1336 results about "Heat conducting" patented technology

The invention relates to the technical field of temperature control, in particular to an enzyme reaction kettle self-adaptive temperature control system and method, and the system comprises a temperature detection module, a temperature control module, a heat conduction oil flow control module and an automatic regulation and control module; temperature data of a reaction kettle are collected in real time through a temperature detection module, a temperature control module adjusts parameters based on a PID algorithm and fuzzy logic to generate a control instruction, and a heat conduction oil flow control module adjusts flow by combining double-closed-loop cascade control with a feedforward compensation algorithm, so that thermal inertia lag is shortened. And the automatic regulation and control module generates optimized process parameters based on a reaction kinetic model and a genetic algorithm, and dynamically adjusts a temperature set value. The control method comprises the steps of temperature data acquisition, PID control instruction generation, conduction oil flow coordinated regulation, process parameter optimization and the like. The problems that in the prior art, temperature control precision is insufficient, conduction oil flow control is not accurate enough, and technological parameters cannot be automatically regulated and controlled are solved.

The invention relates to an electrical / electronic component (10) for a motor vehicle, comprising a housing (12) enclosing a receiving space (14), at least one electrical or electronic component (16) which is received in the receiving space (14), a heat conducting element (18) which is arranged on a surface of the component (16) to be cooled and is designed to conduct heat away from the component (16), and a coolant guide device (20) which is configured to guide a dielectric coolant (22) to the heat conducting element (18), whereby the heat conducting element (18) can be exposed to and surrounded by the coolant (22), whereby heat can be transferred from the heat conducting element (18) to the coolant (22).

The invention discloses a protective adhesive film for sealing and testing a semiconductor and a preparation method of the protective adhesive film, and relates to the technical field of adhesives. The protective adhesive film is obtained by taking a modified acrylate monomer as a main body, taking a synthetic product of 2-hydroxypyridine and methacryloyl chloride as a modifier, taking trimethylolpropane triacrylate as a cross-linking agent and adding maleic anhydride modified modified chitosan and modified polyimide in a polymerization film forming process. The modified acrylate monomer is obtained by taking graphene oxide modified by vinyl trimethoxy silane and hollow glass beads modified by methacryloxy propyl trimethoxy silane as heat conducting fillers; the modified polyimide is obtained by adding a boron nitride nanosheet modified and acidified by amino acrylic acid as a heat-conducting reinforcing filler into a polyimide prepolymer and then carrying out imidization. The mechanical property, heat conduction efficiency and low-temperature brittleness of the protective adhesive film can be improved.

The utility model provides a heat conduction structure and a molten salt reactor cabin. The heat conduction structure comprises a first pipeline, a heat conduction layer and at least one heat pipe, the first pipeline is provided with a first end face and a second end face at two ends; the heat conduction layer is arranged on the periphery of the first pipeline from the first end face in the length direction of the first pipeline. The heat conduction layer is shorter than the first pipeline; a plurality of channels are formed in the end face of the side, away from the first end face, of the heat conduction layer in the axial direction of the heat conduction layer. Two ends of the heat pipe are closed; one end of each heat pipe is arranged in the channel, and the other end of each heat pipe faces the second end face, so that the part, located in the heat conduction layer, of each heat pipe serves as a condensation section, and the part, not located in the heat conduction layer, of each heat pipe serves as an evaporation section in the working state. Fused salt freezing blockage in the fused salt pipeline can be effectively prevented, and the temperature uniformity of the fused salt pipeline is improved; and the dismounting difficulty of the molten salt reactor cabin through-wall pipeline can be reduced, so that the heat conduction structure is easy to maintain, and the safety and the reliability of the molten salt reactor cabin are improved.

