609 results about "Chiller" patented technology

A cooling system for vehicles and a control method thereof improves indoor heating performance and fuel efficiency by controlling a flow rate of a coolant passing through a heater core together with an EGR cooler. A coolant having an increased temperature is first supplied to the heater core side through a flow stagnancy control to rapidly increase the temperature of the coolant flowing in the heater core, thereby improving heating performance. A warm-up feature is improved through an exhaust heat recovery function by a heat exchange between the exhaust gas and the coolant in the EGR cooler, thereby improving efficiency of fuel.

This utility model discloses an ultra-clean circulating cooling device for an electric furnace transformer, comprising an ultra-clean circulating water tank (2) that cooperates with a transformer oil-water cooler (1). A pair of outlet pipes (3) are connected to the ultra-clean circulating water tank (2), and the outlet pipes (3) are respectively connected to two transformer oil-water coolers (1). The transformer oil-water coolers (1) are then connected to a pair of plate heat exchangers (4) via pipes. The outlets of the plate heat exchangers (4) are connected to the ultra-clean circulating water tank (2) via return pipes (5). The advantage of this utility model is that it can eliminate water blockage in the oil-water cooler, ensure the heat exchange efficiency of the transformer oil-water cooler, thereby maintaining the normal operation of the cooler and preventing excessively high transformer oil and winding temperatures.

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 present invention relates to a boil-off gas reliquefaction system for a ship. The boil-off gas reliquefaction system for a ship according to the present invention, whereby boil-off gas generated from a liquefied natural gas (LNG) storage tank for a ship is reliquefied, comprises: a first heat exchanger for recovering cold heat from a first boil-off gas generated in the storage tank; a multi-stage compressor for compressing the boil-off gas that has passed through the heat exchanger; a high-pressure gas line for supplying high-pressure gas that is supplied from the multi-stage compressor; a low-pressure gas line for supplying the boil-off gas, which is supplied from the multi-stage compressor, as a low-pressure gas by using a decompression valve; a second heat exchanger in which heat exchange occurs between the high-pressure gas line and the low-pressure gas line downstream of the decompression valve; and a third heat exchanger by which the boil-off gas that has passed through the second heat exchanger is cooled by means of heat medium oil of a cryogenic chiller.

This invention discloses a cultivation and monitoring device for low-temperature cold-resistant growth of rice, relating to the field of rice cultivation technology. The invention includes a three-layer frame for mounting the equipment; a supplementary lighting system is installed on the upper layer of the frame; a rice cultivation trough is installed on the middle layer; and a water tank and a chiller are installed on the lower layer. The water tank and the chiller's inlet are connected via a first pipe. The rice cultivation trough is internally divided into a cold water inlet chamber, a cold water cultivation chamber, and a cold water return chamber. Water level and flow are controlled by inlet and outlet weirs. The device is also equipped with adjustable weirs to flexibly adjust the water level to meet the needs of different rice growth stages. Simultaneously, a video recording device and a temperature recording device are installed to record the entire rice growth process and monitor water temperature in real time, providing researchers with accurate experimental data. Furthermore, the device includes a room-temperature cultivation chamber as a control, which helps evaluate the low-temperature growth ability of genetically modified or hybridized rice seeds.

An integrated cooling module includes a plate-shaped manifold and multiple cooling components mounted thereon. The manifold includes stacked first and second plates that form a first refrigerant channel recessed along a line structure of the first plate, while the second plate provides a flat sealing surface. A third plate can be further stacked to form a second refrigerant channel, and through-holes in the second plate allow communication between channels. Ports formed in the plates enable direct connection with external components. A condenser, chiller, expansion valve, pressure / temperature sensor, and an accumulator may be mounted on the manifold, which is arranged perpendicular to a bottom surface.

