62 results about "Condenser (heat transfer)" patented technology

A thermal management system for electric construction machinery, the thermal management system comprising a battery pack (1), a first liquid storage tank (2), a first liquid pump (3), a plurality of first air-conditioning units (4) arranged in parallel, a heat dissipation group (5) and a first controller (6), wherein the battery pack provides a driving force; the first liquid storage tank stores a circulating medium; the first liquid pump is in communication with the first liquid storage tank; the first liquid pump is connected to the battery pack to form a first circulating loop (100); the first liquid pump drives the circulating medium to flow through the battery pack, such that the circulating medium exchanges heat with the battery pack; each first air-conditioning unit comprises a compressor (41), a condenser (42), a first throttling device (43) and a first evaporator (44), and the first air-conditioning units reduce the temperature of the circulating medium in the first circulating loop; the heat dissipation group dissipates heat from the condensers in the first air-conditioning units and / or reduces the temperature of the circulating medium flowing through the battery pack; and the first controller controls, on the basis of the temperature of the battery pack, the plurality of first air-conditioning units and the heat dissipation group to start and stop. The thermal management system effectively reduces the number of heat dissipation groups, thereby facilitating an improvement in the heat transfer efficiency of the system, and improving the energy consumption of a whole vehicle. In addition, further disclosed are a control method and electric construction machinery.

Safety container cooling system (10) comprising a sealed safety container (12) of a nuclear facility, - with a heat exchanger for heat transfer between a medium to be cooled and a cooling medium, - with first means to extract the medium to be cooled from the safety vessel (12) in a first cooling circuit and supply it to the heat exchanger and, after it has flowed through the heat exchanger, return it to the safety vessel (12), wherein the first means comprise a first pumping device (38) to pump the medium, now cooled by the heat exchanger, back into the safety vessel (12), - with second means to supply the recoolant from a coolant reservoir to the heat exchanger and to return it to the coolant reservoir after it has passed through the heat exchanger, wherein the second means comprise a second pumping device located outside the safety vessel (12) to set the recoolant in motion, wherein the second means comprise a turbine (40) which is driven by the flow of the cooling medium, wherein the first pump device (38) is coupled to the turbine (40) in such a way that it is driven by it, characterized by the fact that the first pumping device (38) and the turbine (40) are arranged outside the safety container (12), that the heat exchanger is a condenser (30) arranged outside the safety container (12), that the first means have a withdrawal device (24) in the safety container (12) for withdrawing the medium to be cooled from the safety container (12), which has a steam component and an air component, and at least the steam component is directed to the condenser (30), that the steam component is condensed to water by the condenser (30), that the water is pumped back into the safety container (12) as a cooled medium by the first pumping device (38).

The present application discloses a kind of sewage pipe network dredging sludge treatment device, and the present application relates to sludge treatment technical field.The sewage pipe network dredging sludge treatment device, by being provided with first processing box, first motor, heating wire stirring shaft, scraper and stirring rod, the function of treating sludge is realized, heating wire in first processing box directly heats sludge, cooperates with the continuous overturning of stirring shaft and stirring rod, effectively prevent sludge accumulation and caking, improve drying uniformity, scraper rotates with stirring shaft, real-time remove the sludge adhered to the inner wall of box, avoid long-term scale influence heat transfer efficiency;By being provided with second processing box, first connecting pipe, condenser pipe, activated carbon plate and drying plate, the function of treating water vapor and gas generated in drying process is realized, after gas is condensed, residual moisture is absorbed by drying plate, ensure that emission gas is dry, activated carbon plate absorbs hydrogen sulfide, ammonia and other odor components in gas, avoid secondary pollution.

The application relates to a new energy automobile "three-electricity" thermal control system based on a loop heat pipe in the technical field of new energy automobile thermal management, which comprises three-electricity components and a loop heat pipe; the three-electricity components comprise an electric drive, an electric control and a battery pack; the loop heat pipe comprises an evaporator assembly, a main condenser, a secondary condenser, a cold plate assembly, a pipeline system and a stop valve; the cold plate assembly comprises an electric control cold plate group and a battery pack cold plate group. The loop heat pipe in the application forms a self-adapting passive phase change heat transfer two-phase fluid loop in the three-electricity components, does not need to provide additional power consumption by a pump, has better energy-saving effect, only needs to control the temperature of a liquid accumulator, and has simple control logic; the system thermal resistance is small, and the temperature uniformity can be guaranteed to be within 1 DEG C.

