94results about How to "Effective heat absorption" patented technology

Steady-state cooling of the skin is achieved by a support surface without requiring external power or circulation of air. Heat is transferred from via a thermally conductive layer or layers of material(s) that are soft, pliable, and comfortable to sit or lie on. The layer is connected to conductive materials that transport heat and diffuse the heat to a cooler environment.

A system for treating uterine disorders includes a balloon catheter having a cannula with a proximal end and a distal end, and an inflatable balloon secured over the distal end of the cannula. The device includes a heating assembly coupled with the distal end of the cannula and disposed inside the inflatable balloon, and an impeller disposed inside the heating assembly. In one embodiment, the heating assembly includes an elongated heating tube having a heating film covering an outer wall thereof, at least one fluid inlet extending though the outer wall and a fluid outlet located at a distal end of the elongated heating tube. The impeller is rotatable for drawing fluid through the at least one fluid inlet and into the elongated heating tube for heating the fluid, and discharging the heated fluid from the fluid outlet for circulating the fluid throughout the inflatable balloon.

A system for treating uterine disorders includes a catheter with a cannula having a proximal end and a distal end, and a degassing system in communication with the distal end of the cannula. The degassing system has a fluid insertion path having a first check valve and a gas filter, and a fluid extraction path that is separate from the fluid insertion path and includes a second check valve. The catheter may include an inflatable balloon secured to the distal end of the cannula with the degassing system in communication with the inflatable balloon. In one embodiment, a heating assembly is disposed inside the inflatable balloon for heating the fluid introduced into the balloon.

This invention pertains to the use of spin resonance absorption heating as a therapeutic treatment method wherein electron spin resonance absorption of superparamagnetic (SPM) nanoparticles can be used as an intracellular heating method, more preferably as an in vivo heating method that can be utilized in a variety of therapeutic contexts and can further allow for resonance imaging and internal thermometry.

A method and apparatus for cooling chips on a computer memory module. The apparatus includes a primary and secondary heat spreaders, at least a first heatpipe coupled to the primary heat spreader and having a remote portion spaced apart from the primary heat spreader and thermally contacting the secondary heat spreader, and a coolant within the first heatpipe and the primary heat spreader so as to absorb heat from the primary heat spreader and conduct the heat to the secondary heat spreader. The primary heat spreader has at least two panels configured to engage the memory module therebetween, with facing contact surfaces of the panels adapted for thermal contact with the module chips. The secondary heat spreader is configured to increase surface dissipation of heat from the first heatpipe into the environment. The coolant has a boiling point at or below a maximum preselected operating temperature of the module chips.

An inexpensive fiber that has heat retaining properties, satisfactory weather resistance and heat absorption efficiency, and includes a heat absorbing material having excellent transparency; and a fiber article that uses the fiber. A particle dispersion of Cs0.33WO3 is obtained by mixing Cs0.33WO3 microparticles, toluene, and a microparticle dispersing agent to create a liquid dispersion, and then removing the toluene. The particle dispersion is added to and uniformly mixed with pellets of polyethylene terephthalate resin, after which the mixture is extruded, the strands thus obtained are formed into pellets, and a master batch including Cs0.33WO3 microparticles is obtained. This master batch is mixed with a master batch to which inorganic microparticles have not been added, and the mixture thus obtained is melt spun and stretched to manufacture a polyester multifilament yarn. The polyester multifilament yarn is cut, polyester staple fibers are created, and a spun yarn is manufactured. A heat retentive knit article is obtained using the spun yarn.

In this motor drive device, a motor case which stores a motor and a controller case which stores a controller of controlling the motor are unitarily coupled to each other in a direction of the rotating shaft of the motor. In addition, a connection portion for an external connector included in the controller is also provided in the direction of the rotating shaft of the motor. Such a structure achieves a small and compact structure which can be connected in the direction of the rotating shaft.