This invention discloses a system and method for extracting helium from natural gas. The system includes an air expander, a cooler, a cold box, and a helium purification system. The cold box includes a main heat exchanger, an air-liquid separator, and an LNG-liquid separator. The helium purification system includes an oxygen-addition and hydrogen-removal reactor, a helium purification system cooler, a helium purifier, a circulating compressor, a booster compressor, and a Dewar flask. The Dewar flask contains a heat exchanger, a gas-liquid separator, and an adsorber. This invention features a reasonable process design, simple equipment, and easy operation, achieving a helium extraction rate of up to 98%. By delivering methane to users in the form of LNG and using low-temperature adsorption to produce pure helium, the economic value of the product is improved.

The utility model discloses a kind of closed pure water self-circulation cooling equipment, it is related to pure water self-circulation cooling equipment technical field, including air cooling heat exchanger and filter screen a, the side of air cooling heat exchanger is connected with circulating water pump by pipeline, the output end of circulating water pump is connected with connecting pipe, the one end of connecting pipe is communicated with filter a, the side of filter a is connected with cooler by water pipe, the side of cooler is connected with filter b by bend pipe.The closed pure water self-circulation cooling equipment, when carrying out first filtration to pure water in air cooling heat exchanger, the relatively large impurity of volume can be intercepted by filter screen a, and the sundries is swept to the filter screen b gathering on one side by rotating cleaning brush, prevent filter screen a from being blocked, swing mechanism can make shunt pipe reciprocating swing, to send pure water evenly on filter screen a, the dust screen on the side of air cooling heat exchanger can reduce the accumulation of dust on radiating fin.

A hybrid heating and cooling system, the system comprising an indirect-direct evaporative cooler (IDEC) subsystem; a heat pump subsystem; and a mixing plenum located between and in fluid communication with the IDEC subsystem and the heat pump subsystem, the mixing plenum being configured to mix a flow of fluid from the IDEC subsystem and a flow of fluid from the heat pump subsystem. The IDEC subsystem and the heat pump subsystem are independently operable to achieve a plurality of heating and / or cooling modes of operation.

A heat pump system for a vehicle may efficiently adjust the temperature of heating elements by using one chiller where a refrigerant and a coolant exchange heat. At the same time, the heat pump system may efficiently perform cooling and heating of a rear seat by using a rear heating, ventilation, and air conditioning (HVAC) module provided with one heat-exchanger.

Embodiments of the present disclosure are directed toward purge units of vapor compression systems, and methods of control thereof, that improve efficiency by selectively activating and deactivating the purge unit in response to one or more conditions to, for example, enable refrigerant-to-air ratios within the purge unit within certain industry standards while still minimizing the durations of the purge cycles. For example, in certain embodiments, these conditions may include conditions within the chiller condenser, time since last purge activation, time since last venting of non-condensables, and combinations thereof. By reducing an amount of time that the purge unit would be active without removing a substantial amount non-condensables from the vapor compression system, present embodiments reduce the power consumption of the purge unit, as well as the vapor compression system as a whole, while still being responsive to prevent or mitigate a loss of efficiency due to a substantial accumulation of non-condensables in the condenser of the vapor compression system.

The application discloses a transcritical CO2 ultra-high temperature heat pump system and a temperature control method, wherein supercritical CO2 is a high-temperature and high-pressure fluid at the outlet of a gas cooler, throttles to an evaporation pressure, and a large amount of throttling loss exists, which leads to the decrease of the heating energy efficiency ratio of the transcritical CO2 heat pump system, and is not conducive to the best energy-saving benefit of the ultra-high temperature heat pump. In view of the above problems, the application innovatively couples gas-electric dual-drive technology, two-stage compression intermediate cooling technology and mechanical supercooling technology, which can effectively reduce the high-pressure fluid temperature before the throttling valve of the CO2 working medium, reduce the throttling loss, drive the supercritical compressor through the adjustable turbine expander, reduce the power consumption of the compressor, improve the heating energy efficiency of the CO2 heat pump system, and flexibly and efficiently and stably supply steam in a wide range of variable working condition adjustment, improve the full working condition operation efficiency, achieve the purposes of energy saving and emission reduction and production cost reduction, and further widen the application range and application prospect of the high-temperature heat pump system.

