Abstract: Mobile devices are re-supplied with fluids on a periodic basis thereby eliminating the need to maintain a permanent connection between an external fluid supply and the moving device. Electronic scanning devices generate heat and operate at varying and high temperature conditions that interfere with operations of the scanner heads. Circulating a heat transfer fluid through the sensor head removes excess heat from heat sensitive regions of the sensor head during operations. Once the heat transfer fluid reaches a predetermined temperature or after passage of a predetermined length of time, the scanner head is maneuvered to a docking station where it is coupled to an external heat fluid source where fresh fluid is supplied to the scanner head.

Abstract: A heat exchanger system for use in a directional solidification furnace is disclosed. The heat exchanger includes a plate having a flow path formed in the plate for directing a flow of coolant. The flow path has an inlet positioned adjacent an outlet. A wall separates the inlet and the outlet of the flow path. The heat exchanger includes a cover having an opening in fluid communication with the inlet and the outlet of the flow path. An inner conduit is connected to the inlet of the flow path and an outer conduit is connected to the outlet of the flow path.

Abstract: Cooling system for reciprocating compressors comprising an atomizing nozzle (1) that supplies an atomized lubricating fluid inside the compressor cylinder (2), a heat exchanger (6) intended for cooling the lubricating fluid to be atomized at the nozzle (1), a fluid separator (5) for separating a mixture of cooling fluid and lubricating fluid and directing the lubricating fluid back from the system, and a blocking element (7) arranged between the atomizing nozzle (1) and the heat exchanger (6) to prevent the buildup of lubricating fluid in the cylinder. Reciprocating compressor having the cooling system as described.

Abstract: The cooling apparatus includes: a liquid storage tank receiving and storing a liquid; a. cooling pipe taking heat from the liquid stored in the liquid storage tank to cool the liquid; a refrigerating cycle supplying a low pressure refrigerant gas to the cooling pipe; and a fluid flow guiding unit installed within the liquid storage tank, preventing a liquid introduced into the liquid storage tank from being mixed with a liquid which has been previously introduced to be cooled in the liquid storage tank, and guiding the water such that the water sequentially flows to an outlet of the liquid storage tank. The fluid flow guiding unit includes a supporter placed along an internal central portion of the liquid storage tank; and a spiral plate installed along an outer circumferential surface of the supporter to guide the liquid introduced into the liquid storage tank to sequentially flow toward the outlet.

Abstract: Disclosed herein is a heat transfer system comprising a circulation loop defining a flow path for a heat transfer fluid, and a heat transfer fluid comprising a liquid coolant, a siloxane corrosion inhibitor of formula R3-Si—[O—Si(R)2]x-OSiR3, wherein R is independently an alkyl group or a polyalkylene oxide copolymer of 1 to 200 carbons, x is from 0 to 100, and further wherein at least one alkyl group and at least one polyalkylene oxide copolymer are present, and a non-conductive polydiorganosiloxane antifoam agent, wherein the conductivity of the heat transfer fluid is less than about 100 ?S/cm, and wherein the heat transfer system comprises aluminum, magnesium, or a combination thereof, in intimate contact with the heat transfer fluid.

Abstract: Provided is a system for recovering waste heat discharged from distillation columns, incinerators, blast columns, smelting columns, and the like at relatively low temperatures to produce hot water in high efficiency, which can be used in various industrial fields. The investment and operating costs of the waste heat recovery system are relatively low as compared with the conventional systems.

Abstract: A coolant mixture, method and apparatus for accelerated cooling of product, especially foodstuffs, is disclosed. A further aspect of this invention is the optimizing and controlling of the cooling process and the cooling medium without the need for pressurization. It further relates to a method of effectively increasing the flexibility and maximizing of cooling capacity and its storage without inducing a change of physical state within the coolant nor incurring high energy costs. Finally it relates to effectively eliminating any corrosive properties of the cooling medium. REFERENCES CITED US Patents U.S. Pat. No. 5,368,093 November 1992 Takeshige U.S. Pat. No. 7,543,455 June 2008 Chen U.S. Pat. No.

