11results about How to "Realize heating" patented technology

The invention discloses an ultrahigh-pressure plasma heater for distributed heat supply, and relates to the technical field of heat supply equipment.The ultrahigh-pressure plasma heater comprises an equipment bottom plate, an equipment shell is installed at the upper end of the equipment bottom plate, a Tesla coil is installed at the upper end of the equipment bottom plate in the equipment shell, and a heat conduction pipe is installed above the Tesla coil; a filter pipe is installed at one end of the air feeder through a pipeline, a filter assembly is installed in the filter pipe, a second connecting pipe is installed at the other end of the heat conduction pipe, and a temperature control box is installed at one end of the second connecting pipe and located outside the equipment shell. By utilizing the characteristics of the Tesla coil, low-voltage direct current is increased to a high-voltage and high-frequency state, lightning discharge is simulated, so that plasmas are generated, the plasmas can generate violent high temperature in the high-voltage and high-temperature releasing state, the high temperature heats the heat conduction pipe and heats the air to increase the temperature, and clean energy heat supply is achieved.

The invention discloses a wind energy heating unit control method and system utilizing waste heat of circulating water of a thermal power plant. A control method for a wind energy heating unit utilizing waste heat of circulating water of a thermal power plant is characterized in that a fan is used for driving a heat pump to heat the temperature of hot water on a user side after a circulating water system of the thermal power plant enters a heat exchanger, and the hot water is used by a heat user. The flow of cooling water entering the evaporator is adjusted, and it is guaranteed that the flow meets the heating capacity requirement of the air heating unit; heat storage or heat release of a heat storage tank is controlled, specifically, heat storage or heat release is adjusted according to the return water temperature of a heat user on the basis of heat balance within a short time, and the change of the return water temperature of the heat user is stabilized; and controlling the output of the wind-heat unit, wherein the wind-heat unit adjusts the output of the wind-heat unit according to the return water temperature of the heat user on the basis of heat balance within a long time. The system can replace or reduce steam extraction of a thermal power generating unit, meanwhile, wind energy is used for heat supply, and clean energy heat supply is achieved.

The invention provides an integrated heat management module and a vehicle. The heat management module comprises a mounting assembly and a heat management module, the mounting assembly is provided with a mounting cavity, and a connecting structure used for being connected with a vehicle frame is arranged on the first side of the mounting assembly; the radiator is arranged in the mounting cavity and is close to the second side of the mounting assembly, and the second side is opposite to the first side; the oil-gas pump all-in-one machine is arranged in the mounting cavity, and an oil change port of the oil-gas pump all-in-one machine is arranged close to the top of the mounting assembly; the high-voltage distribution box is arranged in the mounting cavity, and a maintenance port of the high-voltage distribution box is close to the bottom of the mounting assembly; the all-in-one controller is arranged in the mounting cavity, and a maintenance port of the all-in-one controller is arranged close to the top of the mounting assembly; the battery controller is arranged in the installation cavity and located between the high-voltage distribution box and the all-in-one controller. According to the integrated heat management module in the scheme, the technical problem that in the prior art, all modules needing heat management are low in integration degree is solved.

The utility model relates to a new trend function equipment technical field discloses a double system new trend function equipment, including main part box, the middle part fixedly connected with the heat exchange pipe of main part box inner wall, the lower end fixedly connected with the surface cooler of main part box inner wall near the middle part, the front end fixedly connected with the new trend executor of main part box outer wall upper part, the new trend executor output fixedly connected with drive gear shaft, the rear end of drive gear shaft penetrates main part box to the inside of main part box and is fixedly connected with drive gear, the upper part of main part box inner wall rotates and is connected with indoor return air blade all in a circle. In the utility model, the up and down distribution design of heat exchange pipe and surface cooler in main part box makes gas heating component and water component form double heat source cooperation work mode, can be through heat exchange pipe high -efficient heating when gas is sufficient, switches to surface cooler and utilizes cold and hot water heat exchange when gas is insufficient.

The invention discloses a thermochemical honeycomb energy storage material and a preparation method and application thereof, and belongs to the technical field of medium and low temperature thermochemical energy storage. The thermochemical honeycomb energy storage material is formed by dipping a honeycomb zeolite block in a salt solution; the preparation method comprises the following steps: mixing zeolite powder and an adhesive according to a certain proportion, demolding by molds with different honeycomb structures to form honeycomb zeolite blocks, drying the formed honeycomb zeolite, immersing the honeycomb zeolite into salt solutions with different types and proportions, dipping for 24 hours, and drying at a high temperature of 200 DEG C to form the novel composite honeycomb energy storage material. The thermochemical honeycomb energy storage material is filled into a reactor to assemble a thermochemical cascade reaction device, and different honeycomb energy storage materials are filled into the reactor, so that energy storage and energy release processes of air and the energy storage material can be realized. The thermochemical cascade reaction device can be applied to a solar thermochemical clean heating system. The thermochemical honeycomb energy storage material provided by the invention has the advantages of high energy storage density and negligible heat loss.

