562results about How to "To achieve the purpose of heat dissipation" patented technology

The invention provides a modified acrylate heat-dissipation powder coating material which is prepared in a way that heat-dissipation agent is dispersed in a monomer solution, subjected to in-situ polymerization and then treated through desolventizing agent, wherein the weight ratio of the heat-dissipation agent to monomer is (1-25) to (7.5-9); the heat-dissipation agent comprises 82-90 percent of carbon fiber and 10-20 percent of nanometer material; and the monomer is one or more of styrene, methacrylic acid, glycidyl ester, acrylic acid-2-ethyl hexyl ester, methyl methacrylate and methyl acrylate. According to the invention, as the heat-dissipation coating material dispersed uniformly and added with the carbon fiber and nanometer material compound heat-dissipation particles is obtained by adopting solution in-situ polymerization, the heat transmission efficiency and the heat dissipation efficiency can be increased; and the heat-dissipation coating material can be coated as a heat-dissipation coating on the surface of a back plate of an LED LCM (liquid crystal model) to dissipate part of the heat generated by LEDs in a infrared radiation manner, so that the heat dissipation performance of the LED LCM is enhanced, and the heat dissipating capacity and the heat dissipation efficiency are improved in the same heat dissipation area.

The invention discloses a recycling high-efficiency heat-radiating battery device for electric vehicles. A plurality of symmetrically distributed single battery modules which are formed by sleeving single batteries into battery shells are arranged in a battery module box, phase change material is filled between the single batteries and the battery shells, gaskets are respectively arranged among the battery module box, flanges and the connecting parts of the single battery modules, the flanges and the single battery modules are fixedly connected with the battery module box by screws, both sides of the battery module box are respectively provided with a cooling liquid inlet and a cooling liquid outlet, liquid which flows from the cooling liquid inlet and the cooling liquid outlet is normal-temperature water in the battery module box, both ends of an electrode connecting pole are respectively connected with a battery anode and a battery cathode. The recycling high-efficiency heat-radiating battery device not only can effectively reduce the temperature of the whole battery device of an electric vehicle battery in a harsh thermal environment, but also can satisfy the temperature distribution balance among single batteries, is easy to recycle to achieve an optimal running condition, reduce cost and enhance economical efficiency.

The invention relates to a flexible fiber spiral line demisting device, which solves the problems that the existing demising device has low demisting efficiency, the filter type demister is easy to block and the static demister is high in cost and large in occupied area and is corroded and scaled. According to the technical scheme, the flexible fiber spiral line demisting device comprises a gas inlet, a gas outlet and an exhaust cylinder of a liquid discharge pipe, wherein a motor is arranged on the vertical center line of the upper section of the exhaust cylinder; a rotating shaft of the motor is sleeved with a shaft sleeve; at least one layer of disc is arranged in the axis direction of the shaft sleeve; flexible fiber spiral lines are arranged on the disc; the flexible fiber spiral lines comprise a plurality of warps; one end of each warp is connected to the disc uniformly and the other end of each warp is a free end. The flexible fiber spiral line demisting device has the advantages of low resistance, high efficiency, no occupied area, no corrosion, no scaling and blockage, large flue gas treatment quantity, simple structure, light weight, low energy consumption and low cost.

The invention provides a refrigerator which comprises a refrigerant circulation type refrigerating system, a storage chamber and an ice-making device arranged in the storage chamber. The ice-making device comprises an ice-making box and semiconductor chilling plates with first temperature varying surfaces and second temperature varying surfaces, wherein the semiconductor chilling plates are configured to be controlled to provide cold through the first temperature varying surfaces for ice making in the ice-making process, and the refrigerant circulation type refrigerating system is configured to be controlled to provide cold to the second temperature varying surfaces to cool the second temperature varying surfaces in the ice-making process. According to the refrigerator, due to the fact that in the ice-making process, the cold ends of the semiconductor chilling plates are used for providing ice-making cold for the ice-making box, and meanwhile the refrigerant circulation type refrigerating system is used for cooling the heat ends of the semiconductor chilling plates, the cold ends of the semiconductor chilling plates can reach lower temperature, and therefore fast ice making is achieved.