Abstract: A cooling device includes a base, first and second heat generating parts connected to the base, first and second passages formed in the base and a partition wall disposed in the base. Liquid refrigerant flows through the first and the second passages for cooling the first and the second heat generating parts, respectively. The first and the second passages are stacked one above the other through the partition wall in the base. The partition wall includes a first region opened to allow liquid refrigerant in the first passage to flow into the second passage and a second region located on the side of the first region to allow liquid refrigerant in the first passage to flow toward the downstream end of the first passage. The first region is formed such that an opening area of the first region is greater than an opening area of the first passage.

Abstract: A design and manufacturing technique for a “Long Heat Exchanger”, a counter-flow heat exchanger sizeable to transfer up to 100% of heat and temperature between two fluids (gas or liquid). Inner “Core” capable of manufacture in continuous lengths, may be coiled, cut and formed to shape multiple applications, ranging from engine exhaust, to recycling steam turbine, to building furnaces. Core costs are comparable to metal tubing costs, and outer or “Main” channel housing may be existing exhaust channels being retrofitted or new housing injection molded in sections. Applies anywhere waste heat is exhausted. As waste heat represents fuel waste directly, recovering up to 100% of wasted heat, while maintaining temperature and pressure of the working fluid, can equate to recovering up to 100% of wasted fuel. Practical, economical designs may readily yield over 90% fuel efficiency in applications currently yielding 10% to 60% fuel efficiency.

Abstract: A process for application of alcoholic derivative on heat treated pellets for inhibition of particulate emission is provided, and the process includes weighing the amount of heat treated pellets discharged from furnaces, measuring the temperature of the heat treated pellets discharged from furnaces, applying cooling fluid on the heat treated pellets until they reach temperatures below 140° C., and spraying the alcoholic derivative on the heat treated pellets. Also provided is a first device for applying cooling fluid that is capable of calculating a dosage of cooling fluid to be applied to the heat treated pellets, a second device for applying alcoholic derivative that is capable of calculating a dosage of alcoholic derivative to be applied to the heat treated pellets already cooled, and a carrier device that continuously communicates with the first device for applying cooling fluid and with the second device for applying alcoholic derivative.

Abstract: A system and method can include a motor subject to a change in efficiency as a function of temperature and a motor cooling system. The motor cooling system can be driven to minimize the sum of energy consumed by the motor and the cooling system.

Abstract: A cooling circuit includes a first fluid system with a radiator having an inlet portion, an outlet portion, a first heat exchanger. The first fluid system contains a first fluid and also includes a first inlet branch, a second inlet branch, and a valve member. Also, a second fluid system containing a second fluid includes a second heat exchanger that is operably coupled to the outlet portion of the radiator. The first fluid flows through the first inlet branch to be cooled by the first heat exchanger when the valve member is in the first position. The first fluid flows through the second inlet branch and bypasses the first heat exchanger to allow heat transfer between the first and second fluids via the second heat exchanger when the valve member is in the second position.

Abstract: A unified heat exchanger includes a first heat exchanging arrangement and a second heat exchanging arrangement. The first heat exchanging arrangement is adapted to exchange heat between high pressure refrigerant and conditioning air. The second heat exchanging arrangement is adapted to exchange heat between low pressure refrigerant and the conditioning air. The first heat exchanging arrangement and the second heat exchanging arrangement are integrated together and are arranged to enable heat exchange of the conditioning air with both of the high pressure refrigerant and the low pressure refrigerant.

Abstract: An apparatus is provided that includes a device and a mechanism for heat transfer. The mechanism includes a hydrofluoroether heat-transfer fluid wherein the heat transfer fluid is represented by the following structure: Y—Rf—CH2OCH2Rf—Y wherein Rf may be the same or different and is, independently, selected from the group consisting of perfluorinated alkylene groups which may be linear, cyclic, or branched having from 1 to 10 carbon atoms, partially fluorinated alkylene groups having from 1 to 10 carbon atoms, and derivatives thereof wherein one or more carbon atoms are replaced by catenated nitrogen or oxygen heteroatoms, wherein each Rf contains at most one hydrogen atom, wherein Y represents H, F, or an RfCH2OCH2— group, and wherein the total number of carbon atoms in the molecule is at least 6.