Disclosed herein is a heat transfer apparatus comprising a heat absorbing panel having first and second main faces containing plural passages for conveying a working fluid in both liquid and gaseous states around an interior portion of the panel, wherein the first main face is opposite the second main face and the first main face is configured to contact a body to be cooled; a condenser in fluid communication with the heat-absorbing panel, wherein the heat absorbing panel and the condenser form a hermetically sealed system configured to allow the working fluid to circulate between the heat-absorbing panel and the condenser without a compressor; and a chimney, comprising a lower opening, an upper opening, and an air channel extending from the lower opening to the upper opening; wherein the apparatus is configured such that the condenser is disposed within the air channel.

This utility model relates to the field of lubricating oil processing technology, specifically to a lubricating oil hydrorefining device. It includes a tank containing a heating component. A circulation component is connected to the lower end of the tank, allowing the lubricating oil in the lower part of the tank to circulate through the heating component. Above the heating component, the tank contains, from bottom to top, a hydrodemetallizing agent chamber, a hydroprotecting agent chamber, and an adsorbent chamber. Above the adsorbent chamber, a hydrotreating device is located in the tank. Above the hydrotreating device, a mixing component is located in the tank. The upper end of the tank is connected to a condenser via a pipeline, and the condenser's exhaust port is connected to an exhaust gas treatment pipeline. This utility model's heating component combined with the circulation component achieves uniform and efficient heat transfer to the lubricating oil, ensuring even heating of the oil. The hydrotreating device accelerates the hydrogenation reaction and simultaneously promotes the conversion of low-boiling compounds such as sulfur-based and amino groups into easily treatable H₂S, NH₃, and HCl gases, reducing impurity residue at the source.

The utility model discloses a freon natural circulation cooling system for turbine, including evaporimeter, condenser, evaporimeter is linked with condenser, and evaporimeter is located below condenser, and evaporimeter is used for converting freon from liquid state into gaseous state, the condenser be used for converting freon gaseous state into liquid state, and the shell of condenser is equipped with first heat transfer structure, and the shell of evaporimeter is equipped with second heat transfer structure.

The exemplary embodiment discloses a vehicle thermal management system characterized in that it comprises a compressor that compresses the refrigerant and delivers it into the refrigerant line; a condenser that condenses the refrigerant delivered by the compressor; an evaporator that, together with the condenser, is arranged inside the climate control housing and transfers heat between the refrigerant flowing through the condenser and a heat transfer medium; several heat exchangers that are arranged outside the climate control housing and transfer heat between the refrigerant flowing through the evaporator or the condenser and a heat transfer medium; and a first expansion valve that is arranged in the refrigerant line between the condenser and the evaporator, wherein the expansion of the refrigerant at the first expansion valve is controlled differently depending on the heating load.

The utility model relates to the field of chip heat dissipation, especially a high performance loop heat pipe heat dissipation device for chip heat dissipation, the evaporator is composed of evaporation end cover, evaporation bottom surface and sintered porous capillary core, the sintered porous capillary core divides the inner chamber of evaporator into the liquid storage cavity of upper part and the evaporation area of lower part, the inner surface of evaporation bottom surface is equipped with micron level micro channel structure, and the sintered porous capillary core is welded on evaporation bottom surface. In the utility model, through the synergistic effect of micro channel structure in the evaporator and sintered porous capillary core, cooperate the double-sided fine capillary condensing structure on the condenser, strengthen the phase change heat transfer process, to realize the heat dissipation performance of extremely low thermal resistance, super high heat flow density and big total heat transfer quantity, the heat dissipation capacity is greatly promoted compared with the existing liquid cooling technology, can satisfy the severe heat dissipation demand of high performance chip, and the system operation is stable and reliable, improves the heat dissipation effect of high heat density chip.