A heat receiving member of a heat receiving device includes a coolant passage comprising a bag formed of a flexible sheet made up of a thermally stable, flexible plastic material and a metal film having high heat conductivity. In the coolant passage flows a coolant having an anti-corrosion property. A heat generating member including a main body and a terminal portion is supported by an adapter fitted in an opening formed in the flexible sheet. The main body of the heat generating member comes into direct contact with the coolant flowing in the coolant passage. Since the heat from the heat generating member is directly transferred to the coolant, the heat transfer path between the heat generating member and the coolant becomes shorter. Therefore, the heat resistance is reduced, so that the heat receiving efficiency is extremely high.

Steady-state cooling of the skin is achieved by a support surface without requiring external power or circulation of air. Heat is transferred from via a thermally conductive layer or layers of material(s) that are soft, pliable, and comfortable to sit or lie on. The layer is connected to conductive materials that transport heat and diffuse the heat to a cooler environment.

An electronic control unit includes a casing, a circuit board, and a thermally conductive member. The circuit board is housed in and fixed to the casing. A heating element is mounted on the circuit board. The thermally conductive member is arranged between the casing and heating element for thermal conduction therebetween. The casing includes an internal surface including a contact section in intimate contact with the thermally conductive member. The contact section includes a projecting portion projecting toward the thermally conductive member. The projecting portion is located out of an area of the circuit board, wherein the heating element is located in the area. The heating element is mounted on one side of the circuit board. The thermally conductive member is fixed to another side of the circuit board, and located to face the heating element via the circuit board.

Steady-state cooling of the skin is achieved by a support surface without requiring external power or circulation of air. Heat is transferred from via a thermally conductive layer or layers of material(s) that are soft, pliable, and comfortable to sit or lie on. The layer is connected to conductive materials that transport heat and diffuse the heat to a cooler environment.

A projector includes: a light source unit configured to emit light; a light source heat absorber configured to cause coolant to absorb heat from the light source unit; an ejector pump configured to allow passage of the coolant having absorbed the heat in the light source heat absorber; a radiator configured to radiate the heat of the coolant flowed out from the ejector pump; an evaporator configured to cool the coolant stored in the evaporator by evaporating the coolant; and a heat source other than the light source unit, wherein the ejector pump decompress the interior of the evaporator by a pressure drop due to the passage of the coolant having absorbed the heat in the light source heat absorber, and heat from the heat sources other than the light source unit is absorbed by the coolant cooled by the evaporator.

A second duct is designed to oppose its air outlet to a portion of an air inlet of a first duct in an electronic apparatus. The wall member closes the air inlet of the first duct at a position outside the air outlet of the second duct. An opening is defined in the wall member. The opening enables a connection between the outer space of the second duct and the air inlet of the first duct. Airflow enters the air inlet of the first duct from the air outlet of the second duct as well as from the opening of the wall member, respectively.

The invention relates to a cooling apparatus for a computer system and a method for cooling at least one heat producing component of a computer system.The cooling apparatus for the computer system features an evaporator (2) for a working medium, which can be thermally coupled to the at least one heat producing component of the computer system. In this connection, the cooling apparatus is constructed as a heat engine or as an absorption refrigerator in order to carry out a thermodynamic cycle.

A second duct is designed to oppose its air outlet to a portion of an air inlet of a first duct in an electronic apparatus. The wall member closes the air inlet of the first duct at a position outside the air outlet of the second duct. An opening is defined in the wall member. The opening enables a connection between the outer space of the second duct and the air inlet of the first duct. Airflow enters the air inlet of the first duct from the air outlet of the second duct as well as from the opening of the wall member, respectively.

A gas generator (24; 140) may be used in an inflatable member system (20) which includes an inflatable member (22) expandable from a stowed condition to a deployed condition. The generator may include a flexible container (30; 150) within the inflatable member, a gas generant (28; 148), initially located within the flexible container, and an initiator (34). A propagating member (60; 142) may be located within the container to permit the initiator to initiate the generant upon triggering of the initiator to inflate the inflatable member from stowed to deployed conditions. A sustainer (44; 152; 156) may be provided to sustain the gas generation and may be positioned within a generator housing upstream of the propagating member or at or adjacent the downstream end of the propagating member.