Abstract: The invention provides methods, apparatus and systems in which there is partial boiling of a liquid in a mini-channel or microchannel. The partial boiling removes heat from an exothermic process.

Abstract: A water heater system, especially for motor homes, includes a heater (12) with a heat exchanger arrangement (16) for transferring heat from the heater to a first heat carrier medium, a water reservoir (32) for water to be heated and a heat transfer arrangement (30) for transferring heat in the first heat carrier medium to water in the water reservoir. The heat transfer arrangement includes a heat exchanger tube (34) with a heat coupling area (36) for thermal interaction with the first heat carrier medium and a heat decoupling area (38) for thermal interaction with the water. The heat exchanger tube has a first flow space area (54) for essentially gaseous second heat carrier medium flowing from the heat coupling area to the heat decoupling area and a second flow space area for essentially liquid second heat carrier medium flowing from the heat decoupling area to the heat coupling area.

Abstract: Various embodiments of a thermal energy transfer apparatus that removes thermal energy from a heat-generating device are described. In one aspect, a thermal energy transfer apparatus comprises a silicon-based manifold having an internal cavity, a first primary side, and a second primary side opposite the first primary side. The second primary side of the manifold has at least one coolant inlet port and at least one coolant outlet port that are connected to the internal cavity of the manifold, the at least one coolant inlet port being at a position directly opposite a position on the diamond layer where the heat-generating device is received. A diamond layer covers at least a portion of the first primary side of the manifold such that the heat-generating device is in direct contact with the diamond layer when the heat-generating device is received on the first primary side of the manifold.

Abstract: The invention relates to a heat exchange device including at least two tubes (12) for circulating a heat transfer fluid arranged in at least two rows (R1, R2) offset two-by-two from one row to the other. A heat exchange fin (20) and a heat storage tank (22) made from a heat storage material extend transversely to the rows of the tubes (R1, R2) forming a group of tanks and tubes (24) in each instance, wherein a single heat storage tank (22) is in contact with one tube (12) of each row of tubes (R1, R2). The contact with the tubes (12) takes place alternately on two opposing walls (26, 28) of the heat storage tank (22), and the walls (26, 28) are also in contact with spacers fins (20). The invention can be used for the air-conditioning evaporators of automobiles.

Abstract: A system may include a urea injection device, first, second and third conduits and a valve. The first conduit may contain a fluid and may be in heat transfer relation with the urea injection device. The second conduit may be in selective fluid communication with the first conduit. The third conduit may be in selective fluid communication with the first conduit and in heat transfer relation with a heat source. The valve may be connected to the first, second and third conduits and may be movable between first and second positions. The first position may allow fluid communication between the first and third conduits and restrict communication between the first and second conduits. The second position may allow fluid communication between the first and second conduits and restrict fluid communication between the first and third conduits.

Abstract: A device for cooling the solid matter from a coal gasification. The device includes a container with a feed part, a cooling part and a venting part. Lines arranged transverse to the flow direction are located inside of the cooling part that are grouped in two kinds, the one carrying liquid and the other carrying gas. The liquid carrying lines are closed in the interior of the cooling part and are provided for the heat exchange. The gas carrying lines that are gas permeable into the interior of the cooling part in such a way that solid matter comprising primarily cooled slag, ash and flue dust is cooled and the remaining gas present in and between the solid matter particles is exchanged. A method for cooling down the solid matter and for removing the remaining gas from the particles is also disclosed.