The invention discloses a heat conduction type heat dissipation cable, and relates to the technical field of heat dissipation cables, the heat conduction type heat dissipation cable comprises a central capillary main pipe, a plurality of conductor strands are arranged on the outer side of the central capillary main pipe, a heat dissipation ring is arranged on the other side of each conductor strand, and a plurality of first heat dissipation holes are integrally formed in the heat dissipation ring; according to the invention, heat generated by the conductor strands is quickly transmitted through the heat conducting column, and the magnetic conductive sheet and the magnetocaloric material sheet are matched to generate magnetocaloric effect by utilizing magnetic field intensity fluctuation caused by current change: when the current is increased, heat is released to strengthen evaporation of a working medium, and when the current is reduced, heat is absorbed to directly cool, so that a self-adaptive heat adjusting mechanism is formed; heat can be quickly transferred through evaporation-condensation of low-boiling-point fluid through phase change circulation of the central capillary main pipe and the branch capillary pipes, and multi-path heat dissipation of the heat dissipation ring and the fins is combined, so that the heat dissipation efficiency under different current loads is improved, and the problem of local overheating is effectively avoided.

The utility model provides a heating assembly and an aerosol generating device, the heating assembly comprises a supporting tube, the supporting tube comprises a heat resistance area and a heat conduction area, and the heat resistance area is used for blocking heat conduction of the adjacent heat conduction area; the heating coating is arranged on the outer surface of the supporting pipe and covers the heat resisting area and the at least one heat conduction area. According to the application, the heat resistance area is arranged, so that heat transfer can be slowed down, and heat is concentrated in the preset area; meanwhile, as the heat resistance area is arranged on the supporting pipe, a heat resistance structure does not need to be machined at the heating coating, the heating coating can be of a complete coating structure, and microcracks formed at the heating coating due to machining can be avoided. In addition, the complete coating structure has a complete layered structure, and the compression resistance is higher.

The invention belongs to the technical field of graphite metal composite heat dissipation devices, and provides a flexible graphene film heat conduction cable and a preparation method thereof.The preparation method comprises the steps that the surface of a graphene film is cleaned and punched, and the graphene film with micron-sized pores in the surface is obtained; sequentially plating a layer of active metal film and a layer of heat-conducting metal film on the surface of the graphene film, and cutting to obtain a graphene film; graphene films are overlaid layer by layer to obtain a laminated material, and the two ends of the laminated material are clamped to a hot-pressing mold to be subjected to hot-pressing welding treatment, so that a locally connected flexible heat conduction section is obtained; and the flexible heat conduction section and the heat conduction metal shell are assembled, a soldering lug is placed for brazing and finish machining, and the flexible graphene film heat conduction cable is obtained. According to the method, the internal connection problem of the flexible section is solved by establishing a synergistic process of surface punching, double-layer coating and hot pressing, the heterogeneous connection problem of the flexible section and the shell is solved in a manner of sampling coating and brazing, and through the synergistic effect of all links, the overall performance and reliability of the heat-conducting cable are remarkably improved.

The invention discloses a surface scraping type energy storage heat exchanger and a working method thereof, and relates to the technical field of energy accumulators, the surface scraping type energy storage heat exchanger comprises a heat exchanger body and a heat exchanger support, and the heat exchanger body comprises a heat exchanger outer shell, a heat exchanger inner shell, a heat production device, a stirring device, a surface scraping device, a pressurizing device and a protective net; a heat exchange sealed space is formed between the heat exchanger outer shell and the heat exchanger inner shell, a heat transfer working medium inlet and a heat transfer working medium outlet are formed in the heat exchanger outer shell, and a heat conduction medium and a phase change material are contained in the heat exchanger inner shell. The pressurizing device is used for pressing the phase-change material in the solid phase, and the surface scraping device is used for scraping the phase-change material which is attached to the inner wall of the heat exchanger inner shell and becomes the solid phase. The heat transfer efficiency during heat absorption and heat release can be improved, the energy storage efficiency is improved, and the actual use requirement that a heat source is a solid heat flow boundary with a fixed heat load and a fluid temperature boundary with a fixed temperature can be met.