The present invention relates to a thermal management system of a vehicle. The thermal management system of the vehicle comprises: a cooling device comprising an electrical component, a pump, a radiator and a first valve connected by a coolant line for cooling the electrical component; an air conditioning device comprising a compressor, a condenser, a second valve, an expansion valve and a heat exchanger connected by a refrigerant line; the cooling device further comprises: a coolant branch line; and a cooler provided in the coolant branch line and connected to the air conditioning device such that the coolant in the coolant branch line flows through the cooler and exchanges heat with the refrigerant from the air conditioning device; the air conditioning device further comprises: a third valve provided in the refrigerant line downstream of the heat exchanger; a fourth valve provided in the refrigerant line downstream of the expansion valve; a first refrigerant branch line; a second refrigerant branch line; a third refrigerant branch line; and a fourth refrigerant branch line.

Supercritical refrigerant circuit with compressor-ejector combination for vehicle air conditioning, comprising a section for a total refrigerant flow, a section for a suction jet refrigerant partial flow, and a section for a motive jet refrigerant partial flow, wherein in the section for the suction jet refrigerant partial flow an air conditioning evaporator (8) with associated expansion element (9) for providing cooling in an air conditioning system (32), a compressor (1), a gas cooler (2), an expansion element (5), and a suction jet heat exchanger (6), and in the section for the motive jet refrigerant partial flow a motive jet heat exchanger (33), wherein an ejector (7) is provided in which the suction jet refrigerant partial flow and the motive jet refrigerant partial flow of the refrigerant circuit are combined.wherein an ambient heat exchanger (10) and, in parallel, an air conditioning gas cooler (12) for providing heat in the air conditioning system (32) and, subsequently, a subcooler (11) are arranged in the total refrigerant flow, after which the total refrigerant flow is divided into the suction jet refrigerant partial flow and the motive jet refrigerant partial flow.

The utility model discloses a kind of compressed air energy storage systems suitable for marine environment, it is related to compressed air energy storage technical field.It includes including n group compressor, n group heat exchanger, n group cooler and closed cooling water system, it is sequentially connected through heat exchanger and cooler between adjacent compressor, nth group compressor is sequentially connected with gas storage through nth group heat exchanger and nth group cooler;Cooler one end is connected with seawater condenser closed water inlet through cooler closed water outlet pipeline, the other end is connected with seawater condenser closed water outlet through cooler closed water inlet pipeline.The utility model uses seawater as cooling water source, water source is stable, conducive to system stable operation;Adopt seawater as cold source, inexhaustible, and seawater temperature fluctuation is small, it can be regarded as constant temperature within 1 energy storage period, conducive to seawater condenser temperature control.

1. The name of the design product: water chiller (cold source TCU device). 2. The use of the design product: for centralized refrigeration, distributed precise temperature control. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view. 5. The bottom of the design product is not easy to see or not visible during use, omit the top view.

The application discloses an integrated 3D printing galvanometer system and belongs to the field of additive manufacturing. Aiming at the problems existing in the traditional 3D printer galvanometer, such as large volume caused by the outer shell and the cooling system, light field splicing deviation caused by installation and debugging difference, high cooling power consumption, pipeline complexity and easy leakage, and condensate water damage to equipment in high humidity environment, etc. The system of the application contains a galvanometer, a laser head array, a fixed base plate and other components. The galvanometer contains X and Y sub-galvanometers arranged vertically, and a laser head. Each component is fixed on a high-precision fixed base plate. The shell is sealed, one side of the metal surface is provided with an inner and outer fan and a cooling device (such as a semiconductor heat sink), and a detachable and replaceable desiccant box is further arranged. The application has the beneficial effects of compact volume, low energy consumption, high splicing precision and condensation prevention, and is suitable for medium and large 3D printers using multiple galvanometers.