A wheel axle bearing unit for a vehicle is to be made lighter in weight, so as to prolong a life span thereof. A first grooved portion is formed by removing an excess in thickness in a region between dual raceways on an outer circumferential surface of a hub and an inner race which constitute the inner member of the wheel axle bearing unit, for enlarging a space inside the bearing, thereby increasing an amount of grease that can be retained in the region between the dual raceways. Also at a position corresponding to the first grooved portion, a second grooved portion is formed by removing an excess in thickness on an inner circumferential surface of an outer race, which constitutes an outer member.

An air conditioning device for a vehicle has a compressor that supplies a high-pressure refrigerant by drawing and discharging a refrigerant, an air heating heat exchanger heating air that is to be blown into a vehicle cabin by using heat of the high-pressure refrigerant, a pressure reduction part expanding and decompressing the high-pressure refrigerant and supplying as an intermediate-pressure refrigerant and a low-pressure refrigerant, a first low-pressure side heat exchanger exchanging heat between the intermediate-pressure refrigerant and a heating medium other than the air, a second low-pressure side heat exchanger cooling the heating medium by exchanging heat between the low-pressure refrigerant and the heating medium, a first heating medium circuit through which the heating medium cooled in the second low-pressure side heat exchanger circulates, and a heating medium-air heat exchanger causing the heating medium to absorb heat by exchanging heat between the air and the heating medium circulating through the first heating medium circuit. The heating medium heated in the high-pressure side heat exchanger is capable of being introduced to the first low-pressure side heat exchanger.

A light-emitting diode includes a circuit board, a pair of electrodes provided on the circuit board, at least one light-emitting diode element electrically connected to the pair of electrodes, a central electrode for heat-dissipation, provided between the pair of electrodes on the circuit board, and a heat-dissipation plate disposed on the central electrode for heat-dissipation and including a reflection surface. The central electrode for heat-dissipation includes an upper central electrode disposed on the upper surface of the circuit board and a lower central electrode disposed on the lower surface of the circuit board and the upper central electrode thermally connected to the lower central electrode.

A projector includes a cooling device cooling a liquid crystal panel. The cooling device includes a heat receiving part receiving heat of the liquid crystal panel, a Peltier device having a heat absorbing part that absorbs the heat of the heat receiving part and a heat generating part that generates heat when the absorbing part absorbs heat, a heat sink provided so that heat may be transferred to the heat generating part, and a heat pipe containing a hydraulic fluid inside, in which heat is transferred by convection of the hydraulic fluid. The heat sink has a stacking part superimposed on the Peltier device and a projecting part projecting from the Peltier device as seen from the Peltier device side, and the heat pipe has an interior part located between the Peltier device and the stacking part and an extending part extending along the projecting part.

The invention relates to a high-temperature flue gas waste heat recovery and dust extraction all-in-one device. The high-temperature flue gas waste heat recovery and dust extraction all-in-one device comprises furnace connectors, material filtering beds, a left wind passing unit, a right wind passing unit and a four-way reversing valve, wherein the furnace connectors and the material filtering beds are connected with air flues on the two sides of a high-temperature kiln. Each wind passing unit comprises an upper wind opening, the corresponding low-temperature area material filtering bed, a low-temperature area frame, the corresponding high-temperature area material filtering bed, a high-temperature area frame, the corresponding furnace connector, a dust collection box and an ash outlet with movable partition plates from top to bottom. Each material filtering bed comprises accumulated ceramic balls. The high-temperature flue gas waste heat recovery and dust extraction all-in-one device allows filtration and ash removing to be conducted in a mode that the leftward direction and the rightward direction are switched in a timed mode and filtration and ash removing are periodically and alternately conducted, and allows ash removing and heat absorption to be achieved in a mode that high-temperature flue gas from one side passes through the corresponding material filtering beds from bottom to top so that filtration and heat accumulation can be achieved, and air from the other side reversely blows the corresponding material filtering beds from top to bottom so that ash removing and heat absorption can be achieved. The ash-laden gas flue can be unceasingly filtered, waste heat in the high-temperature gas flue can be unceasingly recovered, meanwhile, function regeneration and fresh air preheating can be simultaneously conducted, cooling and dirt removing of the high-temperature flue gas are achieved, and combustion efficiency is improved.