A provided excellent cell module with heat-radiation capability comprises a plurality of cell units and a cell box accommodating the cell units; the cell box is filled with a phase-change material; the cell box is provided with an outlet and an inlet of the phase-change material; the exterior of the cell box is provided with a circulation pipe, and the circulation pipe connects the outlet and the inlet of the phase-change material for forming an enclosed system; and the employed phase-change material is an insulative flame-retardation electrolysis-resistant thermolysis-resistant phase-change material. By employing the technical scheme, without changing the arraying state and the electrical structure of the cell unit, the heat-radiation demands of the cell module can be completely satisfied under the premise of relatively high energy density.

The present invention discloses an active and passive switchover type radiating system, which can be used in notebook computer. It includes the following several portions: an operation system and its power supply management device, a basic input/output system, an embedded controller and an interface created between said basic input/output system and said embedded controller. Said invention also provides the concrete action of the above-mentioned every portion and concrete working principle of said switchover type radiating system. Said active and passive switchover type radiating system can make notebook computer not only have the good radiating function, but also have high energy-saving effect.

A heat dissipation structure, a remote control device, and a drone set are used to provide closed heat dissipation, and avoid contact with heat generating devices such as dust and water vapor, so as to effectively reduce adverse effects such as dust and moisture on the heat generating device. The heat dissipation structure is disposed on the heat generating device, and may include: a first heat sink (1), a second heat sink (2), and a heat dissipation fan (3); the first heat sink (1) and the second heat sink (2) are formed to have a a closed cooling air duct (6) for the air inlet (4) and the air outlet (5); a cooling fan (3) for the cooling air duct (6), and a cooling fan (3) for the cooling air duct (6) The inlet airflow of the air inlet (4) is discharged to the air outlet (5).

The invention discloses a heat dissipation device for a new energy battery. The device comprises a battery protection cover and a heat dissipation system, a plurality of adjusting abutting shafts connected with a supporting plate are arranged on the battery protective cover; a plurality of small rolling balls are embedded in the supporting plate; the side edge of the bottom of the supporting plateis connected with an air cylinder through a telescopic shaft. The air cylinder is fixedly installed on the inner side edge of the battery protective cover and located below the adjusting abutting shaft, a function adjusting cavity is formed below the air cylinder, a push plate, a thermal expansion air bag and a baffle are installed in the function adjusting cavity, and the two ends of the baffleare connected with a side plate of the battery bottom containing cavity and the inner side wall of the battery protective cover correspondingly; the heat dissipation system comprises fans installed onthe two side edges of the exterior of the battery protection cover, air pipes communicating with the fans and the air collecting pipes and a plurality of heat dissipation air outlet pipes, the multiple heat dissipation air outlet pipes are evenly embedded in the periphery of the interior of the battery protection cover and communicate with the air collecting pipes through connectors, and a plurality of ventilation holes are formed in the heat dissipation air outlet pipes.

The invention discloses an external heat-dissipating computer host case, which includes a box body, a fixing plate is arranged in the box, and the upper surface of the fixing plate is fixedly connected with the lower surface of a first driving device through a fixing rod. The left side of the first driving device is fixedly connected to the right end of the first connecting rod, the lower surface of the first connecting rod is fixedly connected to the upper surface of the extruding block through the second connecting rod, and the lower surface of the extruding block It is overlapped with the upper surface of the extruding plate, and the lower surface of the extruding plate is fixedly connected with the upper surface of the second driving device through a slide bar. The external heat dissipation computer mainframe chassis, through the first motor, turntable, first connecting rod, second connecting rod, extruding block, extruding plate, sliding rod, sliding sleeve, telescopic rod, spring, second motor and fan The mutual cooperation between the leaves achieves the purpose of cooling the computer mainframe, thereby ensuring the service life of the mainframe and facilitating the work of the staff.