The utility model discloses an adsorption type heat pump system directly driven by steam. The adsorption type heat pump system comprises a first adsorption bed, a second adsorption bed, an evaporator, an ammonia circulation pipeline and a condenser, the first adsorption bed is communicated with the second adsorption bed through a throttling valve, and the other end of the first adsorption bed and the other end of the second adsorption bed are communicated with an ammonia circulation pipeline through a two-position four-way reversing valve to form an adsorption bed heat exchange fluid loop; the first adsorption bed is connected with the evaporator and the condenser through a vacuum valve; the second adsorption bed is connected with the evaporator and the condenser through a vacuum valve; the evaporator is connected with an external heat source, and the condenser is connected with the first cooling tower. According to the system, ammonia is used as a heat exchange medium of the adsorption bed, isothermal adsorption and desorption of the adsorption bed in the adsorption and desorption process are achieved through latent heat transfer of isothermal evaporation / condensation, the temperature gradient of the adsorbent in the working process is reduced, the heat transfer temperature difference is small, and the adsorption and desorption rate of the adsorbent and the operation stability of the system are effectively improved.

The utility model discloses a prefabricated rod tail handle heat energy recovery system, including collector, high temperature heat storage jar, steam generator, feed water pump, condenser, steam turbine and generator, the collector is provided with on every prefabricated rod tail handle, and the export of all collectors is gathered into a road after through pipeline and communicates with high temperature heat storage jar, and the medium that is heated after heat exchange is gathered to high temperature heat storage jar, and high temperature heat storage jar communicates with steam turbine through steam generator, and through steam generator changes into gaseous state and then sends to steam turbine and does work, steam turbine is connected with generator and condenser respectively, and the electric energy of work conversion is generated by generator, and the excess medium is sent into condenser and changes into liquid state, and the import of collector communicates with condenser through feed water pump respectively, and the medium is sent into corresponding collector again, and forms circulation. The utility model carries out real -time recycling of the heat energy that gathers at prefabricated rod tail handle through heat transfer, and improves energy utilization.

This invention relates to the field of heat pump system technology, and discloses a cascaded heating system that utilizes waste heat to drive an absorption heat pump. The system includes a high-temperature heat pump assembly, in which a superheated section is formed between the compressor outlet and the working fluid inlet of the high-temperature heat pump condenser; an intermediate heat transfer fluid assembly loop, with a first heat exchange unit between the intermediate heat transfer fluid assembly loop and the superheated section, connected to the high-temperature heat pump condenser; a second heat exchange unit between the intermediate heat transfer fluid assembly loop and the condensation section of the high-temperature heat pump assembly, connected to the high-temperature heat pump condenser; an absorption heat pump assembly, including a generator, which is heat-exchange connected to the intermediate heat transfer fluid assembly loop; and a control system, electrically connected to both the first and second heat exchange units. This invention achieves secondary utilization of low-temperature waste heat through cascade coupling, significantly improving the system's total heating capacity and overall energy efficiency.

Arrangement for a combined cooling and heating system with a refrigeration circuit and a heat pump circuit, which have a common evaporator-condenser (70) and are thus thermally connected to each other, wherein the refrigeration circuit also has at least one evaporator (3), a refrigeration compressor (1) and a throttle valve (5) directly connected to a liquid outlet (740) of the common evaporator-condenser (70) and the heat pump circuit also has at least one heat pump compressor (2), a condenser (4) and a heat pump throttle valve (6), the heat pump throttle valve (6) being arranged downstream of the condenser (4), the evaporator-condenser (70) having separate channels belonging to the refrigeration circuit on the one hand and to the heat pump circuit on the other, and the wall parts of the channels of the evaporator-condenser (70) having heat transfer surfaces that border the refrigeration circuit on the one hand and the heat pump circuit on the other.characterized in that, in addition to the components listed above, at least one controllable heat exchanger, a waste heat cooler (10), is arranged downstream of the refrigeration compressor (1) in the refrigeration circuit, and that, in addition to the components listed above, at least one controllable heat exchanger, an auxiliary evaporator (90) with outlet (104) and inlet (103), is arranged in the heat pump circuit, and a flow connection with an auxiliary throttle valve (61) is provided downstream of the condenser (4), which opens into the auxiliary evaporator (90), wherein the waste heat cooler (10) is connected to an external heat sink between outlet (102) and inlet (101), and the auxiliary evaporator (90) is connected to an external heat source between outlet and inlet.

