181 results about "Fluid output" patented technology

A high-temperature and high-pressure core displacement test system includes a CT scanner configured to perform CT scanning, a gripper system configured to grip a core, a machine tool configured to move the gripper system to the CT scanner for CT scanning, a gripper load control system configured to heat and input a fluid into or / and receive a fluid output from the gripper system, and an acquisition and data analysis system configured to acquire a temperature and a pressure within a core gripping cavity, and detection data of the CT scanner and strain rosettes for analysis. According to the high-temperature and high-pressure core displacement test system and method, the strength of the gripper system in a high-temperature and high-pressure environment is improved, the projection performance of CT rays is ensured, and the optical fiber positioning precision and the core deformation measurement precision in a CT rapid scanning state are improved.

The utility model relates to cleaning equipment and a cleaning system. The cleaning equipment comprises a cleaning working part and a heater. The cleaning working part comprises a cleaning piece and a fluid output piece, and the fluid output piece is located in front of the cleaning piece; the heater is used for heating the cleaning liquid to generate hot cleaning liquid or steam; the cleaning equipment has a steam cleaning mode and a powerful cleaning mode; in the steam cleaning mode, the steam is conveyed to a surface to be cleaned through the fluid output piece; and in the powerful cleaning mode, the hot cleaning liquid is conveyed to the surface to be cleaned through the fluid output piece. The cleaning equipment and the cleaning system have a good cleaning effect.

The invention provides a pumping unit and a fluid balancing method, and belongs to the field of petroleum extraction machinery. The pumping unit comprises a base, a supporting seat is fixedly installed on the base, and a motor, a speed reducer and a support are installed on the supporting seat. The walking beam is connected with the bracket through a bearing seat; an output shaft of the speed reducer is connected with the walking beam through a crank and a connecting rod of the four-rod mechanism; the two ends of the walking beam are connected with a first horse head and a second horse head respectively, the first horse head and the second horse head are communicated through a connecting pipe arranged between the first horse head and the second horse head, an electric valve is arranged on the connecting pipe, and an electric cabinet is further arranged on the supporting seat and electrically connected with the electric valve. The oil pumping unit is used for two oil wells close to each other, the function that one oil pumping unit pumps two oil wells is achieved, the equipment investment of one oil pumping unit can be saved, the running loss of one oil pumping unit is reduced, and fluid balance is used for balancing the load difference of the two oil wells; after the balance box is arranged on the second horse head, the second horse head can be only used for pumping oil of one oil well, and fluid balance is used for weight difference between the oil well and the balance box.

An actively-cooled heat shield system includes a heat shield, a tank, a pump, a heat exchanger, and a turbine. The heat shield defines a windward side of a vehicle. The tank stores a coolant. The pump receives the coolant from the tank and outputs a pressurized coolant. The heat exchanger is integrally connected with the heat shield. The heat exchanger receives the pressurized coolant from the pump, transfers heat from the heat shield to the pressurized coolant to generate a heated fluid, and outputs the heated fluid. The turbine includes an inlet, a shaft, and an outlet. The inlet receives the heated fluid output from the heat exchanger. The shaft is coupled to the pump and includes turbine blades. The shaft rotates and powers the pump when the heated fluid received from the heat exchanger acts on the turbine blades. The outlet outputs the heated fluid.

A flexible bioprocessing vessel includes at least six side panels forming sides of the flexible bioprocessing vessel, a top panel adjoining the at least six side panels, the top panel forming a top of the flexible bioprocessing vessel, a bottom panel adjoining the at least six side panels, the bottom panel forming a bottom of the flexible bioprocessing vessel, the at least six side panels, top panel, and bottom panel defining an interior cavity configured for processing a fluid, the at least six side panels joined together via vertical welds. The vessel further includes at least one fluid input and at least one fluid output for adding and removing fluid to and from the interior cavity respectively. Wherein the flexible bioprocessing vessel is configured for use within a rigid support structure having a cylindrical interior.

Embodiments of systems and methods for enhancing control of a distillation operation are disclosed. The method includes obtaining data for a plurality of ongoing and continuous distillation operations from one or more of (a) a plurality of sensors or (b) a plurality of analyzers configured to analyze fluid output via the distillation operations. The method may include determining one or more parameters for each one or more of one or more distillation columns or distillation control devices based on application of the data to a machine learning model. The method may include in response to determination of the one or more parameters, operating each of the one or more distillation columns or distillation control devices based on the one or more parameters, thereby to enhance operation of the one or more distillation column.