Abstract: Heat is reclaimed from a high temperature gasifier exhaust gas of between 250° C. and 20000C. A first duct receives the exhaust gas, and outputs it at a reduced temperature. A second duct receives a heat transfer fluid and outputs it at an elevated temperature. A heat transfer arrangement conducts heat extracted from the product gas to the heat transfer fluid (steam), thereby elevating the temperature of the heat transfer fluid. A heat pipe formed of sodium, potassium, rubidium, or lithium, has a first end for communicating with the high temperature exhaust gas and a second end for communicating with the heat transfer fluid. The heat pipe has an envelope formed of a selectable combination of stainless steel, Inconel, nickel, molybdenum, tungsten, niobium, carbon, carbon composite, and Hastelloy X, and a safety valve that ensures safe operation. An adiabatic zone is interposed between the first and second ducts.

Abstract: Heat is removed from a process liquid of a direct contact condenser in waste gas cooling using two separate and distinct cooling devices that provide cooled process liquid to at least two separate sections in the direct contact condenser. Most preferably, the sections are liquidly isolated and provide the heated process liquids to the respective cooling devices. However, in other embodiments, the sections are liquidly coupled to each other so to allow transfer of the process liquid from one section to another section. One of the two cooling devices uses a lower-cost or higher-availability coolant that the other. It is generally preferred that one of the cooling devices is an air cooler and that another one of the cooling devices employs a cooling medium other than air.

Abstract: An elongated heat exchanger of generally tubular shape in which at least one heat exchanger is mounted in the interior thereof. The heat exchanger is composed of an outer tube which may be of a plastic material which forms a sealed chamber and has a pair of ends from which spigots extend. A heat exchanger is mounted within the outer tube and is connected to the spigots at each end so that it extends the length of the outer tube and is sealedly connected to each spigot. The heat exchanger consists of a number of stainless steel tubes (greater than two) each having the same diameter and gently twisted together to form a single heat exchanger. The spigots located at each end of the outer tube thus form manifolds for the tubes of the heat exchanger. A heat exchanger fluid is introduced in the space between the outer tube and the heat exchanger to provide the necessary exchange of heat in the device.

Abstract: Condenser (1) having a sub cooling unit, comprising a gas inlet collector (2); a sub cooler collector (4) connected to the gas inlet collector (2) by at least one condensing conduit (12) having a condensing surface, said condensing surface condensing the gaseous refrigerant (10a) to liquid refrigerant (10b), said sub cooler collector (4) collecting the liquid refrigerant (10b); and a liquid refrigerant collector (6) connected to the sub cooler collector (4) by at least one cooling conduit (14) having a cooling surface, said cooling surface cooling down the liquid refrigerant (10b); the at least one condensing conduit (12) discharging into the top of the sub cooler collector (4) and the at least one cooling conduit (14) joining at the bottom of the sub cooler collector (4) so that the sub cooler collector (4) allows for compensation of the gaseous refrigerant (10a).

Abstract: Various methods and systems are provided for an apparatus forming at least a portion of a cooling circuit for a fluid source. In one example, the apparatus includes a first radiator system having a parallel flow path configuration, a second radiator system having a series flow path configuration, and at least one shutter system for adjusting airflow to one or more of the first radiator system or the second radiator system. The apparatus further includes a controller configured to adjust operation of the shutter system responsive to an operating condition.

Abstract: A DL-microchannel cooling device with rotatable separating plate is disclosed. The separating plate is supported via anti-leaking flexible seals. The only allowable motion for that plate is the rotational motion about a pivot rod. The rod is taken to be aligned along the microchannel center line normal to its sides boundaries. The device can be configured as a flexible microheat exchanger and a heated DL-flexible microchannel device. The theory of linear elasticity applied to flexible seals supporting the separating plate is used to relate the moment of the pressure forces on that plate to its rotational angle. The energy equations for both fluids flows are solved numerically and analytically under special conditions. As such, the effectiveness of the flexible microheat exchanger and other performance indicators for flexible microheat exchanger and heated DL-flexible microchannel devices are calculated.