The utility model relates to a heat dissipation device, in particular to a double-layer heat dissipation device for an electronic device, which comprises a fixed frame. The mounting frame is fixedly mounted on the fixed frame; a plurality of groups of air inlets are formed in the fixed frame; a plurality of groups of exhaust ports communicated with the air inlet are formed in the mounting frame; a heat conducting plate is fixedly mounted on the fixed frame; a heat dissipation structure is arranged on the mounting frame; the heat dissipation mechanism comprises a plurality of groups of fan blades; a corner structure is arranged on the mounting frame; the corner structure can drive the fan blades to deflect when the heat dissipation structure acts. The fixed frame is provided with a movable contact; a static contact is arranged on the mounting frame; a temperature sensing structure is arranged on the heat conducting plate and can drive the movable contact to be close to or far away from the static contact so as to change the action state of the heat dissipation structure; the temperature sensing structure can monitor the temperature change on the heat conducting plate in real time without delay, and the anti-interference capability is high.

An optical transceiver includes a case including a heat sink, one or more heat generating bodies disposed in the case, one or more heat conducting portions protruding from an inner wall surface of the case and thermally contacting the one or more heat generating bodies, and a heat pipe that transfers heat from the one or more heat conducting portions to the heat sink.

The invention discloses an intelligent temperature control anti-crystallization magnetic turning plate liquid level meter and a solution storage tank, the equipment comprises a measuring cylinder, the outer side of the measuring cylinder is sleeved with a constant-temperature jacket, the constant-temperature jacket is internally provided with a constant-temperature cavity, and the constant-temperature cavity is filled with a heat-conducting medium; the floater is connected into the measuring cylinder in a sliding manner, and a corrosion-resistant coating is arranged on the floater; the pull rod is also slidably connected in the measuring cylinder, the bottom of the pull rod is connected with a scraping plate, and the scraping plate is located above the floater and abuts against the inner wall of the measuring cylinder; the turning plate is arranged on one side of the measuring cylinder, and the end part of the turning plate extends into the measuring cylinder and is movably connected with the scraping plate; the remote transmission rod is arranged on one side, close to the measuring cylinder, of the turning plate; the circulating liquid upper communicating pipe is arranged on one side of the top of the measuring cylinder; the circulating liquid lower communicating pipe is arranged on one side of the bottom of the measuring cylinder; the conical crystal collecting tank is arranged below the measuring cylinder, a vibration motor and a urea solution lower communicating pipe are arranged on the conical crystal collecting tank, and a pressure transmission is arranged on the urea solution lower communicating pipe.

The application provides a micro-channel reactor, which comprises a reactor shell, a plurality of material inlets arranged on one side of the reactor shell and connected with each other, a material outlet arranged on the other side of the reactor shell, a reaction micro-channel arranged in the reactor shell and connected with the material inlets and the material outlet, an upper heat preservation plate and a lower heat preservation plate arranged on the reactor shell, a cavity formed between the upper heat preservation plate and the lower heat preservation plate, the reaction micro-channel being arranged in the cavity, a heat conducting medium inlet arranged on the upper heat preservation plate and connected with the cavity, and a heat conducting medium outlet arranged on the lower heat preservation plate and connected with the cavity. The micro-channel reactor can effectively improve the mass transfer and heat transfer efficiency, improve the fluid mixing degree and efficiency, and can change the flow channel structure according to the reaction type and the material type, and has wide adaptability and practicability.

The utility model belongs to the technical field of crucibles, and particularly relates to a perovskite evaporation source crucible assembly which comprises a quartz crucible with an opening at one end, at least one heat conduction piece arranged in the quartz crucible and a filtering piece arranged in the quartz crucible and located above the heat conduction piece. And the filtering piece covers the upper opening of the quartz crucible. According to the utility model, through the arrangement of the honeycomb-shaped heat conduction member and the filtering member, the original perovskite raw material is easier to volatilize, the loss of heating power is reduced, the time for stabilizing the deposition rate is shortened, and the large-scale mass production is facilitated; the filter screen is additionally arranged, so that raw materials are more conveniently prevented from splashing to pollute other raw materials, large blasting-boiling particles can be filtered out and splashed to a substrate in the evaporation process, a film layer grows finer and smoother, the quality is better, and defects caused to the film layer are avoided.

