30 results about "Fluid output" patented technology

The present application relates to a kind of energy storage device and energy storage utilization method thereof.Energy storage device includes j Cold / Heat Storage Filling Bed, low-temperature end fluid input main pipeline, low-temperature end fluid output main pipeline, j Low-temperature end fluid access branch pipeline corresponding to Cold / Heat Storage Filling Bed, high-temperature end fluid input main pipeline, high-temperature end fluid output main pipeline, j High-temperature end fluid access branch pipeline corresponding to Cold / Heat Storage Filling Bed, j-1 Or j Series pipeline, low-temperature end fluid input main control valve, low-temperature end fluid output main control valve, j Low-temperature end fluid access control valve, high-temperature end fluid input main control valve, high-temperature end fluid output main control valve, j High-temperature end fluid access control valve and j-1 Series control valve.Energy storage utilization method is applied to the above-mentioned energy storage device, including cold energy storage method, cold energy utilization method, heat energy storage method and heat energy utilization method.The present application can be conveniently recycled to realize energy storage and utilization, and be beneficial to energy saving.

The utility model discloses a pneumatic feed output device which solves the technical problem that the consistency of the feed quantity output by two paths of a pneumatic feed supply device is poor. The mixing connector is used for mixing feed and carrier airflow to form mixed fluid and outputting the mixed fluid, and a feed supply port, a carrier airflow supply port and a mixed fluid output port are formed in the mixing connector. The feed supply port and the carrier airflow supply port are respectively communicated with the mixed fluid output port to form a mixed feed output channel, the feed supply port is used for being connected with a feed supply source, and the carrier airflow supply port is used for being connected with a carrier airflow supply source; the material mixing joint is provided with two material mixing output channels which are symmetrically arranged left and right, and the two material mixing output channels are in one-to-one correspondence with the independent mixed fluid output ports. Mixed fluid output through the two mixed material output channels which are symmetrical left and right has high consistency in quantity, pressure and composition proportion.

A heating system comprising: a liquid supply system; a cell configured to: receive liquid from the liquid supply system, provide heating thereof, and output heated fluid; a work extraction system configured to extract useable work from heated fluid output from the cell; wherein the cell comprises: (i) a housing arranged to define an internal portion for receiving liquid to be heated, and (ii) a plurality of electrodes configured to apply electrical energy to fluid in the internal portion; and wherein the electrodes are configured to apply electrical energy to said fluid in the internal portion to generate one or more bubbles of plasma for releasing energy into said fluid in the internal portion and the housing to provide heating of the fluid in the internal portion.

A shore power alert system for an over-the-road (OTR) vehicle. The OTR vehicle has a cab, a cargo area, and parking brake system with a parking brake and a compressed air source. The OTR vehicle is coupled to a shore power connection. The shore power connection alert system has a first solenoid valve, a compressed air inlet line, a compressed air outlet line, and a transmission unit. The first solenoid valve has a fluid output line and a fluid input line. The compressed air inlet line is fluidly coupled to the compressed air source. The compressed air outlet line is fluidly coupled to the parking brake.

This application provides an integrated thermal management system for a transport vehicle, its control method, and electronic equipment. The system includes a heat pump air conditioning module, an adsorption refrigeration air conditioning module, a power battery module, a motor thermal management module, a fuel cell thermal management module, a heating, ventilation, and air conditioning (HVAC) module, and a central heat exchange module. The central heat exchange module includes multiple fluid input terminals and multiple fluid output terminals. The fluid input terminals and fluid output terminals are used to connect to a target module to achieve fluid communication. The target module is one of the heat pump air conditioning module, adsorption refrigeration air conditioning module, power battery module, motor thermal management module, fuel cell thermal management module, and HVAC module. This application enables integrated thermal management control based on dynamic temperature judgment, allowing for effective utilization of fuel cell waste heat in transport vehicles, improving thermal management control efficiency and waste heat utilization effect, and can be widely applied in the field of vehicle thermal management control technology.