The invention provides power battery box of an electric car and the electric car. The battery box comprises a battery box cover, a battery box body, a temperature control module and a battery array; the battery array is fixedly arranged in the battery box body, the battery array consists of a plurality of battery modules, and a gap is formed between every two adjacent battery modules; the temperature control module comprises a circulating pipeline, a fixed plate and a heat radiation array consisting of cooling fins, each cooling fin is fixedly arranged on the fixed plate by virtue of the circulating pipeline, and the fixed plate is arranged on the battery box cover; the circulating pipeline is used for transmitting heat conduction fluid medium; each cooling fin is inserted between the corresponding battery modules by virtue of the gap and contacts the corresponding battery modules so as to cool the corresponding battery modules. According to the electric car power battery box and the electric car, the cooling fins of the temperature control module are arranged in the gaps of the battery modules, so that a purpose of controlling the temperature of the battery box can be achieved, the structure is simple, and the temperature adjusting efficiency is relatively high.

The invention belongs to the field of 3D printer structure design and relates to a continuous fiber reinforced composite material 3D printer sprayer device of an integrated structure. As for the device, composite material fiber yarn which is well treated in advance is integrally printed through a matrix/supporting material printing device and a fiber printing device, specifically, the composite material fiber yarn is formed by wrapping the periphery of fiber yarn (such as glass fibers and carbon fibers) with a thermoplastic material (such as PLA, ABS and nylon), the matrix/supporting materialprinting device undertakes the matrix and supporting material printing task, the fiber printing device undertakes the composite material fiber yarn printing task, and in the whole printing task, the matrix/supporting material printing device and the fiber printing device perform printing alternately on schedule till completing printing.

The invention discloses an efficient heat dissipation device for a computer mainframe structure. The device comprises a box body, a partition board is fixedly connected to the portion between the bottoms of two sides of the inner wall of the box body, and an exhaust fan, a water tank, a drying oven and a motor are fixedly connected to the bottom of the inner wall of the box body from left to right in sequence; a first bevel gear is arranged on the output shaft of the motor in a sleeving mode, a first rotating rod is rotatably connected to the right side of the bottom of the inner wall of the box body through a bearing, and a second bevel gear is arranged on the surface of the first rotating rod in a sleeving mode; the surface of the second bevel gear is meshed with that of the first bevel gear. The invention relates to the technical field of computers. According to the efficient heat dissipation device for the computer mainframe structure, continuous rotation, air jetting and cooling are conducted on a computer mainboard, the aim that a computer mainframe is subjected to all-sided cooling is achieved, it is guaranteed that the computer mainboard cannot cause abnormal use of the computer due to the overheating mainboard caused by incomplete cooling, and the actual service life of the computer mainboard is guaranteed.

A motor of shaft cooling type is prepared as setting hollow portion at internal of motor shaft to form hollow motor shaft, sealing blade end of motor shaft to sealed end and setting another end of motor shaft to be hollow end, arranging one or multiple through hole at fixing position of blade and motor shaft, connecting said through hole to hollow portion of motor shaft and air guiding space of blade for making air at hollow portion of motor shaft flow continuously so as to achieve purpose of heat radiation.

The invention discloses a portable face recognition system which includes a mounting seat and a face recognizer. A first slot is formed in the front side of the mounting seat, the face recognizer is located in the first slot, and the rear side of the face recognizer is fixedly connected to the inner wall of the side, away from an opening of the first slot, of the first slot. A collection slot withone side in opening arrangement is formed in the bottom of the mounting seat. A plurality of first heat dissipation holes are formed between the inner wall of the front side of the collection slot and the inner wall of the side, away from the opening of the first slot, of the first slot. The portable face recognition system is reasonable in design and convenient to operate, the face recognizer can be stably supported, after use, a vertical plate and two supporting legs can be conveniently collected, multi-level collection is achieved, the total size is reduced, occupied space is saved, the purpose of being easy to carry is achieved, the vertical plate and the two supporting legs can be conveniently fixed after collection, so that the phenomenon that the vertical plate rotates out of the collection slot during transportation is avoided, and using is facilitated.