Abstract: The invention relates to a cooling apparatus (101) for a sample in an ion beam etching process, including, a sample stage (102) for arranging the sample, a coolant receptacle (120) containing a coolant, at least one thermal conduction element (106a, 106b) that connects the sample stage (102) to the coolant, a cooling finger (105) connected to the thermal conduction element (106a, 106b), the cooling finger (105) comprising a conduit (130, 131) through which coolant can flow and which is connectable to the coolant receptacle (120). The invention further relates to a method of adjusting the temperature of a sample in an ion beam etching process, including mounting a sample on a coolable sample stage (102), aligning the sample on the sample stage (102), and cooling the sample by coolant directed through a conduit (130, 131) of a cooling finger.

Abstract: The present invention is a method for fabricating a thermal spreader. The method may include laminating a plurality of layer portions together to fabricate a mechanically flexible substrate. The method may further include providing an internal channel within the mechanically flexible substrate, the internal channel configured for containing an electrically-conductive liquid, the internal channel being further configured to allow for closed-loop flow of the electrically-conductive liquid within the internal channel. The method may further include integrating a pump with the mechanically flexible substrate. The method may further include fabricating a plurality of rigid metal inserts. The method may further include forming a plurality of extension portions on a surface of each rigid metal insert included in the plurality of rigid metal inserts. The method may further include connecting the plurality of rigid metal inserts to the mechanically flexible substrate.

Abstract: A liquid cooling device includes a heat dissipating module and a container thermally connected to the heat dissipating module. The heat dissipating module includes a chamber, a first liquid inlet accessing the chamber and a first liquid outlet accessing the chamber. The container includes a liquid feeding channel and a liquid releasing channel isolated from each other. The liquid feeding channel accesses the chamber via the first liquid inlet. The liquid releasing channel accesses the chamber via the first liquid outlet. Heat absorbed by the heat dissipating module is taken away by a coolant successively flowing through the liquid feeding channel, the first liquid inlet, the chamber, the first liquid outlet and the liquid releasing channel.

Abstract: A heat exchanger includes: a heat spreader plate; plural microchannels for directing heat transfer fluid over the heat spreader plate, wherein each microchannel has a first end and an opposite end, extends substantially parallel with each other microchannel, and has a continuous flow path between the first and opposite ends; a fluid inlet opening for the microchannels and positioned between the first and opposite ends, a first fluid outlet opening from each of the microchannel first ends; and an opposite fluid outlet opening from each of the microchannel opposite ends, the fluid inlet opening and the first and opposite fluid outlet openings providing that a flow fluid that passes into the plurality of microchannels, flows along the plurality of microchannels outwardly from the fluid inlet opening. A method of cooling a heat generating component uses a fluid heat exchanger that splits a mass flow of coolant.

Abstract: According to an embodiment of the present invention, there is provided a system for cooling. The system comprises an equipment rack installable in a facility and for accommodating a plurality of electronic equipment. The system further comprises an exhaust duct into which the electronic equipment, when installed in the rack, exhausts gas drawn from a first section of a facility. The system further comprises a gas flow meter for measuring gas flow in the exhaust duct, and a controller for generating control signals to control, based on the measured gas flow, the output of a cooling unit arranged to provide cooled gas to the first section of the facility.

Abstract: A liquid-cooled heat sink includes a top plate having an array of circuitous liquid channels, each channel having a separate channel inlet and a common central outlet channel. The heat sink further includes a bottom plate having an inlet port and an outlet port. The heat sink further includes an intermediate plate having inlet guide channels providing fluid communication between the inlet port of the bottom plate and channel inlets of the top plate, said intermediate plate further including an outlet guide channel providing fluid communication between the common central outlet channel of the top plate and the outlet port of the bottom plate.

Abstract: A method and system for cooling an electrical heat source is disclosed. A heat exchanger has two principal sub-assemblies. A closed-loop fluid flow is provided through a second sub-assembly, disposed next to a heat source. An open-loop fluid flow is provided though a first sub-assembly in communication with a second sub-assembly. Each of the first and second sub-assemblies has a rotational element. The fluid flow entering the first sub-assembly rotates the first rotational element, and magnetic communication between the rotational elements causes movement of the second rotational element, thereby achieving fluid movement within the second sub-assembly. Operationally, the closed-loop sub-assembly removes heat from the heat source and transfers it to the open-loop sub-assembly for subsequent heat transfer in a downstream fluid flow.