This invention relates to a system and method for utilizing waste heat and recovering water from steel slag, belonging to the field of waste heat utilization and water recovery. It includes a steel slag curing tank 1, a sealed enclosure 2 (containing a radiant heat exchanger 3 and a slag shell crusher 4), a steam condenser tower 5, a heat storage buffer tank 6, an ORC (Organic Rankine Cycle) generator set 7, a circulating pump 8, and a wastewater sedimentation tank 9. High-temperature steel slag and hot curing steam sequentially exchange heat with the radiant heat exchanger 3 and the steam condenser tower 5, with the steam collected as condensate in the wastewater sedimentation tank 7. Heat transfer oil, as the heat exchange medium, sequentially passes through the steam condenser tower 5 and the radiant heat exchanger 3 to increase its temperature, then flows into the heat storage buffer tank 6, performs work in the ORC generator set 7 to release heat, and is then pressurized and circulated by the circulating pump 8. This invention achieves waste heat recovery from high-temperature steel slag and enables water resource recycling during the hot curing process, solving the environmental pollution problems of waste heat loss and steam discharge during steel slag treatment.

This invention belongs to the field of aircraft heat dissipation technology, and relates to a heat dissipation system and control method for high-power periodic operating equipment in aircraft. It includes a first liquid storage tank, a mechanical pump, a preheater, a bypass valve, a heat storage heat exchanger, a temperature control module, a compressor, a condenser, a second liquid storage tank, and a microchannel cold plate. The first liquid storage tank stores a working fluid. The first liquid storage tank, mechanical pump, preheater, microchannel cold plate, bypass valve, and heat storage heat exchanger are connected sequentially to form a heat transfer and regulation loop. A solid-liquid phase change material is installed inside the heat storage heat exchanger, and a temperature control module is installed on the first liquid storage tank. The heat storage heat exchanger, compressor, condenser, and second liquid storage tank are connected sequentially to form an evaporative cooling loop. This invention can achieve time-sharing coordinated control of heat storage, transfer, and dissipation, meeting the periodic high-power heat dissipation requirements, reducing system weight and energy consumption, improving temperature control accuracy and reliability, and stabilizing the temperature of electronic equipment within the required range.

The utility model discloses a cooling device and energy -conserving air conditioner, cooling device includes fan, condenser and energy -conserving module, and the condenser forms the cooling coil for the refrigerant flow, and the fan's air intake mouth is toward cooling coil, energy -conserving module includes water tank and water outlet pipe, and water outlet pipe and water tank intercommunication, and water outlet pipe is connected in condenser, and water outlet pipe is used for cooling cooling coil. Compared with prior art, the present application combines air cooling and water cooling two kinds of heat dissipation mode, and in water cooling heat dissipation system, liquid medium (water) can directly and cooling coil heat exchange, compared with air cooling heat dissipation, the heat transfer coefficient is higher when liquid and solid heat exchange, and the heat exchange effect is better, when the ambient temperature is high, two kinds of cooling mode work simultaneously, to reduce condensing temperature, reduce the equipment power consumption, realize energy -conserving effect. And when water cooling system breaks down, the device can still rely on air cooling system to continue working, greatly improve the practicality of the device.

The present disclosure relates to an absorption chiller. The absorption chiller of the present disclosure comprises: an evaporator for evaporating a refrigerant; an absorber in which the refrigerant evaporated in the evaporator is mixed with an absorbent to produce an absorbent liquid; a regenerator for heating the absorbent liquid supplied from the absorber; and a condenser to which the refrigerant produced in the regenerator is supplied. The absorber comprises: a plurality of heat transfer tubes arranged in an up-and-down direction to form a plurality of stages; and a plurality of intermediate distributors disposed between the plurality of heat transfer tubes. The plurality of intermediate distributors may divide the plurality of heat transfer tubes into a plurality of tube groups arranged in a certain number of stages.

