detection device. In at least one embodiment, the facility includes at least one first cooling unit, through which a thermal contact to the detection device is able to be established and through which heat arising during operation of the detection device is able to be removed; and at least one second cooling unit, which is arranged so that heat from the environment of the detection device can be discharged through it. In at least one embodiment, this has the advantage of largely shielding the first cooling unit from incident heat which allows the detection device to be efficiently cooled.

Abstract: A cooling or heat transfer apparatus and method is disclosed for cooling an electronic device. The apparatus includes a heat producing electronic device which may include an electronic circuit card with many heat sources. A heat transfer device is connected to the heat producing electronic device which is thermally communicating with the heat producing device for transferring heat from the heat producing device to the heat transfer device. A heat conduit is connected to the heat transfer device and thermally communicating with the heat transfer device for transferring heat to the heat conduit from the heat transfer device. A cooling housing is connected to the heat conduit and the cooling housing thermally communicating with the heat conduit for transferring heat to the cooling housing from the heat conduit. The apparatus enables the replacement of circuit cards in the field because it eliminates the need to apply thermal-interface materials.

Abstract: A cooling plate structure of a cooling apparatus includes a cooling plate and at least one refrigerant circulating conduit disposed in the cooling plate. The conduit includes refrigerant introducing and discharging ports disposed side by side on an outer surface of the cooling plate in an exposed state, a flow-in part extending from the introducing port to an intermediate position between the introducing port and the discharging port in the cooling plate, and a flow-out part extending along the flow-in part from the intermediate position to the discharging port such that flow-out part is separated from the flow-in part. Heat generating elements are disposed along the circulating conduit at an intermediate portion between a flow-in part corresponding portion and a flow-out part corresponding portion, both corresponding to the flow-in part and flow-out part of the circulating conduit, on the outer surface of the cooling plate.

Abstract: An inverter apparatus includes a liquid path in which cooling water flows, and in which the cooling water performs cooling at a cooling part located directly underneath the power circuit part of the inverter apparatus. The liquid path includes a first partial structure part formed between a feed pipe and the cooling part, and having a liquid path cross-sectional profile that is gradually reduced in the short-side direction of the cooling part and that is gradually enlarged in the long-side direction thereof; and a second partial structure part formed between the cooling part and a drain pipe, and having a liquid path cross-sectional profile that is gradually enlarged from the short-side of the cooling part and that is gradually reduced from the long-side thereof.

Abstract: Apparatus and method are provided for facilitating pumped, immersion-cooling of an electronic subsystem having multiple different types of components to be immersion-cooled. The apparatus includes a container sized to receive the electronic subsystem, and a coolant inlet port and a coolant outlet port for facilitating ingress and egress of coolant through the container. The apparatus further includes a coolant pump assembly coupled in fluid communication with the coolant inlet and outlet ports of the container for facilitating active pumping of coolant through the container. When the electronic subsystem is operatively inserted into the container and coolant is pumped through the container, the multiple different types of components of the electronic subsystem are immersion-cooled by the coolant.

Abstract: According to an embodiment of the present invention, a thermal management system for electronic components includes a plurality of spacers disposed between a first flexible substrate and a second flexible substrate to form a plurality of heat transfer regions each having a plurality of capillary pumping regions, a two-phase fluid disposed between at least one pair of adjacent spacers, and a plurality of electronic components coupled to a mounting surface of the first flexible substrate.

Abstract: Liquid-cooled electronics racks and methods of fabrication are provided wherein a liquid-based cooling apparatus facilitates cooling of electronic subsystems when docked within the electronics rack. The cooling apparatus includes a liquid-cooled cooling structure mounted to a front of the rack, and a plurality of heat transfer elements. The cooling structure is a thermally conductive material which has a coolant-carrying channel for facilitating coolant flow through the structure. Each heat transfer element couples to one or more heat-generating components of a respective electronic subsystem, physically contacts the cooling structure when that electronic subsystem is docked within the rack, and provides a thermal transport path from the heat-generating components of the electronic subsystem to the liquid-cooled cooling structure. Advantageously, electronic subsystems may be docked within or undocked from the electronics rack without affecting flow of coolant through the liquid-cooled cooling structure.

Abstract: A heat transfer system, method, and computer program product are provided for use with multiple circuit board environments. In use, a heat transfer component configured to be situated between a first circuit board and a second circuit board is provided. Such heat transfer component is in thermal communication with a first processor of the first circuit board and a second processor of the second circuit board. Furthermore, the heat transfer component is situated between the first circuit board and the second circuit board.

Abstract: A cooling device for emissions system electronics is disclosed. The cooling device may have a mount for an exhaust treatment device. The mount may have a framework comprising a plurality of rigid members. The cooling device may also have a passageway located within at least one rigid member of the plurality of rigid members. The passageway may be configured to transmit a flow of coolant. The cooling device may further have a plate coupled to the at least one rigid member and at least one electronic device coupled to the plate. The at least one electronic device may be associated with the exhaust treatment device.

