283results about "Mounting" patented technology

A fairing assembly 10 installed about a heat exchanger, such as a radiator R, to reduce the drag on the vehicle, comprising: a frame installed about the heat exchanger, the frame having a curved contour; a panel mounted in the frame, the panel and fairing assembly defining an air passage for air flow to the heat exchanger; a cover installed in the frame and movable to control air flow through the passage to the heat exchanger; and, moving means for moving the cover over the frame to expose a portion of the opening and allow air to flow into the heat exchanger, the frame and cover thereby reducing the amount of drag on the vehicle while still allowing air flow into the heat exchanger; wherein the panel comprises a first overlapping part and a second overlapping part; and wherein the first overlapping part is moveable from an extended position to a retracted position when the fairing is impacted.

Heatsinks and methods are provided for dissipating thermal energy from a substrate in thermal contact therewith. The heatsinks include a plurality of sequentially coupled links. Each of the links includes a hub portion elongated along a central longitudinal axis thereof, a male connector on a first side of the hub portion and elongated along the central longitudinal axis, a female connector on a second side of the hub portion and elongated along the central longitudinal axis, wherein the female connector of each of the links is configured to couple with the male connector of an adjacent one of the links, a planar contact portion on a third side of the hub portion configured to receive thermal energy via conduction from the substrate, and a fin extending from a fourth side of the hub portion configured to dissipate the thermal energy to a surrounding environment via convection.

A cooling assembly for liquid cooling of a heat-generating component such as a dual in-line memory module (DIMM) in a computer device is disclosed. The cooling assembly includes a bracket holding a micro-pipe assembly. The micro-pipe assembly has a cold manifold, a hot manifold and a series of micro-pipes. The micro-pipes are fluidly coupled between the cold manifold and hot manifold to allow coolant flow between the cold manifold and the hot manifold. The bracket positions the micro-pipe assembly such that micro-pipes are positioned proximate to opposite sides of the heat-generating component. A coolant inlet supplies coolant to the cold manifold and a coolant outlet collecting coolant from the hot manifold.

A heat exchanger includes panel assemblies arranged with airflow gaps defined between adjacent panel assemblies to allow air to flow in an airflow direction. Each panel assembly includes a frame including two header sections and a middle section, a membrane positioned on the frame, and two airflow restrictor members positioned at each header section of the frame. For each header section, a first airflow restrictor member is on a first face of the frame and a second airflow restrictor member is on a second face of the frame. For each pair of adjacent panel assemblies, the middle sections are spaced apart to define the airflow gap, and the first airflow restrictor members of a first panel assembly engage the second airflow restrictor members of a second panel assembly to form two airflow restrictors at opposite ends of the airflow gap relative to a direction other than the airflow direction.

A fluid management module having a support including at least one channel for the flow of a refrigerant fluid. The support bearing at least one component with a fluidic function such as an expansion member or a refrigerant valve. The fluid management module includes at least one main two-fluid heat exchanger arranged to allow heat exchange between the refrigerant fluid and a heat-transfer fluid. The support is assembled with the heat exchanger so as to form at least one sealed connection for the refrigerant fluid flowing between the channel of the support and the main two-fluid heat exchanger.

The present disclosure relates to a cooling device for heat treatment that performs heat treatment by cooling individually or as a whole a heated metal object. The cooling device for heat treatment includes: a chamber to which a plurality of objects is charged through one open side thereof; an individual cooling unit configured to be provided in the chamber, to individually cover the object, and to spray a cooling medium onto the object; and a driving unit configured to be provided on the chamber and to move the individual cooling unit in an up and down direction. With this configuration, it is possible to obtain a required cooling capacity by cooling individually or as a whole a heated metal object.

A vapor cycle system includes a condenser unit that include a condenser and a plurality of mounting features. The condenser unit includes a condenser, including an inlet configured to receive pressurized gas, and an outlet configured to allow a flow of liquid out of the condenser. The plurality of mounting features are attached to the condenser unit and configured to allow the condenser unit to be mounted in a vehicle in a plurality of orientations with respect to gravity. The outlet is positioned at a lowermost point of the condenser in each of the plurality of orientations. The vapor cycle system is configured to cool a thermal load in a vehicle.