The present invention provides a boiling heat transfer surface for a boiling cooler and a method for forming the same, which can improve cooling performance by quickly removing large bubbles from the heat transfer surface so that they do not become covered on the boiling heat transfer surface. [Solution] The boiling heat transfer surface of the boiling cooler receives heat from an external heating element and boils the internal liquid-phase coolant, causing it to change from liquid to vapor. The boiling heat transfer surface 1 is formed by bending the tip ends of a plurality of plate-shaped fins 3 that are formed standing upright in parallel at a predetermined distance from a metal substrate 2 and joining them to adjacent fins 3 to form cavities 4 between the fins 3. A plurality of small holes 5 are formed at predetermined distances from the upper end of adjacent cavities 4. The inner wall 3a on one side and the inner wall 3b on the other side of the cavity 4 are inclined toward the other side of the metal substrate 2, and the bottom surface 4a is formed as an inclined surface that gets higher from one side to the other. The small holes 5 are formed by grooves 51 formed on the tip side of the fins 3, and the tip side of the fins 3 is bent from a virtual bending line BL that connects the bottoms 51a of the plurality of grooves 51.

This application relates to the field of heat exchange equipment technology, and in particular to a horizontally swept liquid film dehumidifying condenser. The horizontally swept liquid film dehumidifying condenser includes a shell and a flow equalization component and a fiber assembly disposed therein. The shell has a liquid inlet and a liquid outlet at both ends along a first direction, and air vents at both ends along a second direction. The fiber assembly includes multiple fibers extending along the first direction and arranged in a multi-row, multi-column array along the second and third directions. The flow equalization component is located between the fiber assembly and the liquid inlet, and is used to distribute the liquid during its descent, ensuring uniform diffusion of the liquid within the cross-section of the shell perpendicular to the first direction, thereby improving the heat and moisture exchange effect between the liquid and the airflow; simultaneously, it forms a liquid film on the surface of the fiber assembly, extending the gas-liquid contact path through the fiber assembly; and it also promotes droplet formation through the fiber assembly, effectively improving phase change heat transfer efficiency through the rapid formation and shedding of droplets.

The present application relates to a refrigeration cycle device and a control method for a refrigeration cycle device, the refrigeration cycle device including a refrigerant circuit in which a compressor, a heat exchanger on a heat source side, an expansion valve, and a heat exchanger on a utilization side are connected by refrigerant piping. The refrigeration cycle device includes a detection unit that detects a heat transfer tube temperature and an outlet tube temperature of the heat exchanger functioning as a condenser and a discharge temperature of the compressor, and a control unit that performs a supercooling degree control and a discharge temperature control or a discharge superheat degree control based on a detection result of the detection unit. The control unit controls an opening degree of the expansion valve based on either one of the supercooling degree control and the discharge temperature control or the discharge superheat degree control according to an operating characteristic of the refrigeration cycle device.

This invention relates to the field of solar thermochemical utilization and industrial process control technology, specifically disclosing a solar-driven photothermal catalytic methanol synthesis system and control method. The system includes a concentrator, a photothermal catalytic reactor, a feedstock supply and flow rate regulation unit, a temperature monitoring unit for monitoring the temperature of the photothermal catalytic reactor, a DNI monitoring unit, a tracking drive mechanism for focusing solar radiation onto the focal region of the concentrator, and a control unit. This invention effectively enhances radial heat conduction and distributed heat transfer to suppress hot spots; this invention uses the input flow rate of the feedstock gas... Q in As the steady-state master control variable, the condenser offset defocus angle Δ is used. θ To assist in boundary protection / rapid energy reduction, and to propose an asymmetric strategy of "rapid decrease and slow increase" for DNI mutations, we can achieve stable and safe operation of the temperature window under variable irradiation conditions.