A portable incubation system comprising a container and a temperature management system disposed within the container. The container comprises a housing forming an outer wall of the container, an inner chamber assembly disposed within the housing, and a lid coupled to the housing and arranged to seal the inner chamber assembly when closed. The temperature management system comprises a heat sink in thermal communication with an ambient environment of the portable incubation system, a thermoelectric cooler coupled to the inner chamber assembly, and a water-based heat pipe comprises a first end coupled to the heat sink and a second end coupled to the thermoelectric cooler. The system comprises a control system configured to direct the temperature management system to regulate a temperature of the inner chamber assembly and power the portable incubation system.

1. Name of the product in this design: Water Chiller. 2. Purpose of this design: for cooling water or other liquids. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the key design points: Design 1 3D view. 5. Design 1 is designated as the basic design.

A liquid cooling arrangement system for cooling a plurality of server clusters is disclosed. The plurality of server clusters each contain heat generating devices with liquid cooling units, the liquid cooling arrangement system comprising: a cooling loop configured to circulate cooling liquid and circulate heated liquid from the plurality of server clusters back to a dry cooler unit; the plurality of server clusters comprising: a first cluster and a second cluster connected in series by the cooling loop, the first cluster comprising a first set of liquid cooling units connected in parallel by the cooling loop, the first set having a first number of liquid cooling units, the second cluster comprising a second set of liquid cooling units connected in parallel by the cooling loop, the second set having a second number of liquid cooling units, wherein the first number is greater than the second number.

Disclosed are a device for producing liquid from flue gas with low energy consumption and a method for using the same. The device includes a CO2 and N2 low-temperature medium-pressure adsorption system, an energy utilization system, a low-temperature filtration gas low-temperature compression system, a CO2 low-temperature purification system, and a nitrogen liquid device system; the systems are interconnected through pipelines and valves; the CO2 and N2 low-temperature medium-pressure adsorption system includes a flue gas cooler, a first gas-liquid separator, a compression system, a drying system, a gas expander system, and a low-temperature medium-pressure adsorption device; the energy utilization system includes an electric heater, a CO2 compressor, a heat utilizer, and a second cooler; the low-temperature filtration gas low-temperature compression system includes a low-temperature compressor and a CO2 low-temperature purification system.

The application discloses a cooling system, a laser device, a control method of the cooling system and related devices, wherein the cooling system is applied to a device containing at least two devices to be cooled, the two devices to be cooled use cooling medium with temperature difference, the cooling system comprises a refrigeration unit and a water cooling unit, the water cooling unit comprises a chilled water pump and a main circulating pipeline, the chilled water pump and the two devices to be cooled are sequentially connected in the main circulating pipeline; wherein the inlet and outlet water ports of the first device to be cooled are connected in parallel with a first bypass pipeline, the first bypass pipeline is provided with a first valve; and / or the inlet and outlet water ports of the second device to be cooled are connected in parallel with a second bypass pipeline, the second bypass pipeline is provided with a second valve. The cooling system realizes the cooling of the two devices to be cooled only through one water cooling unit and one refrigeration unit, and the cooling demand of the two devices to be cooled for chilled water with different temperatures is met by controlling the opening degree of the first valve or the second valve.

The utility model discloses a kind of foam blocking devices for indirect evaporative cooling unit liquid level sensor, including blocking component and auxiliary assembly, blocking component includes foam blocking cover, blocking part one and blocking part two, auxiliary assembly includes adjusting component and mounting component, by blocking component and auxiliary assembly cooperation, can effectively block foam, prevent foam contact liquid level sensor's probe, improve measurement accuracy, the structure design of device side plate bottom hole ensures that liquid flows freely, does not affect the normal work of liquid level sensor, and the device structure is simple, easy to install, applicable to various liquid level sensors.

The application provides a heat management system, comprising a first valve, a second valve, a heating heat exchanger, a first refrigeration heat exchanger, a heater core and a cooler core, the heating heat exchanger and the heater core are connected to the first valve, cooling liquid flows through the heating heat exchanger and is heated, and then flows to the heater core through the first valve, the first refrigeration heat exchanger and the cooler core are connected to the second valve, the cooling liquid flows through the first refrigeration heat exchanger and is cooled, and then flows to the cooler core through the second valve, the heater core is used for heating a passenger cabin of a vehicle, and the cooler core is used for refrigerating the passenger cabin. In the technical scheme, the problem of refrigerant leakage in the passenger cabin is avoided, especially for flammable refrigerant, the safety of the vehicle can be greatly improved; meanwhile, unnecessary heat exchange of high-temperature and low-temperature cooling liquid in the valve is avoided, and therefore the refrigeration and heating effects are improved.