A coupling device (1) comprising: a tube sheet (112) attached to a tube bundle (110); a first groove (218) formed on a surface (220) of the tube sheet (112); a flange (208) provided to accommodate a terminal section (214) of the tube sheet (112) and provided with holes (226) for receiving fastening means (306a, 306b); an anchor ring (202) provided to be placed around the tube sheet (112) and provided with holes (210) for receiving fastening means (306a, 306b) to connect the anchor ring (202) to the flange (208); a retaining element (206) comprising an inner section (311) and an outer section (312), wherein the inner section (311) is provided to be placed in the first groove (218) of the tube sheet (112), wherein the retaining element (206) is divided into a first part (222) and a second part (224); and a second groove (232) formed by the combination of the flange (208) and the anchor ring (202) and provided to accommodate the outer section (312) of the retaining element (206).

The present invention relates to a temperature control arrangement (1) for temperature control of a sorbent bed (110) for obtaining carbon dioxide from a gaseous medium, comprising: - a pipe arrangement (20) with a pipe (21), and - a lamella arrangement (30) in the sorbent discharge (110) with an elongated lamella (31), wherein the tube (21) runs along a longitudinal direction (L) of the lamella (31) and contacts the lamella (31) along the longitudinal direction (L). The invention further relates to a sorbent container arrangement (100) with the temperature control arrangement (1) according to the invention and a device (200) for obtaining carbon dioxide from the gaseous medium with the temperature control arrangement (1) according to the invention.

The present invention relates to a system (1) comprising at least one energy converter module (2) for absorbing energy from the environment and / or releasing energy to the environment, and at least one energy storage module (3) by means of which the energy from the environment can be stored as thermal energy. The at least one energy storage module (3) and the at least one energy converter module (2) are configured to be arranged together as a combined unit (4) and / or to be operated independently as a single unit (5). Furthermore, the present invention relates to an energy storage module (3).

A plate-type heat exchanger and methods of construction and use wherein one or more separate, individual heat exchanging plate elements, through which a heat exchange fluid flows, are used which can (a) withstand pressure surge events, (b) allow the exchanger and the plate elements to be easily cleaned and maintained, and (c) allow the plate elements to be individually and separately removed from the exchanger for cleaning or maintenance while the exchanger remains online and while any other plate elements in the heat exchanger continue to operate.

A heat exchanger includes plate assemblies arranged to define airflow gaps between adjacent plate assemblies, allowing air to flow in one airflow direction. Each plate assembly includes a frame having two headers and a center section, a diaphragm disposed on the frame, and two airflow restricting elements disposed at each header of the frame. For each header, a first airflow restricting element is located on a first side of the frame and a second airflow restricting element is located on a second side of the frame.In each pair of adjacent plate assemblies, the central portions are spaced apart to define the airflow gap, and the first airflow restricting elements of a first plate assembly engage the second airflow restricting elements of a second plate assembly to form two airflow restrictors at opposite ends of the airflow gap relative to a direction other than the airflow direction.

The present disclosure relates to a heat exchanger comprising a collection vessel formed in two or more rows, a support plate connected to the collection vessel, and a blocking element connected to an open end of the collection vessel to block the end of the collection vessel, and the at least one section of which overlaps and is in contact with the support plate to form an opening between adjacent rows of the collection vessel and the support plate, which is to be blocked by the blocking element, thereby preventing air from escaping through the opening for heat exchange.

Methods and systems are provided for aligning liquid cooling manifolds of a computing rack, where the alignment allows IHSs (Information Handling Systems, such as rack-mounted servers) to be blindly coupled to these manifolds when inserted into a slot of the rack. A first alignment tray is inserted in slot of the rack until alignment couplings of the tray are coupled to the liquid cooling manifold of the rack. A second alignment tray is inserted in another slot of the rack until alignment couplings of the second tray are coupled to the liquid cooling manifold. The liquid cooling manifold is fastened to the rack while the liquid cooling manifold is coupled to the trays. The trays are removed and an IHS is inserted into a slot of the rack until coupled to the liquid cooling manifold, where couplings of the IHS are aligned with couplings of the liquid cooling manifold.