A gas mixing device comprising a valve arrangement having a base plate comprising at least two inlet ports, an outlet port, at least two valve interfaces, wherein each inlet port is connected with an inlet conduit through the base plate, the outlet port is connected with an outlet conduit through the base plate, the at least two valve interfaces are arranged on an interface surface of the base plate, wherein each valve interface comprises a fluid input connected with one of the inlet conduits and further comprises a fluid output connected with the outlet conduit; a printed circuit board comprising a power supply connector and at least two electrically powered valve connectors, wherein the printed circuit board comprises an electrical connection between the power supply connector and the at least two electrically powered valve connectors, wherein the printed circuit board is located on the interface surface and wherein the electrically powered valve connectors are located on the respective valve interfaces at a predetermined distance.

The utility model discloses a kind of dirt reverse cleaning systems for water source heat pump unit, including two or more water source heat pumps, valve I, valve II and liquid storage tank, liquid storage tank is also provided with cleaning fluid output pipe and cleaning fluid recovery pipe, cleaning fluid output pipe is connected with the wastewater outlet of first water source heat pump, cleaning fluid recovery pipe is connected with the wastewater inlet of last water source heat pump, the wastewater inlet and wastewater outlet remaining in water source heat pump unit are connected, to form a closed loop water source heat pump unit cleaning passage by this. The utility model not only can realize the repeated use of cleaning fluid and save raw material cost, but also can completely realize the cleaning backflush of water source heat pump unit, carry out thorough cleaning and blowdown, can long-term reliable work, system is simple, low in cost, again completely automatic operation, greatly reduce artificial burden.

In an aspect of the invention there is provided a method comprising: pumping fluid from a first source of fluid into a first, motive, fluid store by means of a mechanical pump and storing the fluid under pressure in the first fluid store; releasing fluid under pressure from the first fluid store and supplying the fluid to a motive fluid inlet of a first ejector; drawing further fluid from the first or a further fluid source into the pumping inlet of the first ejector by means of the fluid supplied to the motive fluid inlet; storing fluid output from an outlet of the first ejector in a second fluid store.

This invention belongs to the field of milling equipment technology, and relates to a milling machine for machining control blocks of commercial vehicle transmissions. It includes a machine tool body; a thermoelectric monitoring component electrically connected between the cutting tool and the workpiece, configured to acquire in real time the dynamic signal of the thermoelectric potential generated by friction between dissimilar metals in the cutting contact area; a fluid intervention component having a fluid output end pointing towards the cutting contact area, and configured to controllably switch between a cooling medium and a chilling medium; and a controller communicatively connected to both the thermoelectric monitoring component and the fluid intervention component. This effectively prevents adhering material from further evolving into built-up edge, ensuring the integrity of the machined surface of the transmission control block.

A system includes a pressure exchanger (PX) configured to receive a first fluid at a first pressure, receive a second fluid at a second pressure, and exchange pressure between the first fluid and the second fluid. The first fluid is to exit the PX at a third pressure and the second fluid is to exit the PX at a fourth pressure. The system further includes a condenser configured to receive the first fluid from a compressor and provide corresponding thermal energy from the first fluid to a first environment. The system further includes a heat exchanger along a fluid flow path between the condenser and the inlet of the PX. The heat exchanger is configured to receive the first fluid output from the condenser and provide corresponding thermal energy from the first fluid to fluid input to the compressor.

A device (10; 110) for a propeller (12) includes a body (18; 118), an inlet device (20; 120), and an outlet device (22; 122). The body (18; 118) is configured to be coupled to or form a portion of a hub (14) of the propeller (12). The inlet device (20; 120) is configured to receive a portion of a fluid passing outside the body (18; 118). The outlet device (22; 122) is configured to direct the fluid away from the body (18; 118). The device (10; 110) is configured to convert a flow of fluid received by the inlet device (20; 120) into an axial flow of fluid output from the device (10; 110), thereby preventing or at least mitigating formation of hub vortices downstream of the propeller (12).

The utility model discloses a double fluid atomizing nozzle of replaceable spray head, include: fluid input connecting piece, its inside is equipped with first fluid input passage and second fluid input passage that are independent of each other, spray head subassembly is detachably connected with fluid input connecting piece, spray head subassembly contains outer spray head and the inner spray head nested in its inside, and the inner spray head is equipped with the first fluid output passage and second fluid output passage that communicate, first fluid input passage communicates with first fluid output passage, and second fluid input passage communicates with second fluid output passage. Through independent input and output passage structure, ensure that two kinds of fluid always keep isolated in the inside of nozzle, can open two kinds of fluid atomization simultaneously or open alone according to need. Spray head subassembly and fluid input connecting piece are convenient for quick dismounting, cleaning or replacement, adapt to different working condition demand, be applicable to unmanned plane carries special spraying equipment, be used for agricultural irrigation operation, improve spraying efficiency and coverage area.