The utility model discloses a water chilling unit, including compressor, condenser, evaporimeter, liquefied heat exchanger, the compressor includes first cooling device, motor, the first cooling device is used for the motor cooling heat dissipation, including first port, second port, is used respectively for input condensed refrigerant, and exports the refrigerant after cooling, the liquefied heat exchanger includes refrigerant passage, heat transfer medium channel, the refrigerant passage includes third port, fourth port, its respectively with second port, evaporimeter is connected, and the refrigerant after cooling is cooled liquefaction and returns evaporimeter, the heat transfer medium channel includes fifth port, sixth port, its respectively with the heat transfer medium inlet of evaporimeter, heat transfer medium outlet is connected, the utility model discloses the refrigerant after cooling is condensed liquefaction as liquid state and is delivered to evaporimeter, prevents the refrigerant after cooling and influences evaporimeter's heat exchange efficiency and compressor suction liquid, improves heat exchange efficiency and protects compressor, prolongs compressor life.

This utility model discloses a temperature control device for a taurine reactor, relating to the field of taurine processing technology. It includes a reactor, an air-cooled condenser, an electromagnetic descaling device, a refrigeration unit, a frozen brine tank, a frozen brine pumping system, a first screen filter, and a second screen filter. A refrigeration coil is coiled within the reactor's jacket. The outlet of the refrigeration coil, the air-cooled condenser, the electromagnetic descaling device, the refrigeration unit, the first screen filter, the frozen brine tank, the second screen filter, the frozen brine pumping system, and the inlet of the refrigeration coil are sequentially connected via refrigeration piping. A heating coil is also provided within the reactor's jacket. The inlet and outlet of the heating coil are connected to a heat transfer oil heating device via heating piping. This utility model's taurine reactor temperature control device has the advantages of good cooling effect and low energy consumption.

The dehumidification device includes a housing, a blower, and a refrigerant circuit. The blower and refrigerant circuit are housed within the housing. The blower mechanism supplies air. The refrigerant circuit includes a compressor, a condenser (3), a pressure reducing device, and an evaporator (5), and is configured to circulate the refrigerant in the order of compressor, condenser (3), pressure reducing device, and evaporator (5). The condenser (3) has a first heat transfer tube (12) for refrigerant flow. The evaporator (5) has a second heat transfer tube (14) for refrigerant flow. The condenser (3) is positioned on the downwind side of the evaporator (5). The first heat transfer tube (12) of the condenser (3) is a flat tube and extends horizontally. The second heat transfer tube (14) of the evaporator (5) is a flat tube and extends vertically.

This invention discloses an all-weather protective distribution cabinet with fault self-diagnosis and redundant fire suppression triggering, relating to the field of smart grid distribution cabinets. The invention includes a cabinet shell, a heat-conducting cabinet layer, condenser fins, a component mounting array, and multiple dry powder fire extinguishing gas canisters with different production dates. A negative pressure phase-change heat transfer structure is constructed through the heat-conducting cabinet layer and condenser fins to achieve efficient heat dissipation; a stable airflow and dynamic dust removal system are formed by combining a pressure fan and a rotating cylindrical filter to improve ventilation efficiency; multi-point temperature sensors enable thermal field monitoring and fan control; for fire prevention, multi-time gradient fire extinguishing gas canisters and a graded triggering mechanism are adopted to improve fire suppression reliability; a magnetic bottom pressure relief structure is also provided to automatically release gas in case of abnormal pressure, protecting the cabinet structure. This effectively improves the heat dissipation performance, fire resistance, and operational safety of the distribution cabinet.

The invention relates to a system for cooling dissipative components, such electrical or electronic components, in particular CPUs and / or GPUs, e.g. in one or more servers, e.g. in one or more server racks in a data center, batteries, and fuel cell stacks, which cooling system comprises a thermal loop for transporting heat from at least one of such components to a heat sink, the loop comprising at least two evaporators connected in parallel, a condenser, conduits connecting the evaporators to the condenser, and restrictors providing a pressure drop upstream from the evaporators, the loop containing a heat transfer medium for absorbing in the evaporators heat from the dissipative component or components, transporting the absorbed heat to the condenser, and releasing the absorbed heat to the heat sink. The system comprises at least one further restrictor providing a pressure drop upstream from said parallel restrictors.