To appropriately mount a heat exchanger to a mounted place, such as a car body even if a positional relationship of a number of aligned tubes or the like is maintained by bringing a restraint tool into contact with the outside of a side plate when collectively brazing the heat exchanger made of an aluminum material.SOLUTION: A heat exchanger includes: multiple tubes through the interior of which a heat medium flows; a pair of headers extending along a lamination direction of the multiple tubes and each connected to either end of the tubes; and side plates that are provided at both ends in the lamination direction of the multiple tubes while the ends are connected to the headers. The side plates each have a clamping part clamped to a clamped member while being separated from a connection place to the corresponding header by a predetermined distance, the clamping part has a first insertion hole and a second insertion hole for inserting a clamping tool along the longitudinal direction of the side plate, and the second insertion hole has a larger diameter than the first insertion hole.SELECTED DRAWING: Figure 1

The invention is about a refrigerant module for a thermal management system, comprising a first refrigerant distribution unit (RU-1), and a second refrigerant distribution unit (RU-2), each of the first and second refrigerant distribution units comprising two opposite plates (2-1, 3-1, 2-2, 3-2), respectively called channel plate (2-1, 2-2) and back plate (3-1, 3-2), shaped to form channels (4-1, 4-2) for distributing refrigerant fluid in said thermal management system, the first refrigerant distribution unit (RU-1) and the second refrigerant distribution unit (RU-2) being fixed together, the first refrigerant distribution unit (RU-1) being disposed inclined relatively to the second refrigerant distribution unit (RU-2).

A hinged cooler includes an enclosure in which a cooling fluid flows, a first heat exchanger disposed inside the enclosure for cooling a first fluid by the cooling fluid, a second heat exchanger disposed inside the enclosure for cooling a second fluid by the cooling fluid, and a hinge located between the first heat exchanger and the second heat exchanger. The first heat exchanger rotates 2024 / 085909 around the hinge, in a first direction, from a first closed position that covers the enclosure to a first open position in which the first heat exchanger moves to an outside of the enclosure. The second heat exchanger rotates around the hinge, in a second direction opposite to the first direction, from a second closed position that covers the enclosure to a second open position in which the second heat exchanger moves to the outside of the enclosure.

A heat exchanger includes a laminated structure of alternately stacked first and second plates forming separate flow paths for two fluids. The stack is enclosed in a bottomed tubular case with an open end sealed by a base plate. The case features sidewall-mounted inlet and outlet ports for a first fluid. Each plate has a protruding outer flange taper-fitted to adjacent plates.

The water cooling row structure with the water pump module comprises a radiator and a water tank, the radiator comprises a plurality of water pipes arranged at intervals and two water chambers connecting the two ends of the water pipes, the two water chambers comprise the first water chamber and the second water chamber, and radiating fins are arranged between the two water pipes. The length of the water tank is matched with the length of the water chamber or the length of the water pipe, and the water tank is arranged in at least the first water chamber and / or the second water chamber or connects the two water chambers; the water tank is detachably arranged and provided with a water pump, the water pump can provide driving force for fluid in the water tank, and then heat exchange of the fluid between the hot end and the cold end is achieved. The water tank and the water pump serve as an integrated module, so that the water tank can contain more liquid, the heat exchange efficiency is further guaranteed, meanwhile, through the detachably-arranged water tank module, the module can be conveniently replaced or overhauled, the installation efficiency is effectively improved, for example, when the flow speed of fluid needs to be increased, the water tank is replaced, and for example, when the flow speed of the fluid needs to be increased, the water tank needs to be replaced.

A heat exchanger in a system and manufacturing method for the heat exchanger. The heat exchanger includes an alignment rib positioned in a stack of plates. The alignment rib includes multiple non-circular in cross-section protrusions that mate with openings in adjoining plates in the stack of plates.

[Task] A heat exchanger is provided in which the position of an inlet and outlet of a fluid can be easily changed without increasing the types of plates. [Solution] In a stacked body 2 of a heat exchanger 1, the height of an outer circumferential flange part 244 on a top plate 24 is lower than the height of an outer circumferential flange part 214, 224 of a first plate 21 and a second plate 22, corresponding to or substantially corresponding to the height of a projection 241 and a protruding part 243. In a second distribution channel 27, the lower end is connected to a through-hole 41 of a base plate 4 through which oil flows, and the projection 241 is brazed to the inner surface of a top surface part 31 of a housing 3, thereby closing a through-hole 242 and sealing the upper end.When rearranging a heat exchanger 1B according to a layout in which the oil connection positions differ, a setup is carried out in such a way that it is possible to construct a stacking body 2B according to a base plate 4B and a bottom plate 23B, which are rearranged, by turning the stacking body over except for the bottom plate 23B.