The invention discloses a liquid-cooling VPX cabinet efficient heat-dissipation device and method based on a vapor chamber. The heat-dissipation device comprises the vapor chamber, upper and lower liquid cooling plates, lockers, a liquid cooling pipeline and connectors. Heat of VPX board cards is transmitted to the upper and lower liquid cooling plates arranged at the upper and lower positions of a VPX cabinet through the vapor chamber; the vapor chamber makes contact with the liquid cooling plates through the lockers, and a certain pressing force is generated; and through the contact surface, the heat is transmitted to the liquid cooling plates. According to the heat-dissipation method, the heat of the VPX board cards is transmitted to the liquid cooling plates through the vapor chamber, and the equivalent thermal conductivity of the vapor chamber reaches 2000 W/m.K. Through the efficient liquid cooling plates, the heat-dissipation capability of which reaches 30-100W/cm<2>, heat-dissipation requirements of the VPX board cards, the heat flux density of which is more than 100 W/cm<2> can be met.

The invention provides a water cooling system for an LED display module and the LED display module. The water cooling system comprises a heat exchange pipe arranged on an LED backlight source. The heat exchange pipe is connected with an inlet of a water pump inlet. An outlet of the water pump is connected with a first master pipe. At least one branch pipe is arranged on the first master pipe. The branch pipe is provided with cooling fins, and passes through the cooling fins to be connected with a second master pipe. The second master pipe and the first master pipe are arranged opposite to each other. The second master pipe is connected with the heat exchange pipe to form a flow loop. Water-cooling liquid is filled in the heat exchange pipe. The invention further provides the LED display module. The display module comprises a backlight board and the water cooling system for the LED display module. Compared with the prior art, through the arrangement of the water cooling system behind the backlight board, the water heated by the LED backlight source is pumped to pass through the heat exchange pipe to enter the first master pipe, and then passes through cooling fin tubes where the heat of the water-cooling liquid is exchanged, thus the flow loop is formed to achieve the goal of cooling.

The invention is applicable to the electricity field, and provides a temperature adjusting device, a temperature adjusting method and a mobile terminal. The temperature adjusting device comprises a power management unit PMU, an integrated circuit IC, a semiconductor refrigerator TEC and a temperature detection module, wherein the TEC is integrated in the IC, the temperature detection module is respectively connected with the PMU and the IC, the PMU is further connected with the TEC, and the temperature detection module is used for detecting internal temperature of the IC; the PMU is used for acquiring the internal temperature of the IC through the temperature detection module, and outputs a reverse current to the TEC so that the TEC start refrigeration when the internal temperature is higher than a set threshold value; and the TEC is used for starting refrigeration when the current flowing through the TEC is a reverse current. The temperature adjusting device is small in size and light in weight, does not occupy extra space, can achieve the radiating purpose, ensures that the IC operates at reasonable temperature, and prolongs the service life of the IC, thereby prolonging the service life of the mobile terminal comprising the temperature adjusting device; the closed-loop temperature control can be achieved; and the temperature adjusting device has the advantages of having no motion device and no noise, and being high in operational reliability.

The invention discloses a mobile cooling device for a power cabinet, comprising a box body, a box door, a walking wheel, an angle adjusting device, a height adjusting device, a solar panel, a light sensor, louver devices, a top plate, a controller, and a battery. The box door is disposed on the box body and is hinged to the box body. The walking wheel is fixedly disposed on the bottom of the box body. The louver devices are disposed on the two sides of the box body and are fixedly mounted on the side walls of the box body. The solar panel moves with the sun and can capture the solar energy inall directions in real time so as to operate in an optimal state. Thus, the working efficiency of the solar panel is ensured. The louver devices on both sides of the box body ventilates the power cabinet to dissipates the heat generated by the power equipment inside the power cabinet in operation so as to achieve a cooling effect while reducing the consumption of electric energy.

A heat dissipation control method is applied to multiple server cabinets. Each server cabinet is provided with multiple servers inside, multiple fan modules are used for dissipating heat of the server cabinets. The heat dissipation control method includes the following steps that the value of currents, output to the corresponding server cabinet, of each power source output end is detected; parameters of a corresponding control signal are obtained according to the values of the currents output by the power source output end; the control signal corresponding to the parameters is output to the corresponding fan module. According to the heat dissipation control method, the defect that rotating speed of corresponding fans is controlled through temperature sensors, so that manufacturing cost for the servers is increased is avoided. The invention further provides a heat dissipation control system.