The application discloses a high-low pressure switching system of bulging equipment for improving liquid filling efficiency and a forming method, which comprises a low-pressure boosting device, a high-pressure boosting device and a pressure switching device; the low-pressure boosting device outputs low-pressure fluid, and the high-pressure boosting device outputs high-pressure fluid; the pressure switching device comprises a main body, wherein a low-pressure fluid channel, a high-pressure fluid channel and a fluid output passage communicated with the bulging die are arranged on the main body and communicated with the low-pressure boosting device and the high-pressure boosting device; a valve core assembly and a switching channel for the movement of the valve core assembly are movably arranged in the main body; the high-low pressure switching system of the application sets the low-pressure boosting device and the high-pressure boosting device in the same bulging equipment, and cooperatively sets the pressure switching device, so that the fluid pressure required in different stages of the bulging process is directly obtained through the switching mode of the fluid channel, and the work pressure is continuously adjusted in a wide pressure range without depending on a single high-pressure booster, so that the low-pressure liquid filling efficiency is greatly improved.

A carrier used in a cold-hot compress device is configured to be connected to a main unit of the cold-hot compress device so as to receive a fluid output by the main unit, and the carrier includes a main body configured to be used for integrally wrapping one or more legs, a waist, an arm, an upper body, or a whole body of a human body.

The utility model relates to heat exchanger technical field, concretely relates to brazing plate type heat exchanger, including by a plurality of metal plate brazing forming's heat exchanger body and setting at heat exchanger body one side top hot fluid input pipe, heat exchanger body one side top still is equipped with cooling liquid input pipe, heat exchanger body one side below is equipped with hot fluid output pipe, heat exchanger body one side below still is equipped with cooling liquid output pipe, heat exchanger body one side is equipped with first pressure -resisting apron, heat exchanger body other side is equipped with with first pressure -resisting apron structure same second pressure -resisting apron.

The application provides a network fracture body flow conductivity anisotropy testing device and method, the device comprises a fluid injection and control module, a rock sample special-shaped clamping and flow guiding module, a special-shaped sealing rubber sleeve and a fluid output and metering module; the fluid injection and control module comprises a gas injection module and a liquid injection module, the gas injection module simulates a reservoir gas source; the liquid injection module simulates a stress state under reservoir conditions; the special-shaped sealing rubber sleeve is used for placing a rock sample and comprises a rock sample placement cavity; the fluid output and metering module is a dry output gas source, measures an outlet pressure value and a gas flow value, and forms a data record and a flow curve in a computer. The testing device can simulate the overall flow conductivity of a network fracture body under complex fracture morphology and stress conditions formed after reservoir fracturing reconstruction, evaluate the anisotropy degree of the network fracture body flow conductivity, and provide experimental data for reservoir reconstruction fracturing parameter design and post-fracturing production system optimization.

This application discloses a parachute ejection device, an aircraft, and a vehicle, relating to the field of transportation technology. The parachute ejection device is used in an aircraft and includes a launch base, a launcher, and a fluid output device. The launch base has a receiving cavity with an outlet. One end of the launcher is located within the outlet, and the outer peripheral wall of the launcher abuts against the edge of the outlet. The launcher is movable relative to the outlet, and the other end of the launcher is connected to a cover section. The output end of the fluid output device communicates with the receiving cavity and is used to output fluid into the receiving cavity. This increases the pressure within the receiving cavity, causing the launcher to move relative to the outlet of the receiving cavity, thereby achieving the ejection of the cover section. The trajectory of the launcher relative to the outlet is relatively fixed, and the shape of the launcher can be made relatively flat, thus reducing the risk of puncturing the parachute.

The utility model discloses a kind of feed feeding anti suction device and feed water surface automatic feeding system, comprising: mixed fluid input channel, for receiving the mixed fluid from mixed fluid source, mixed fluid is formed by feed and carrier airflow mixing;Mixed fluid output channel is communicated with mixed fluid input channel, for outputting the mixed fluid received to feed feeding device;Wherein, when feed feeding device operates, there is negative pressure formation tendency in the mixed fluid conveying channel formed by mixed fluid input channel and mixed fluid output channel;It also includes air pressure balance channel, which is communicated with the mixed fluid conveying channel, for connecting the mixed fluid conveying channel with external atmosphere, so as to suppress the negative pressure formation tendency. Air pressure balance channel can effectively suppress the negative pressure formation tendency in the mixed fluid conveying channel, prevent the feed in the mixed fluid source from being sucked into the mixed fluid conveying channel due to negative pressure.