This application provides a heat sink, a heat dissipation apparatus, a heat dissipation system, and a communications device. The heat sink includes: a heat dissipation substrate, a connector, and a fastener, where the heat dissipation substrate is configured to dissipate heat for a packaged chip located on a circuit board, and the heat dissipation substrate is located on a surface that is of the packaged chip and that is opposite to the circuit board; and a first heat dissipation substrate and a second heat dissipation substrate of the heat dissipation substrate each have a heat conduction surface that conducts heat with a chip in the packaged chip, different heat conduction surfaces correspond to different chips, a first end of the connector is fastened to the first heat dissipation substrate, a second end of the connector suspends on an outer side of the second heat dissipation substrate, and the fastener presses against an outer side of the first heat dissipation substrate, to prevent the first heat dissipation substrate from moving far away from the second heat dissipation substrate. A plurality of heat dissipation substrates that relatively slowly conduct heat with each other form one heat dissipation substrate, so that heat is properly and effectively dissipated for each chip in a packaged chip. Therefore, a service life of a chip having a relatively low temperature is effectively increased, and a service life of an electronic product is increased.

The present application discloses a heat exchange assembly, a battery and an electrical device. The heat exchange assembly includes a current collecting piece and a plurality of heat exchange pieces. The heat exchange piece is constructed with a first flow channel and a first joint portion communicating with the first flow channel. The current collecting piece is constructed with a second flow channel and a plurality of second joint portions. The plurality of second joint portions each communicate with the second flow channel and are configured to be connected to the first joint portions of the plurality of heat exchange pieces respectively, such that the second flow channel of the current collecting piece communicates with the first flow channels of the plurality of heat exchange pieces. When the heat exchange assembly and battery units form a group, the assembly procedure is simple, and the assembly and fabrication efficiency is high.

The present invention relates to a heat exchanger having a housing and a helical first tube with a plurality of turns, wherein either at least one cover bar extends in a direction parallel to a cylinder axis and at least one spacer extends parallel to the cylinder axis between two of the plurality of turns of the first tube, such that the spacer forms a limit stop for movement of the two of the plurality of turns of the first tube in the direction of the cylinder axis, or the heat exchanger has a helical second tube with a plurality of turns and a helical axis, the cover bar extends in a radial direction perpendicular to the cylinder axis and the at least one spacer extends in the radial direction between one of the plurality of turns of the first tube and one of the plurality of turns of the second tube, such that the spacer forms a limit stop for movement of the one of the plurality of turns of the first tube and the one of the plurality of turns of the second tube in the radial direction, wherein the at least one spacer is connected non-rotatably to the at least one cover bar, and wherein the at least one spacer and the at least one cover bar are floatingly accommodated in the housing, at least in the direction parallel to the cylinder axis or in a circumferential direction of the housing relative to the outer wall.

A heat exchanger includes an exchange core bundle through which a heat-transfer liquid and a gas flow are intended to pass. The exchange core bundle includes a plurality of plates stacked one on another along a stacking direction. The heat exchanger includes a housing surrounding the exchange core bundle and having at least one upper cover plate, a lower cover plate and at least one main side cover plate. The main side cover plate is arranged in the continuation of the upper cover plate and / or of the lower cover plate. The housing includes at least one intermediate side cover plate interposed between the exchange core bundle and the main side cover plate.

A device (10) for heat dissipation comprising a heat source (12), a heat sink (14), and a heat-conducting element (16), wherein the heat-conducting element conducts heat energy (E) from the heat source to the heat sink along a heat conduction path (18), and wherein the heat-conducting element (16) is arranged at the heat source (12) and the heat sink (14) and changes physically with increasing temperature of the heat-conducting element (16) such that a) a first cross-sectional area (A) between the heat source (12) and the heat-conducting element (16) and / or a second cross-sectional area between the heat-conducting element (16) and the heat sink (14) increases, and / or b) a length (d) of the heat conduction path (18) decreases. Furthermore, a video endoscope (80) and the use of a device (10) are shown.

A heat exchange plate having flow paths through which a heat medium flows and an elongated rectangular plate shape including: an upper and lower walls covering the flow paths from both sides of the heat exchange plate in a plate thickness direction; and partition walls connecting the upper and lower walls in the plate thickness direction to partition the flow paths. The heat medium flows through the flow paths is a longitudinal direction of the heat exchange plate. At least one end portion of the heat exchange plate in the longitudinal direction closes the plurality of flow paths. The upper and lower walls, and partition walls constituting the closing portion are compressed in the plate thickness direction. The heat exchange plate further includes: a brazing portion filling a gap present between the upper wall and lower walls, and the partition walls constituting the closing portion.