The utility model discloses an oil removal system for nickel sulfate liquid. The oil removal system comprises a filtering structure and a plurality of oil removal tanks, the multiple oil removal tanks are sequentially communicated, and a solution in the oil removal tank at one end can flow into the oil removal tank at the other end; the filtering structure is communicated with the oil removal tank located at the tail end of the solution flowing direction and used for intercepting oil absorption materials in fluid output by the oil removal tank at the tail end of the solution flowing direction. According to the scheme, the adsorption material and the nickel sulfate solution to be subjected to oil removal can be continuously added into the liquid inlet tank, and when the adsorption material and the nickel sulfate solution sequentially flow among the multiple oil removal tanks, the adsorption material can be in full contact with oil, the oil absorption effect is guaranteed, oil can be continuously removed, and the oil removal efficiency of the nickel sulfate solution is improved.

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.

The utility model discloses a gas-liquid separation device with a cyclone cavity and cleaning equipment, the gas-liquid separation device is internally provided with a containing cavity, the containing cavity is internally provided with a separation barrel, the separation barrel is provided with a filtering cavity and the cyclone cavity, the filtering cavity is provided with a first outlet communicated with the containing cavity, and a mixture passes through the filtering cavity to separate solids from fluid; a fluid is discharged into the containing cavity through the first outlet for primary separation, the cyclone cavity is provided with a tangential first inlet, a cyclone column is arranged at the center of the cyclone cavity, the fluid in the containing cavity enters the cyclone cavity through the first inlet for secondary separation, and solid-liquid separation is conducted on the fluid with solids through the filtering cavity. The fluid is discharged into the containing cavity to be subjected to gas-liquid separation under the action of gravity, most of the liquid is reserved in the containing cavity, and the fluid with a small part of the liquid enters the cyclone cavity to be subjected to secondary separation, so that the separation efficiency is greatly improved.

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.

The present disclosure relates to a mixer for fluids. The mixer comprises a first pipeline for limiting a first accommodating cavity; the first fluid inlet is communicated with the first accommodating cavity, so that first fluid enters the first accommodating cavity through the first fluid inlet; a second containing cavity is defined by the second pipeline, at least part of the second pipeline extends into the first containing cavity, at least part of the second pipeline comprises a fluid output part, and the fluid output part comprises a plurality of first through holes communicating with the second containing cavity and the first containing cavity; the second fluid inlet is communicated with the second accommodating cavity, so that second fluid enters the second accommodating cavity through the second fluid inlet; the fluid outlet is used for outputting the mixed fluid; and the driving unit is configured to drive the second pipeline to rotate relative to the first pipeline. According to the technical scheme disclosed by the invention, the mixed fluid can be fully mixed, so that the formation of uniformly mixed fluid is facilitated.

An air duct assembly, a blowing device and an electric hair dryer are provided. A first air inlet and an air outlet are formed in the air duct assembly. The air duct assembly is provided with a first passage, a first diversion passage, a second passage, a second diversion passage and a third passage. Fluid is conveyed to the first diversion passage along a first direction. The fluid entering from the first passage is diverted to to a second direction and enabling the fluid to enter the second passage. The second passage is configured for diverting the fluid to the second diversion passage along a second direction. The second diversion passage is configured for diverting the fluid output from the second passage to a third direction and enabling the fluid to enter the third passage. The third passage is configured for diverting the fluid to the air outlet.

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 configured to receive the first fluid output from the condenser.

A mechanical ventilator includes an oscillating flow controller, a respiratory interface, and an accumulator having a first variable volume chamber fluidly coupled to a bi-directional fluid port of the flow control valve, a second variable volume chamber fluidly coupled to the respiratory interface, a displaceable diaphragm fluidly separating the first variable volume chamber from the second variable volume chamber, and a biasing element configured to bias the diaphragm in the direction of the first variable volume chamber. In use, the oscillating flow controller provides an oscillating fluid output to the accumulator, thereby causing the accumulator to oscillate between first and second states, wherein the accumulator draws breathing air into the second variable volume chamber when transitioning from the second state to the first state, and wherein the accumulator forces breathing air from the second variable volume chamber to the respiratory interface when transitioning from the first state to the second state.

The invention discloses an integrated fluid filling system and a medical analysis instrument, and relates to the technical field of medical instruments. The system comprises a fluid storage assembly, a fluid drive and control device, a fluid buffer conditioning unit and a fluid output interface. The fluid storage assembly comprises a hard outer shell and a deformable flexible fluid container arranged in the hard outer shell, and the fluid storage assembly and the fluid drive and control device form a closed loop through a resealable connecting mechanism. The fluid buffering and conditioning unit is arranged in the pipeline and is used for carrying out gas-liquid separation and pressure buffering on the fluid; the position of the fluid output connector is fixed, and liquid suction movement does not need to be executed. Through integration of flexible sealed storage, continuous fluid driving and a modular buffer mechanism, the problems that in the prior art, reagents are frequently replaced, the filling speed is limited, and bubbles interfere with precision are solved, and the sample treatment efficiency, the test stability and the space utilization rate of the medical analysis instrument are remarkably improved.