The invention belongs to the technical field of coating preparation, and provides an anti-condensation and anti-icing self-cleaning coating for a high-voltage transmission line and a preparation method of the anti-condensation and anti-icing self-cleaning coating. After the coating is cured, a bottom coating, a middle functional layer and a surface coating which are sequentially arranged from inside to outside are formed on the surface of a wire, the bottom coating is a hybrid bonding layer composed of silane and inorganic components, and the middle functional layer takes a siloxane elastomer as a continuous phase; the middle layer contains phase change microcapsules, light absorption particles, insulating heat conduction filler, core-shell dielectric particles and a low-surface-energy fluid phase, the dielectric particles are enriched in the interface area of the middle layer and the surface coating, and the surface coating is a low-modulus siloxane elastomer, contains a graded coarse structure formed by hydrophobic modified nano particles and micron particles and contains a low-surface-energy migration component; the coating has the comprehensive performance of condensation resistance, icing resistance and self-cleaning.

The invention relates to the technical field of waste heat recovery, and particularly discloses a waste heat recovery device of a steam boiler, the waste heat recovery device comprises a boiler body, the top of the boiler body is provided with a flue pipe, a fixed pipe, a heat recovery assembly and a discharge pipe, and the flue pipe is fixedly communicated with the top of the boiler body; flue gas enters the chimney through the flue pipe and the fixed pipe and then exchanges heat with the multiple sets of heat conducting plates, and heat is transmitted to runners of the chimney and the movable cylinder and runners of the movable cylinder and the fixed cylinder through the heat conducting plates to heat combustion air introduced into the runners of the fixed cylinder and the movable cylinder through the air inlet pipe. The boiler feed water is introduced into a movable barrel and a smoke barrel flow channel through a water inlet pipe, contact between smoke and the plate face can be enhanced through rotation of a heat conduction plate, the heat transfer area is increased, the waste heat recovery efficiency is improved, and heat loss is reduced; meanwhile, the air flow channel is arranged on the outer side of the water flow channel, heat dissipated in the water flow heating process can be reutilized, and the waste heat utilization efficiency and the recovery effect are further improved.

The application provides a compressed carbon dioxide energy storage system coupling low-temperature molten salt and direct air carbon capture, and relates to the field of energy storage, comprising: a carbon dioxide gas bag, the outlet gas of which is compressed by a carbon dioxide compressor unit, cooled by a subcooler to form liquid carbon dioxide, and sent to a high-pressure liquid carbon dioxide storage tank for storage, the compression heat generated in the carbon dioxide compression process is stored in a hot water tank in the form of hot water; the liquid carbon dioxide output by the high-pressure liquid carbon dioxide storage tank is sequentially passed through a preheater, a primary heater, a primary carbon dioxide turbine, a secondary heater, a secondary carbon dioxide turbine, and then the output carbon dioxide is cooled by a cooler and input into the carbon dioxide gas bag; an external molten salt device provides molten salt heat exchange for the heat conducting oil of the primary heater and the secondary heater; the outlet water of the hot water device provides heat for the regeneration process of a carbon capture device, and the outlet water of the carbon capture device is input into a cold water device. The application uses large-scale long-time energy storage technology to improve the heat utilization rate and peak capacity of a photothermal power station.

The utility model discloses a high-speed furnace for buffering heat transfer, which is characterized by further comprising a flow blocking ring and a bottom sealing plate, a ring-shaped supporting seat which protrudes upwards and is used for supporting a pot body is integrally formed on the outer edge of the top surface of a heat conducting disc, the ring-shaped supporting seat encloses the space above the heat conducting disc to form a heating cavity, the flow blocking ring is erected above the top surface of the heat conducting disc, and the bottom sealing plate is arranged on the bottom sealing plate. The heat conduction disc is provided with a plurality of blowing holes, the bottom sealing plate is fixedly installed at the bottom of the heat conduction disc, the bottom sealing plate is provided with an air inlet pipe hole, the bottom sealing plate divides the bottom space of the heat conduction disc into a cavity used for air circulation, the cavity is communicated with the bottoms of the blowing holes and the air inlet pipe hole, and the tops of the blowing holes are communicated with the heating cavity. The heat conduction disc is further provided with a plurality of assembling holes used for installing an ignition assembly, a fuel gas assembly and a flame-out protection device, and the air inlet pipe hole communicates with a gas supply device through a pipe body. Fuel can be effectively saved, and the heat energy utilization rate during fuel combustion can be effectively improved in a heat energy transmission buffering mode.