The utility model provides a kind of liquid cooling piezoelectric pump for chip heat dissipation, it by integrating multiple vibration components in a pump body, to be applicable to high pressure use scene, compared with using multiple pump bodies are connected, this kind of structure smaller volume, simultaneously compared with traditional liquid cooling pump, the fluid output stability of present scheme is high, driving response is fast, and driving energy consumption is low, solve the energy consumption of traditional liquid cooling pump, short service life, reliability low and other problems.Its structure includes shell assembly, piezoelectric ceramic vibration assembly, piezoelectric ceramic vibration assembly is installed in shell assembly, piezoelectric ceramic vibration assembly and shell assembly form working cavity, working cavity is used for the inflow / outflow of fluid, piezoelectric ceramic vibration assembly can change the pressure in working cavity by deformation, characterized by: working cavity has multiple and is connected in series with each other, multiple working cavities are communicated by flow channel hole on shell assembly.

The utility model relates to cleaning technical field especially relates to a kind of cleaning foam kettle for generating cleaning foam.For the convenience of adjusting the output water type of cleaning foam kettle, the utility model provides a kind of cleaning foam kettle, it includes foaming body and nozzle, in nozzle, the mixing inlet of mixing pipe is connected with the fluid output end of foaming body;Supporting sleeve is fixed on mixing pipe, and foaming ball is arranged between the fluid outlet on supporting sleeve and the mixing outlet on mixing pipe;In adjusting sleeve, positioning sleeve is fixed on supporting sleeve and is close to foaming body;Adjusting sleeve is peripherally fixed on supporting sleeve and is connected with positioning sleeve screw, adjusting inner ring is provided on the inner wall of adjusting sleeve, two center-symmetrical reducing grooves are provided on adjusting inner ring;Water type adjusting clamp is installed and fixed at the fluid outlet on supporting sleeve, and two adjusting clamps are stretched out from adjusting inner ring and are clamped in reducing groove.The utility model is simple and convenient for the output water type adjustment of cleaning foam kettle.

The utility model relates to valve technical field, concretely is a valve ball with check function, including the ball, movable board, the movable board slidingly arranged inside the ball, the placement board, the placement board sets up inside the ball, first spring, both ends of first spring are fixed with movable board and placement board respectively. This valve ball with check function, through the cooperation between the rotating plate and the swing plate, and then when the fluid enters the ball, will promote movable board to move, the movement of movable board will drive rotating plate to move and promote swing plate, at this moment one side of swing plate will promote the baffle longitudinal movement, makes the baffle no longer covers fixed plate, and fluid can pass through the ball quickly, and when fluid output end stops output, movable board is no longer promoted, the baffle will return to the initial and cover fixed plate, makes fluid unable to backflow to the ball, avoids the impact of counterflow, guarantees the normal use of valve.

This utility model discloses a cooking system for efficient heating via a heat-conducting fluid, comprising: a shell including a cooking cavity; a circulation cavity surrounding the surface of the cooking appliance and forming a heat conduction connection with the cooking appliance, the circulation cavity at least covering the bottom and / or outer peripheral wall of the cooking appliance, the circulation cavity having a fluid input pipe and a fluid output pipe for the entry and exit of the heat-conducting fluid, wherein the fluid input pipe is located at the opposite bottom of the fluid output pipe, and the circulation cavity is configured to guide the heat-conducting fluid to be transported upward from the bottom of the cooking appliance; a pump body disposed within the inner cavity and connected between the fluid output pipe and the fluid input pipe, providing power for the flow of the heat-conducting fluid within the circulation cavity; and a heater having at least a heat storage cavity for storing and supplying the heat-conducting fluid, and a heating module forming a heat conduction connection with the heat storage cavity, the heat storage cavity being connected to the fluid input pipe and the fluid output pipe, effectively improving the cooking thermal efficiency.