Abstract: A system and method for reducing repairs to radial seals used in a rotating control head used while drilling is disclosed. Also, a system and method to detect leaks in the rotating control head and a latching system to latch the rotating control head to a housing is disclosed.

Abstract: Provided is a water-cooled condenser of which the size is reduced by a simple structure and the cooling efficiency is improved, in which a main heat-dissipating unit where a coolant discharged from a compressor exchanges heat with cooling water and a supercooling core unit where a coolant discharged from a receiver drier exchanges heat with cooling water have separate cooling circuits and are integrated in one unit, a second cooling water inflow pipe, which allows the cooling water to flow into the supercooling core unit, diverges from a first cooling water inflow pipe that allows the cooling water to flow into the main heat-dissipating unit, and the cooling water flowing in the supercooling core unit is discharged with the cooling water in the main heat-dissipating unit, through an internal connecting line.

Abstract: In a method for cooling a metallurgical furnace having at least one cooling element which is flown through by a cooling mediums, a cooling medium that contains at least one ionic liquid, and preferably consists thereof, is carried through the cooling element, thereby preventing the problems that are associated with water cooling, such as the risk of hydrogen explosions and damage to the furnace lining

Abstract: A new blood unit cooling system was designed to cool blood rapidly to about 22° C. and maintain it at about that temperature, even in ambient temperature extremes, for several hours. The system incorporating a preferred eutectic solution including 98% 1-dodecanol, 1.5% myristyl alcohol and 0.5% 1-decanol (having a melting point of about 23° C.) contained in a sealed flexible polymer layer, was used to cool whole blood-filled bags. The preferred design used double-layered transparent polyethylene, with two sealed compartments filled with the solution, separated by a flattened and sealed portion between them. One of the two sealed compartments contacts one side of the blood bag and the other compartment is folded over to contact the other side of the blood bag. The transparent compartments allows an operator to verify at any time whether the solution is in a solid state, and the flexibility of the compartments eases the proper positioning of them around a blood bag.

Abstract: The present invention refers to a method of operating an assembly (1) of heat exchangers (2) for subcritical and transcritical conditions, by initially arranging at least two heat exchangers (2) in parallel for the subcritical condition.

Abstract: The present invention provides a heat sink having improved heat-exchange. A heat sink (10) which transfers heat dissipated from a heat generating device (12) to a cooling fluid (CF), said heat sink comprises: a planar base plate portion (11) that is thermally connected to the heat generating device (12); and a fin unit (10A) having a plurality of louvers (13) and a frame portion (14) that connects to the plurality of louvers and surrounds thereof. One edge of said plurality of louvers is thermally connected to the base plate portion; and said frame portion is situated apart from a principal surface of said base plate portion.

Abstract: A method is described for heating lightweight metal ingots (1), with the lightweight metal ingots (1) being heated in a furnace (2) by hot burner exhaust gases. In order to provide advantageous heating conditions it is proposed that the lightweight metal ingots (1), prior to their heating in the furnace (2), are preheated via at least one preheating apparatus (9) which rests in a planar manner thereon and is supplied by a fluid heat carrier which is heated in heat exchange by the hot exhaust gases from the furnace (2) and is guided in a circuit (7).

Abstract: Fluid-cooling technology developed for printed circuit boards (PCBs) and electronics assemblies is combined with optical-based interconnect technology, thereby enabling efficient fabrication of PCBs with free-space optical bearers. Since cooling components such as fans and heat sinks are no longer required on the PCB, the PCB is thinner and makes better use of a cooling substrate by also using it to carry optical signals. A card or a backplane supporting a plurality of active components can combine optical signals and cooling aspects in support of those components.

Abstract: A cold plate has blades arranged to be interleaved with memory modules or memory module sockets. A liquid cooling loop is thermally coupled to the blades of the cold plate.