The invention relates to the technical field of medium recovery, and discloses a heat-conducting medium recovery system and a control method thereof. The recovery system comprises a negative pressure recovery loop, and in the negative pressure recovery loop, the input end of a first branch is connected with one end of target equipment, and the output end of the first branch is connected with a first gas-liquid separator; the input end of the second branch is connected with the top of the first gas-liquid separator, and a vacuum pump is arranged on the second branch; the upstream of the third branch is in heat exchange connection with the refrigerating loop, and the downstream of the third branch is provided with a second gas-liquid separator; the input end of the fourth branch is connected with the top of the second gas-liquid separator, a heater is arranged on the fourth branch, and the output end of the fourth branch is connected with the other end of the target equipment. According to the heat-conducting medium recovery system and the control method thereof, through closed negative pressure circulation, the loss of the heat-conducting medium in the recovery process can be reduced, and the pressure bearing risk of target equipment parts can be reduced.

The utility model relates to a water cooling type heat dissipation device and a water cooling plate thereof, the water cooling plate comprises a heat conduction seat, a first fin group and a second fin group, the first fin group is arranged on the heat conduction seat and comprises first fins, and a first branch flow channel is formed between any two adjacent first fins; the first fin group is arranged on the heat conducting seat, the second fin group is arranged on the heat conducting seat and located on one side of the first fin group, a main flow channel is formed between the first fin group and the second fin group, the second fin group comprises second fins, a second branch flow channel is formed between any two adjacent second fins, and the main flow channel is communicated with the first branch flow channel and the second branch flow channel; the first branch flow channel and the second branch flow channel are arranged in a staggered mode, and the width of the first branch flow channel and the width of the second branch flow channel are within 0.3 mm. Therefore, the time that the working fluid stays in the fluid cavity can be prolonged, and the heat exchange efficiency of the working fluid is further improved.

The invention discloses a vehicle-mounted lithium battery with built-in heat dissipation flow channels, and relates to the field of lithium batteries, the vehicle-mounted lithium battery comprises a lithium battery outer box, a plurality of lithium battery bodies are installed in the lithium battery outer box, and heat dissipation assemblies are arranged on the two sides of each lithium battery body; the heat dissipation assembly comprises a heat conduction plate, a middle flow channel is vertically formed in the middle of the interior of the heat conduction plate, a heat dissipation flow channel is vertically formed in the side portion of the interior of the heat conduction plate, a plurality of temperature sensing pieces are arranged on the side, close to the lithium battery body, in the heat dissipation flow channel, the temperature sensing pieces are attached to the inner side of the heat conduction plate, and a plurality of flow speed regulation and control channels are formed between the heat dissipation flow channel and the middle flow channel; according to the invention, a plurality of temperature sensing sheets are arranged in the heat conducting plate, so that the temperatures of different parts of the lithium battery are sensed in real time, and the flow velocity of a heat dissipation medium is accurately adjusted by using the flow velocity control assemblies, so that multi-region separated accurate temperature control is realized, the heat dissipation efficiency is improved, and local overheating is avoided; the battery performance and the service life can be effectively improved.

The invention belongs to the technical field of green buildings, and particularly relates to an intelligent regulation and control cold storage system for a green building. And a greening land is arranged on the roof. The ventilation pipe and the air guide pipe are cooled through the heat conducting plate arranged at the bottom of the water tank, heat exchange is conducted between all the air blocking pieces on the right portion of the air guide box and water in the water tank, and then airflow flows at the low flow speed and makes contact with all the air blocking pieces on the right portion of the air guide box; the air flow is cooled through all the air blocking pieces on the right side of the air guiding box, when the air flow flows through the ventilation pipe and the air guiding pipe, the temperature of the air flow is reduced, the air guiding pipe is blocked through the two air blocking pieces, air is blown to the surface of the roof through the exhaust pipe, and therefore heat of the roof is taken away through the cooled air flow; and therefore, the surface of the roof is cooled, the temperature of the surface of the roof is reduced, the indoor temperature can be reduced, and energy consumption is reduced.