The application relates to the technical field of heat sinks, in particular to a high-performance micro-channel high-efficiency heat sink with middle air inlet, which comprises a heat dissipation plate used for abutting against a heating component and a condenser used for promoting heat dissipation of the heat dissipation plate, heat dissipation cavities are arranged on the heat dissipation plate in positions corresponding to the heating component and with sizes corresponding to the heating component, a plurality of heat dissipation cavities are arranged, the condenser is arranged in positions corresponding to the heat dissipation cavities, any condenser is arranged on a side of the heat dissipation plate away from the heating component, and the heat dissipation cavities and the corresponding condensers are in one-to-one communication, the refrigerant medium in each heat dissipation cavity directly absorbs heat transferred from the heating component, the refrigerant medium carrying the heat enters the corresponding condenser for further cooling, a plurality of independent and efficient heat dissipation systems are formed, thereby targeted heat dissipation treatment can be carried out on the heating components with a scattered design, and the targeting and efficiency of heat dissipation are improved.

The invention provides a high-temperature steam output system based on a gradient porous solid waste-based composite phase change material. The high-temperature steam output system comprises a steam generator, a high-temperature steam conveying pipeline, a phase change device, a condenser and a steam outlet which are sequentially arranged in the flowing direction of steam. The salt storage tank is connected with the condenser; the phase change device comprises a shell and a phase change body, the phase change body is arranged in the shell and comprises a carrier and a filling body, the carrier wraps the filling body and adopts modified phosphogypsum or a coal-based solid waste cementing material as a base body, and the porosity of the carrier is decreased in a gradient mode in the direction from the steam generator to the condenser. The filling body is formed by compounding a phase change material and a graphene nanosheet. According to the system, modified ardealite or a coal-based solid waste cementing material is used as a matrix, forming is carried out at low temperature through a cold sintering technology, high-temperature phase change damage is avoided, negative gradient pore structure design is innovatively adopted, and the heat transfer rate is remarkably increased.

The application provides an integrated heat exchanger, which comprises an expansion valve driving element, an expansion valve core and a heat exchange assembly. The heat exchange assembly is provided with an expansion valve body, the expansion valve core is provided with a valve core mounting groove, the expansion valve core is arranged in the valve core mounting groove, and the expansion valve driving element is connected with the expansion valve core. The expansion valve core is provided with a condenser area and an evaporator area on two sides respectively. The condenser area and the evaporator area are symmetrically arranged about the expansion valve core. A first refrigerant passage is arranged in the condenser area, a condenser heat exchange medium passage is arranged in the condenser area, a second refrigerant passage is arranged in the evaporator area, and an evaporator heat absorption medium passage is arranged in the evaporator area. The first refrigerant passage and the second refrigerant passage are communicated with the expansion valve core to form a refrigerant passage. The refrigerant passage, the condenser heat exchange medium passage and the evaporator heat absorption medium passage are independently arranged. The integrated structure of the condenser, the evaporator and the expansion valve reduces the heat transfer temperature difference and improves the heat exchange efficiency.

This utility model discloses a compact multi-media universal condenser, including a fixed base, a height rod fixedly installed at the top of the fixed base, a height block slidably connected to the middle of the height rod, a connecting shell provided on one side of the height block, a condenser housing slidably connected inside the connecting shell, a motor base fixedly installed at the middle of one side of the height block, a micro motor fixedly installed at the top of the motor base, a rotating shaft fixedly installed at the output end of the micro motor, and an irregular turntable fixedly installed at the top of the rotating shaft. This compact multi-media universal condenser, by setting up a micro motor, rotating shaft, irregular turntable and silicone frame, the rotating shaft drives the irregular turntable to move synchronously, and the irregular turntable pushes the silicone frame from one side, so that the gas in the condenser housing is in full contact with the condensing medium, improving the heat transfer efficiency of the condenser, meeting people's needs for significant cooling of products in the condenser, and has high practicality.