The application relates to a cold water machine with a buffer structure, which comprises a compressor, a condenser, a water tank, a water pump, a buffer tank and a constant air pressure control system which are connected in sequence, the compressor is connected with the water tank, the water tank is connected with the buffer tank and water using equipment respectively, the buffer tank is connected with the water using equipment, and the constant air pressure control system is connected with a compressed air inlet through an air inlet valve. The application solves the problems of poor vibration stability of a general cold water machine, large volume, high cost, inconvenient maintenance, installation and use, and low automation level.

The present disclosure relates to a chiller system. The chiller system of the present disclosure comprises: a main supply pipe for supplying heat-exchanged water to a heat demand source; a main return pipe for recovering water from the heat demand source; a first chiller comprising a first main body for heating or cooling water through heat exchange with a refrigerant; a first return pipe connecting the first main body and the main return pipe; and a first supply pipe connecting the first main body and the main supply pipe; a second chiller comprising a second main body for heating or cooling water through heat exchange with a refrigerant; a second return pipe connecting the second main body and the main return pipe; and a second supply pipe connecting the second main body and the main supply pipe; a connecting pipe connecting the first return pipe and the second return pipe; and a connecting pipe valve for opening and closing the connecting pipe. When the first return pipe is closed or the second return pipe is closed, the connecting pipe valve opens the connecting pipe.

The present invention relates to compositions comprising at least one fluoroolefin and an effective amount of at least one inhibitor. The stabilized compositions may be useful in cooling apparatus, such as refrigeration, air-conditioning, chillers, and heat pumps, as well as in applications as foam blowing agents, solvents, aerosol propellants, fire extinguishants, and sterilants.

The utility model provides a kind of efficient water bath type cooler, belong to cooling equipment technical field.It solves the problem that the filter screen structure is lacked on the pipeline of existing water bath type cooler, leading to water inflow carrying impurities, affecting use problem.This efficient water bath type cooler, including two water inlet pipes and the water outlet pipe between two water inlet pipes, two water inlet pipes and water outlet pipe are connected by valve pipe, valve pipe adopts tee structure, is water inlet end one and water inlet end two and water outlet end respectively, water inlet end one and water inlet end two are provided with filter assembly, and the filter area that is communicated with water outlet end is formed between two filter assemblies, filter assembly includes framework and the metal filter screen of integral molding with framework, the upper end transverse length of the longitudinal section of framework is less than its lower end transverse length, metal filter screen is inclined to set, and flange plate is fixedly connected on water inlet end one and water inlet end two.The utility model has the advantages of filtering function, and good filtering effect.

A kind of tube cooler heat exchange tube leak detection device belongs to leak detection tool technical field, including plugging component and pressure charging component, pressure charging component includes plugging head, plugging head is connected with pressure relief pipe and gas pipeline by tee, plugging head is hollow structure, the inside of plugging head and pressure relief pipe, gas pipeline are communicated;Pressure relief pipe is installed with blind plate at the end away from plugging head, blind plate is detachably connected with pressure relief pipe by several bolts;Pressure gauge and valve are installed on gas pipeline.It can be used to pressurize in heat exchange tube by plugging head, and the pressure change in heat exchange tube is detected by pressure gauge, so as to judge whether heat exchange tube leaks according to pressure change, when pressure relief is needed, the split of blind plate is realized by screwing bolt, since blind plate and pressure relief pipe are gradually separated during split process, it will not suddenly release pressure, so as not to produce instantaneous impact force to cause personnel injury or impact damage of equipment parts, and the pressure relief safety is high, and the pressure relief process is simple to operate.