The application provides a hybrid vehicle waste heat recovery and cooling composite thermal management system and method, which comprises two modes, a waste heat recovery and utilization mode and a cooling mode; the waste heat recovery and utilization mode comprises three heating working conditions: a cab alone heating working condition, a battery alone heating working condition and a cab and battery heating working condition; the cooling mode comprises five cooling working conditions: an engine alone cooling, a motor alone cooling, a motor and battery alone cooling, an engine and motor cooling and a whole system cooling; and the application further comprises a waste heat recovery mode and a motor cooling working condition. In a severe cold environment, the application utilizes engine waste heat recovery to realize cab heating and battery heating; in a cooling environment, the application has engine, motor and battery cooling functions, and realizes comprehensive heating and cooling thermal management.

The application provides a vehicle-mounted air conditioner temperature control system and a vehicle. The vehicle-mounted air conditioner temperature control system comprises a vehicle-mounted air conditioner system, wherein the vehicle-mounted air conditioner system comprises an air outlet pipeline; and a gravity heat pipe assembly, wherein one end of the gravity heat pipe assembly is arranged in the air outlet pipeline, and the other end of the gravity heat pipe assembly is arranged on a vehicle-mounted controller for an entertainment host; and wherein when the vehicle-mounted air conditioner system is working, the gas generated by the vehicle-mounted air conditioner system exchanges heat with the gravity heat pipe assembly at the air outlet pipeline. The vehicle-mounted air conditioner temperature control system adopts gravity capillary action for passive heat dissipation, and the heat in the vehicle-mounted controller for the entertainment host is exchanged by the gravity heat pipe assembly, so that the heat is transferred to the heat dissipation part in the air conditioner channel, and the cold air in the air conditioner channel carries away the heat of the heat dissipation part, thereby achieving heat dissipation of the controller.

This utility model discloses a continuous compressed air supply system, belonging to the field of air supply equipment. The continuous compressed air supply system includes an air storage tank and a dryer, which is fixedly connected to the air storage tank via a pipeline. A distribution pipe is fixedly connected to the side of the dryer away from the air storage tank, and an air supply pipe is fixedly connected to the distribution pipe. A tee pipe is fixedly connected to the air storage tank, and two connecting pipes are fixedly connected to the end of the tee pipe away from the air storage tank. This utility model, by using two air compressors, can continue to supply air to the air storage tank even if one air compressor fails, thereby avoiding the impact of air supply interruption on production efficiency. Furthermore, by utilizing a heat exchange tank, the high-temperature gas produced by the air compressor can be fully utilized, avoiding resource waste.

The utility model discloses a speed control heating instrument which comprises an infusion pump and a second drip chamber, a pump inlet of the infusion pump is provided with a liquid inlet pipe used for being connected to an infusion container, the bottom of the second drip chamber is connected with a patient end pipeline, and a heating module is connected between the top of the second drip chamber and a pump outlet of the infusion pump. When the infusion device is used, the infusion container is connected to the liquid inlet pipe, the infusion pump and the heating module are started, and infusion and heating of liquid to be infused can be achieved; by setting the rotating speed of the infusion pump, accurate control over the infusion speed can be achieved, medical staff can know the infusion speed clearly at a glance, the use requirement is met, and use is convenient; in addition, the second drip chamber is arranged on the downstream of the heating module, bubbles generated in the liquid passing through the heating module can be separated out at the second drip chamber, and the bubbles are prevented from being input into the human body.

The utility model relates to the field of energy storage, concretely relates to a kind of energy storage equipment, comprising: semiconductor refrigerator, heat transfer assembly, energy storage piece;The semiconductor refrigerator has refrigeration surface and heating surface, the heat transfer assembly is connected with the refrigeration surface of the semiconductor refrigerator and / or the heating surface of the semiconductor, and the heat transfer assembly is used to conduct the cold quantity and / or heat generated by the semiconductor refrigerator to the energy storage piece, to make the phase-change energy storage piece store cold or heat.By heat transfer assembly and heating surface or refrigeration surface connection, or in heating surface or refrigeration surface simultaneously setting heat transfer assembly, phase-change energy storage piece is set on heat transfer assembly, so that it can be realized heat conduction by heat transfer assembly, and then make energy storage equipment realize refrigeration or heating, or realize refrigeration and heating simultaneously, to improve the energy storage efficiency of energy storage equipment;Phase-change energy storage piece can also be applied to heating or refrigeration equipment, to make relevant equipment realize refrigeration or heating.

When the system works in heating and refrigerating, a first compressor pumps a high-temperature and high-pressure gaseous refrigerant into a first heating unit to release heat, the high-temperature and high-pressure gaseous refrigerant is changed into a normal-temperature and high-pressure liquid refrigerant after releasing heat, and the normal-temperature and high-pressure liquid refrigerant flows through a first expansion valve to be expanded; the expanded normal-temperature and high-pressure liquid-state refrigerant is changed into a low-temperature and low-pressure gas-liquid-state mixed refrigerant and flows into the first refrigeration unit to absorb heat, and the low-temperature and low-pressure gas-liquid-state mixed refrigerant is changed into a low-temperature and low-pressure gas-state refrigerant and enters the first compressor after absorbing heat, so that latent heat circulation is formed; in this way, the first refrigerating unit and the first heating unit do not need to consume energy, refrigerating and heating can be achieved only by conducting latent heat circulation between the first refrigerating unit and the first heating unit through refrigerants, and only the energy consumption of the first compressor needs to be provided. The system can greatly reduce the energy consumption of a cold air system and reduce the cold air cost.