The invention provides a phase change display array control structure based on thermal isolation. The phase change display array control structure comprises a phase change display pixel unit, an electric insulation heat conduction layer, a pixelated heating electrode, a thermal through hole structure, a thermal isolation dielectric layer and an addressing cross electrode layer. Non-conduction type thermal excitation is achieved through the electric insulation heat conduction layer, transverse diffusion of heat is limited through the thermal isolation dielectric layer, and thermal crosstalk is reduced. The pixelated heating electrode is combined with the thermal through hole structure and the addressing cross electrode layer to form a longitudinally-conducted addressing control path, and the pixel-level thermal response control precision is optimized; the electric insulation heat conduction layer is made of a high-heat-conductivity material so as to accelerate the crystallization process of the phase change material; and the thermal isolation dielectric layer is made of a low-thermal-conductivity insulating material and is used for improving the pixel resolution capability. The liquid crystal display device is compact in structure, efficient in performance and suitable for being applied to high-resolution, low-power-consumption and fast-response phase change display devices.

The utility model belongs to the technical field of electric shears, and discloses a high-heat-dissipation low-weight lithium electric shear which comprises a lithium electric shear body, first heat conducting pieces are fixedly installed on the inner wall of a handheld portion shell of the lithium electric shear body, and the first heat conducting pieces are distributed in an equidistant linear array mode in the length direction of the handheld portion shell. An arc-shaped notch attached to the outer wall of a motor in the lithium battery scissor body is formed in the first heat conduction piece, a mounting hole is formed in the upper end of the handheld part shell, a heat conduction plate is fixedly mounted in the mounting hole, the first heat conduction piece is connected with the heat conduction plate through a heat pipe, and an evaporation section of the heat pipe is connected with the first heat conduction piece. According to the lithium battery scissors, through the synergistic effect of various heat dissipation components such as the first heat conduction piece, the heat pipe, the heat conduction plate, the second heat conduction piece and the heat dissipation fan, heat generated by the motor can be rapidly dissipated to the outside, the temperature of the motor is effectively reduced, the service life of the motor is prolonged, and the stable working performance of the lithium battery scissors is guaranteed.

The utility model discloses electrothermal film radiation heating water storage heat supply equipment, which comprises a water storage tank, a first electrothermal film, a heat conduction part, a controller and temperature sensors, the heat conduction part is arranged at the bottom of the water storage tank, the first electrothermal film is fixedly connected with the heat conduction part, and the temperature sensors are arranged at different height positions in the water storage tank. The controller is connected with the first electric heating film and the temperature sensor, the temperature sensor collects temperature signals of different heights and transmits the temperature signals to the controller, the controller adaptively adjusts the heating power of the first electric heating film based on the temperature signals, and the water heating efficiency is improved through the heat conduction effect of the heat conduction component; the electric heating film and the heat conduction component are arranged at the bottom of the water storage tank, so that the heating area is greatly increased, the heating efficiency is improved, and the heating time is shortened.

The utility model belongs to the technical field of heating cables, and provides a temperature-sensing heat-conducting high-power insulating heating cable, which comprises three phases of power lines arranged in parallel; the insulating layer is arranged on the outer side of the three-phase power line; the inner protective metal layer is arranged on the outer side of the insulating layer; the temperature sensing test line is arranged on the outer side of the metal layer; the heat conduction wire is arranged on the outer side of the metal layer, and the heat conduction wire and the temperature sensing test wire are arranged in the circumferential direction of the outer wall of the inner protection metal layer; and the corrosion-resistant outer metal sleeve is arranged on the outer side of the temperature sensing test wire and the heat conduction wire. According to the utility model, the temperature sensing test line and the three-phase power line jointly form the temperature sensing heat conduction type high-power insulation heating cable, and the temperature sensing line and the heating cable are put into a well at the same time, so that whether the heating cable is abnormal or not can be intuitively judged through the temperature sensing test line, the accuracy of the heating cable in use is improved, and the operation is facilitated at the same time.