A pressure exchange chamber comprising a pressure exchange chamber tube (12) extending around a perimeter, a drive fluid input valve (44) and a drive fluid output valve (46), both valves enclosed by the pressure exchange chamber tube, and a slurry input valve (34) and a slurry output valve (36), both valves enclosed by the pressure exchange chamber tube. Also disclosed is a hydraulic ore hoisting system (HOHS) for the sea comprising a plurality of such pressure exchange chambers.

The utility model relates to a deflector rod triggering springback structure and a coffee machine, and belongs to the field of coffee machines. The control assembly is arranged on the conveying assembly, and the control assembly is used for controlling the conveying assembly to start or stop outputting the fluid; the moving assembly is arranged on the conveying assembly and located in the containing cavity, the moving assembly can move relative to the conveying assembly, the moving assembly at least has a first position and a second position when moving relative to the conveying assembly, and the moving assembly abuts against the control assembly when located at the first position; the moving assembly is separated from the control assembly when located at the second position; and the driving assembly is arranged on the conveying assembly, and the driving assembly can drive the moving assembly to move relative to the conveying assembly. According to the deflector rod triggering springback structure, when the moving assembly is separated from the control assembly, steam stops being output from the conveying assembly, and the control mode is stable and reliable.

Liquid cooling apparatuses for high power density electronics are disclosed. The liquid cooling apparatuses can include multiple integrated cooling channels for cooling electronics with various configurations of cooling channels and fluid distribution paths. Fluid input and output ports connect to supply and return loops of an external cooling source to distribute cooling liquid to the electronics and return the liquid. The fluid input port can connect to an inlet channel that distributes the cooling liquid to multiple inlets of the multiple integrated channels. The fluid output port can connect to an outlet channel that provides a converging channel for fluid exiting the multiple integrated channels. The multiple cooling fins and channels, inlet channel, outlet channel, fluid input port, and fluid output port can be integrated into a stacked plurality of frames to assemble the liquid cooling apparatus.

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.

The invention provides an integrated heat management system of a transport vehicle, a control method of the integrated heat management system and electronic equipment. The integrated heat management system comprises a heat pump air conditioner module, an adsorption type refrigeration air conditioner module, a power battery module, a motor heat management module, a fuel cell heat management module, a heating and ventilation module and a central heat exchange module. The central heat exchange module comprises a plurality of fluid input ends and a plurality of fluid output ends; the fluid input end and the fluid output end are used for being connected with a target module to achieve fluid communication, and the target module is one of the heat pump air conditioner module, the adsorption type refrigeration air conditioner module, the power battery module, the motor heat management module, the fuel battery heat management module and the heating and ventilation module. Thermal management integrated control based on temperature dynamic judgment can be achieved, fuel cell waste heat of the transport vehicle can be effectively utilized, the thermal management control efficiency and the waste heat utilization effect are improved, and the method can be widely applied to the technical field of vehicle thermal management control.

The fluid processing system includes a pressure exchanger (PX) configured to receive a first fluid at a first pressure and a second fluid at a second pressure and exchange pressure between the first fluid and the second fluid. The system further includes a condenser configured to provide corresponding thermal energy from the first fluid to a corresponding environment. The system further includes a receiver configured to receive the first fluid output by the PX. The receiver includes a chamber for separating the first fluid into a first gas and a first liquid. The system further includes a heat exchanger configured to receive the second fluid from a second outlet of the PX and provide the second fluid to a second inlet of the PX.

The present application provides a fluid material discharging machine, which comprises a discharging cavity extending outwardly from a body of the fluid material discharging machine; a plurality of pumps respectively configured to draw a plurality of fluid materials stored in a plurality of material containers and to push the corresponding fluid materials forward; a fluid output device disposed at a bottom of the discharging cavity and comprising a plurality of discharging ports, wherein the plurality of discharging ports are coupled to the plurality of pumps through a plurality of material conveying channels; and a cold air channel coupled to the discharging cavity and configured to introduce cold air into the discharging cavity to maintain an internal temperature of the discharging cavity below a predetermined temperature. The cold air channel can introduce cold air into the discharging cavity to maintain an internal space of the discharging cavity in a low-temperature state, so as to maintain the fluid materials in the related material conveying channels in a low-temperature state.