A fuel storage and distribution system for a gas-fueled sea-going vessel comprises a tank room that constitutes a gastight space enclosing tank connections and valves associated with them. A part of a refrigeration or air conditioning circuit reaches into said tank room. A first local heat transfer circuit is configured to receive heat from said part of the refrigeration or air conditioning circuit in said tank room and arranged to transfer such received heat to liquefied gas fuel handled in said fuel storage and distribution system.

The invention relates to the technical field of AC asynchronous motors, and discloses an AC asynchronous motor with good heat dissipation effects and high stability. The motor comprises a motor body,a rotating shaft is fixedly installed on the output shaft of the motor body, uniformly distributed heat dissipation sheets are fixedly connected to the outer wall of the motor body, and a support block is fixedly connected to the bottom of the motor body. According to the invention, by setting the heat dissipation sheets, compared with the conventional conditions, each heat dissipation sheet comprises an arc-shaped heat dissipation groove, so the heat dissipation area is increased and heat dissipation efficiency is quite high; by setting a water cooling tank and an internal water cooling bottle, when the motor speed is too high, the cold water in the water cooling bottle can effectively absorb heat, and all the heat dissipation sheets are uniformly distributed on the exterior of the motorbody in a circular arc shape, and the brush is periodically dialed back and forth and under the functions of a first sliding slot and a sliding rod, the brush will clean the dust on the surfaces of the heat dissipation sheets to prevent heat accumulation; and the motor has a simple structure, and can effectively dissipate heat.

A thin film magnetic head includes a slider, at least one inductive type electromagnetic conversion element and a thermal diffusion film. The inductive type electromagnetic conversion element includes a first magnetic film, a second magnetic film, a gap film, a coil film and an insulating film which are supported by the slider. The coil film is embedded in the insulating film. The thermal diffusion film is made of a metallic film, and disposed in the heat transmission path from the coil film toward the slider.

The present invention relates to a thermal spreading sheet with superior ductility and strength, and a method for manufacturing the same. One method for manufacturing the thermal spreading sheet according to the present invention comprises the steps of mixing graphite powder and binder; and applying the mixture of graphite powder and binder onto the surface of a reflective sheet to form the thermal spreading sheet with a predetermined thickness. The binder is preferable to contain polyurethane, acrylic or silicon. And, the mixture of graphite powder and binder is preferable to contain copper or silver. Another method for manufacturing the thermal spreading sheet according to the present invention comprises the steps of adding an acrylic resin into a fine graphite particle to form a nano-composite; and compressing the nano-composite at a high temperature. The method for manufacturing the thermal spreading sheet further comprises the step of adding a resin having high thermal conductivity into the nano-composite.

In this motor drive device, a motor case which stores a motor and a controller case which stores a controller of controlling the motor are unitarily coupled to each other in a direction of the rotating shaft of the motor. In addition, a connection portion for an external connector included in the controller is also provided in the direction of the rotating shaft of the motor. Such a structure achieves a small and compact structure which can be connected in the direction of the rotating shaft.

An integrally formed multi-layer light-emitting device is provided, which includes a seat, a plurality of light-emitting elements, and two lead frames. The seat is integrally formed in such a manner that the light-emitting elements can fit in the chamber which is formed on the top portion of the central main body. The seat is made of metal, and thereby the seat can effectively absorb heat from the light-emitting elements, and rapidly transmit it to the surrounding environment. Therefore, the packing module is not needed to be used in the present invention so that the consumption of the package material is reduced, and the manufacturing process is simplified.

Disclosed is a wire harness including at least one conductive path, and an exterior member that accommodates and protects the conductive path. The exterior member is a molded resin component made of a resin material which has a black color or a dark color close to the black color.

A heat absorbing device including a structure including plural individual cells delimited by an envelope made of a material that has good thermal conductivity and includes at least one phase-change material, the cells being stacked on top of one another from an end surface so that the structure extends in a direction of thermal flux, the flux being made up of two notable periodic thermal events, the structure including two different sizes of cells. The sizes of the cells are determined as a function of frequency of the thermal events of the thermal flux and a distribution of a number of cells of each size is determined as a function of amplitudes of each event.