A fluid delivery system including a pulsation dampener coupled between a standpipe manifold and a standpipe is provided. The fluid delivery system includes a fluid reservoir, a fluid pump, a manifold, a pulsation dampener, and piping. The fluid reservoir stores a fluid used for a drilling procedure. The fluid pump pumps the fluid from the fluid reservoir through the fluid delivery system. The manifold is located downstream from the fluid pump, and receives and combines fluids from the at least one fluid pump. The pulsation dampener receives the combined fluid from the manifold, and dampens residual pulsations from the manifold. The piping receives fluid output from the pulsation dampener, and transfers the fluid received from the pulsation dampener further downstream.

The utility model relates to hydraulic safety valve technical field discloses a kind of hydraulic safety valves of being convenient for installation, including valve body, the fluid input end of valve body is connected with fluid input pipe by mounting assembly, the fluid output end of valve body is connected with fluid output pipe by mounting assembly;The mounting assembly includes fixed ring, connecting flange, push piece, the fixed ring is welded at the port of fluid input end, fluid output end, by the insertion rod on fixed ring from the flange hole on connecting flange passes through, form radial fixed, then by push piece horizontal push in, then the baulk is clamped into through slot, again push push piece so that baulk and insertion rod stagger, form axial stagger, to realize axial fixed, then bolt fixed connecting piece and fixed ring, realize the fixation of push piece, and the bolt of fixed connecting piece here and valve body are in perpendicular state, when using tool screw on bolt, will not collide with valve body.

The sewage reaction device comprises a shell, a first filter plate, a reaction assembly and a second filter plate; the first filter plate is installed in the shell; the first filter plate is used for filtering sewage input through a sewage inlet; a vibration module vibrates each catalytic reactant to adjust the gap between two adjacent catalytic reactants; the sewage filtered through the first filter plate passes through a reaction cavity and catalytically reacts with the catalytic reactant to output fluid; the second filter plate is installed in the shell; the second filter plate is used for filtering the fluid output through the reaction cavity and is connected with a fluid outlet; the fluid outlet is used for discharging the fluid discharged through the second filter plate, so that the sewage is subjected to primary filtration by the first filter plate, catalytic reaction by the catalytic reactant and final filtration by the second filter plate, multi-stage filtration is realized, and the filtering effect of the sewage reaction device is improved.

An apparatus comprising: a plasma generating vessel comprising an electrode; a fluid supply system configured to supply fluid to the plasma generating vessel; an electrical supply system coupled to the electrode to apply electrical energy to liquid in the plasma generating vessel to generate one or more bubbles of plasma therein; a thermal energy store configured to store thermal energy from the heated fluid output from the plasma generating vessel; a work extraction system coupled to the thermal energy store; and a controller configured to control the flow of thermal energy between: (i) the plasma generating vessel, (ii) the thermal energy store, and (iii) the work extraction system, based on an indication of a demanded amount of thermal energy by the work extraction system.

A real-time fluid flow control system comprises a valve manifold with an outlet port that receives fluid output from a fluid source and a return port that sends the fluid back to the fluid source; multiple outlet pipes that transfer the fluid from the outlet port to equipment to be temperature controlled; multiple return pipes that transfer the fluid from the equipment to be temperature controlled to the return port of the valve manifold; multiple sensors connected to the return lines that measure the fluid in the return lines to obtain measurement information such as temperature and flow rate; multiple flow control valves connected to the return lines; and a control module connected to the flow control valves and sensors to control the flow control valves in real time and adjust the flow rate.Therefore, the flow rate of the liquid can be controlled and adjusted in real time to achieve a uniform temperature faster and more accurately.

A nonpowered flow intensifier includes an intensifier cavity having longitudinally spaced first and second cavity ends. An intensifier piston is configured for selective reciprocal motion within the intensifier cavity. The intensifier piston includes a piston head portion longitudinally adjacent the first cavity end and a piston skirt portion extending from the piston head portion. A piston lateral bore extends in a lateral direction at least partially through a solid body of the piston head portion and in fluid communication with the intensifier cavity. A piston reducer bore places the piston lateral bore and an internal void of the piston skirt portion in fluid communication. Pressurized hydraulic fluid travels along an intensifier input fluid path at least from a fluid input port, through at least a portion of the intensifier cavity, the piston lateral bore, and the piston reducer bore, and exits the intensifier cavity via a fluid output port.