Abstract: An aqueous-based coolant for cooling and reducing corrosion potential in applications having high aluminum or nickel surface area to coolant volume ratios has a pH between 8 and 9 and includes about 35 weight % to about 65 weight % propylene glycol, about 1.0 weight % to about 4.0 weight % 2-ethylhexanoic acid, about 0.25 weight % to about 1.0 weight % sebacic acid, about 0.25 weight % to about 1.0 weight % benzoic acid and about 0.03 weight % to about 0.1 weight % molybdate oxyanion. A cooling system includes an aluminum or nickel surface and the aqueous-based coolant. A method of cooling a component surface containing aluminum or nickel includes delivering the aqueous-based coolant to the component surface and cooling the component surface with the aqueous-based coolant.

Abstract: A system includes a gasifier, which includes a reaction chamber configured to convert a feedstock into a synthetic gas, a quench chamber configured to cool the synthetic gas, a quench ring configured to provide a water flow to the quench chamber, and a quench ring protection system configured to protect the quench ring from the synthetic gas or a molten slag. The quench ring protection system includes a protective barrier disposed within an inner circumferential surface of the quench ring. The protective barrier substantially overlaps the inner circumferential surface in an axial direction along an axis of the quench ring.

Abstract: The disclosure relates to a heat exchanger including at least a first group and a second group of channels arranged to provide fluid paths between a first end and a second end of the heat exchanger. Connecting parts are arranged at the first end and at the second end of the heat exchanger. A first heat transfer element transfers a heat load to fluid, and a second heat transfer element transfers a heat load from the fluid. The channels have capillary dimensions.

Abstract: An integrated electronics cooling device including a substrate having a first surface for mounting one or more electronic components and a second surface, a cooling assembly including a cooling chamber bounded on one side by the second surface of the substrate, and a vacuum insulated coolant conduit for providing a coolant to and removing the coolant from the cooling assembly.

Abstract: The invention relates to a method of regulating the temperature of a heat regenerator (ST1, ST2) used in an installation (10) for storing energy by adiabatic compression of air. The regenerator is subjected to successive operating cycles, each cycle comprising a compression stage followed by an expansion stage. Between two successive cycles, the method consists in cooling a bottom compartment (26a) of the layer of refractory material (26) of the regenerator that is situated in the proximity of the bottom distribution box (24) in order to bring the air leaving the heat regenerator to a temperature that is compatible with the range of temperatures required during the compression stages. The invention also provides such a heat regenerator.

Abstract: A heat exchanger apparatus is provided and includes a motor controller housing, supportively disposed with a turbofan within an aircraft engine nacelle, in which motor controller components are mounted, a fuel cooled cold plate, forming a surface of the housing, which forms a heat transfer path by which motor controller component generated heat is dissipated during first conditions and an air cooled cold plate, disposed in thermal communication with the fuel cooled cold plate, which extends into a flow path of nacelle air generated by the turbofan to form an extended heat transfer path by which the motor controller component generated heat is dissipated during second conditions.

Abstract: A system and method are provided for storing electric energy in the form of thermal energy. A thermoelectric energy storage system includes a working fluid circuit for circulating a working fluid through a heat exchanger, and a thermal storage medium circuit for circulating a thermal storage medium. The thermal storage medium circuit includes at least one hot storage tank, an intermediate temperature storage tank, and a cold storage tank connected together via the heat exchanger. A proportion of the storage medium is redirected to or from the intermediate storage tank from or to the hot or cold storage tank, joining another proportion which flows directly between the cold and hot storage tank.

Abstract: A refrigeration system includes a plurality of heat exchangers (E1, E2, E3) in cascade, each of said heat exchangers including: a flow (150) of cold-producing liquefied methane; a high-pressure flow (122) of a two-phase mixture of refrigerant fluids giving up in heat and including refrigerant fluids having a low normal boiling temperature; and a low-pressure flow (100) of a cold-producing two-phase mixture of said refrigerant fluids.