The invention relates to a direct drive type electro-hydraulic power unit, a magneto-rheological valve group, a suspension system and a method, the electro-hydraulic power unit comprises a motor assembly, a magneto-rheological valve group, a magneto-rheological valve group and a magneto-rheological valve group, the motor assembly comprises a motor shell, a motor stator and a motor rotor, and the stator is fixed in the motor shell; the mechanical transmission assembly is arranged in the motor assembly and comprises a lead screw and a nut which are matched with each other; the hydraulic pumping assembly is fixedly connected with the motor shell or integrally formed with the motor shell and comprises at least one piston cylinder and a piston located in the piston cylinder. A motor rotor is fixedly connected with one of the lead screw or the nut to drive the lead screw or the nut to rotate; the rotation freedom degree of the other one of the lead screw and the nut is limited, only the axial movement freedom degree is reserved, and the other one is in transmission connection with the piston. According to the fluid output structure, the piston divides the piston cylinder into at least one sealing cavity for containing transmission fluid, the sealing cavity comprises a first oil cavity and a second oil cavity, and a fluid oil port used for being communicated with an external load is formed in the sealing cavity.

A fluid flow real-time regulation and control system comprises a valve terminal which is provided with an outflow hole for receiving fluid output by a fluid source and a backflow hole for sending the fluid back to the fluid source; the plurality of flow removing pipelines are used for sending the fluid in the flow removing holes to equipment to be subjected to temperature control; the plurality of return pipelines are used for sending the fluid which is sent to the equipment to be subjected to temperature control by the return pipelines back to the return holes of the valve terminal; the plurality of sensors are respectively connected with the return pipelines, each sensor can sense the fluid in the corresponding return pipeline to obtain sensing information, and the sensing information comprises the temperature and the flow of the fluid; the plurality of flow control valves are respectively connected with the return pipelines; the control module is connected with the flow control valves and the sensors in a wired or wireless mode and controls the flow control valves to adjust the flow in real time. Therefore, the fluid flow can be controlled and adjusted in real time, and the temperature equalizing effect can be achieved faster and more accurately.

An automatic toilet cleaning device includes a container which contains a fluid cleaning agent and which is suspended in a tank of a toilet. A venturi valve is included which has a fluid input, a fluid output and a mixing input in fluid communication with each of the fluid input and the fluid output. The fluid input receives water from a fluid supply each time the toilet is flushed. The mixing input is in fluid communication with the container to mix the fluid cleaning agent with the water flowing through the venturi valve each time the toilet is flushed. The fluid output dispenses the mixture of the fluid cleaning agent and the water into a bowl of the toilet for cleaning the bowl of the toilet each time the toilet is flushed. The venturi valve includes a throttle for controlling a volume of the fluid cleaning agent.

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.

The invention relates to the cross technical field of waste plastic recovery, clean energy and chemical synthesis, and discloses a methanol co-production preparation system and method based on waste plastic treatment and green hydrogen synergy. The oxygen output end of the reactor main body circulates into the reactor main body to perform oxidation exothermic reaction on the product; the fluid output end of the reactor main body is connected to the input end of the separator, and the gas output end of the separator is connected to the input end of the methanol synthesis tower; the liquid output end of the separator is provided with a branch, and one branch is connected to the fluid input end of the reactor main body after being mixed with waste plastic slurry; the other branch is connected to the fluid input end of the electrolytic bath to form a closed-loop circulation structure of the fluid; the method lays a foundation for efficient clean conversion of waste plastics and low-energy-consumption co-production of green methanol.

A rotating planter apparatus being a vertical planter that is disposed upon a resting surface utilizing a light source, the rotating planter including a first surrounding sidewall, a second surrounding sidewall, and an annular buoyant element that includes a submerged side and an opposing top side, wherein the submerged side is disposed within the second surrounding sidewall that has a circulating fluid to rotate the buoyant element from a pump in the first surrounding sidewall that acts as a fluid reservoir. Also, a third surrounding sidewall that is mounted on the buoyant element top side, a portion of the pump fluid output goes to an interior of the third surrounding sidewall to water plants disposed therethrough the third surrounding sidewall wherein the water gravity flows back to the pump, with the rotating third surrounding sidewall facilitating selectable exposure to the plants from the light source.

A system includes a dielectric barrier discharge (DBD) reactor. The DBD reactor includes a plurality of dielectric barriers. The DBD reactor also includes a plurality of electrodes disposed between the plurality of dielectric barriers. The system also includes a diffuser system fluidly coupled to an outlet of the DBD reactor. The diffuser system is configured to direct a fluid output through the outlet to one or more channels disposed between the plurality of dielectric barriers. The diffuser system includes a diffuser configured to diffuse the fluid into the one or more channels to cool at least one dielectric barrier of the plurality of dielectric barriers.