Abstract: DIMMs are cooled by positioning a thermally conductive base between adjacent DIMMs. The thermally conductive base, such as a heat pipe or metal rod, receives heat from the DIMMs through thermally conductive elements that are selectively biased outward against the installed DIMMs. The base transfers the heat to a liquid conduit extending along the end of the DIMMs, where a circulating liquid carries away the heat. The thermally conductive elements provide an adjustable span to accommodate variations in distance between the DIMM surfaces. Embodiments of the invention may be installed without extending above the height of the DIMM.

Abstract: A cooling device for cooling an electronic component (semiconductor module) includes a cooling tube adapted to be disposed in contact with the electronic component and having an internal coolant flow channel for the passage therethrough of a cooling medium, and a high-pressure tube disposed adjacent to a surface of the cooling tube that faces away from the electronic component, the high-pressure tube having a hollow interior that can be filled with a high-pressure fluid having a pressure higher than that of the cooling medium. An electric power conversion device comprised of a plurality of semiconductor modules and the cooling device as means for cooling the semiconductor modules is also disclosed.

Abstract: The present disclosure relates to heat transfer thermal management device utilizing varied methods of heat transfer to cool a heat generating component from a circuit assembly or any other embodiment where a heat generating component can be functionally and operatively coupled. In an embodiment, the vapor configuration is modified to include fins that define a cross-flow heat exchanger where the vapor from the vapor chamber serves as the fluid in the vertical cross-flow in the heat exchanger and natural or forced cooling air serves as the horizontal cross-flow for the heat exchanger.

Abstract: A high voltage bushing including an elongated electric conductor, a tubular insulator surrounding the conductor, and cooling mechanism for cooling the conductor. The cooling mechanism includes at least one cooling element extending along a fraction of the length of the conductor and in thermal connection with the conductor.

Abstract: A cooling module includes a thermally conductive plate, a bladder disposed on at least one side of the plate, the bladder have a chamber, and fluid disposed in the chamber of the bladder wherein the bladder in an inflated state impresses the cooling module against an adjacent electronic circuit card. where the cooling module is forcibly pressed against adjacent electronic circuit card providing increased physical stability to the electronic circuit card as well as provide a cooling technique for the circuit card.

Abstract: A method of fabricating a multi-fluid cooling system is provided for removing heat from one or more electronic devices. The cooling system includes a multi-fluid manifold structure with at least one first fluid inlet orifice and at least one second fluid inlet orifice for concurrently, separately injecting a first fluid and a second fluid onto a surface to be cooled when the cooling system is employed to cool one or more electronic devices, wherein the first fluid and the second fluid are immiscible, and the first fluid has a lower boiling point temperature than the second fluid. When the cooling system is employed to cool one or more electronic devices and the first fluid boils, evolving first fluid vapor condenses in situ by direct contact with the second fluid of higher boiling point temperature.

Abstract: Apparatus and method are provided for facilitating liquid cooling of a plurality of blades of an electronic system chassis. The apparatus includes a chassis-level manifold assembly with a first coolant path and a plurality of second coolant paths. The first coolant path is isolated from the plurality of second coolant paths by a heat exchanger. The heat exchanger facilitates transfer of heat from coolant within the second coolant paths to coolant within the first coolant path. Each second coolant path is isolated from the other second coolant paths, and coolant passing therethrough facilitates cooling of a respective blade. When operational, each second coolant path forms a portion of a respective closed loop coolant path extending between the manifold assembly and the electronic system chassis, and in one embodiment, each blade is an immersion-blade, with multiple components thereof immersion-cooled by coolant flowing through the respective second coolant path.

Abstract: A compact cable head for assembly in a conduit of a water-cooled, high current cable includes a cable side end to receive conductors; a first circumferential section with saw tooth ribbing to be engaged by clips on the conduit; and a second circumferential region adjacent thereto and configured with a knurled circumferential face to be engaged by clips on the conduit.

Abstract: Cooling systems (1) suitable for cooling an electronic unit (2) or assembly. The cooling system is provided with a cooling channel (6). An electronic unit (2) rests over a heat-conducting cooler wall (7). A coolant guide apparatus (11) is provided in the cooling channel (6) and has insert conduit elements (13) for guiding the coolant onto the cooler wall indentations (12). The end of each insert conduit (13) opening to the cooling channel (6) may be provided with an inclined entry surface (19) and an inlet opening (20) towards the inner longitudinal channel (14). A plurality of such coolant guides (11) may be arranged in series so that, for example, the same cooling medium flows through a plurality of semiconductor modules in succession.