The utility model discloses a temperature measuring device for reactive compensation equipment, which comprises a compensation capacitor, the upper surface of the compensation capacitor is fixedly connected with an electrode contact, the front surface and the rear surface of the compensation capacitor are respectively provided with a second connecting band and a first connecting band, the lower surface of the first connecting band is fixedly connected with a first temperature sensor, and the lower surface of the first temperature sensor is fixedly connected with a second temperature sensor. The lower surface of the first temperature sensor is fixedly connected with a first flexible heat conducting sheet, the rear surface of the second connecting belt is fixedly connected with a second interlocking belt, the left side and the right side of the interior of the second interlocking belt are each provided with a plurality of second embedding grooves, and the inner surface of each second embedding groove is provided with a second embedding column; and the upper surface of the second embedding column is fixedly connected with a first interlocking belt. The first connecting band and the second connecting band play a role in fixing and supporting the compensation capacitor, so that the overall connection strength and stability of the equipment are enhanced, the temperature sensing component is ensured to always work normally, the reliability of the equipment is improved, and the service life of the equipment is prolonged.

A foam structure heat conduction module comprises a foam structure, a heat conduction structure and a heat conduction medium, the foam structure comprises a plurality of pores and is provided with a combination part and a heat dissipation part, the heat conduction structure is formed by curing a thermocuring colloid, and the heat conduction structure is provided with a first side and a second side which are opposite to each other. The first side is connected with the combination part, one side of the heat-conducting medium abuts against the second side, the other side of the heat-conducting medium abuts against a heating source, and therefore heat of the heating source is transmitted to the combination part of the foam structure through the heat-conducting medium and the heat-conducting structure and then transmitted to the heat dissipation part for heat dissipation. Compared with a protruding structure or a fin structure of an existing heat conduction device, the foam structure can greatly increase the contact area with air or cooling liquid, and the heat conduction module of the foam structure can dissipate heat more effectively under the limitation of a limited space.

The utility model discloses an evaporator defrosting device and a refrigerator, the evaporator defrosting device comprises a heating plate and a heat conducting fin, and the heating plate is used for being arranged on one side of an evaporator; one end of the heat-conducting fin is connected with one side, facing the evaporator, of the heating plate, and the other end of the heat-conducting fin is configured to be far away from the heating plate, so that the heat-conducting fin can extend into the evaporator; when the heating plate is arranged on one side of the evaporator, at least part of the heat-conducting fins extend into the evaporator, so that heat of the heating plate can be transferred into the evaporator, and the defrosting efficiency of the evaporator is improved.

The present application relates to tubular heaters, an aspect of which comprises: a tubular casing enclosing a heated portion and at least a first connection portion adjacent the heated portion; an electrical heating element disposed within the heated portion of the tubular casing; a power transmitting element extending between the heated portion and the first connection portion for transmitting electrical power from an external power source to the electrical heating element; a sensor assembly disposed within the first connection portion of the tubular casing and comprising at least a first temperature sensor; and a heat conducting element provided in thermal contact with the first temperature sensor and extending from the first connection portion into the heated portion, wherein the heat conducting element is electrically insulated from the electrical heating element and the power transmitting element.

The application provides a vehicle-mounted heat storage heating device. The vehicle-mounted heat storage heating device comprises a shell and at least one heat storage assembly arranged in the shell. The heat storage assembly comprises an electric heating element, a heat conducting assembly and a phase change heat storage medium. The heat conducting assembly is sleeved outside the electric heating element, and the phase change heat storage medium is filled between the heat conducting assembly and the electric heating element. An air inlet and an air outlet are arranged on the shell. The air inlet, the air outlet and the gap between the shell and the outer wall of the heat storage assembly jointly form an air duct for air circulation. The phase change heat storage medium is used for absorbing the heat generated by the electric heating element, transmitting the heat to the heat conducting assembly and emitting the heat to the outside of the shell through the air duct. The vehicle-mounted heat storage heating device has high heating efficiency and can improve the endurance of an electric vehicle.