58 results about "Charged fluid" patented technology

The invention discloses a positive penetration sea water desalinization strong brine processing technology which comprises the following steps: adopting a positive penetration membrane component, using strong brine obtained by desalting sea water as drawing liquid, using freshwater as charging liquid, discharging the strong brine from the positive penetration membrane component after the strong brine obtained by desalting sea water mixes part of freshwater permeated from a charging side at a permeation side of the positive penetration membrane component and turns into diluted standard-reachingbrine; and discharging residue of the charging liquid from the positive penetration membrane component. The invention also discloses a positive penetration sea water desalinization strong brine processing system which comprises a charging fluid water pump, a positive penetration membrane module, a drawing liquid water pump connected with a transmission side of the positive penetration membrane module, wherein a charging fluid side of the positive penetration membrane module is connected with the charging fluid water pump and provided with a residual charging fluid discharging port, and the transmission side of the positive penetration membrane module is provided with a diluted standard-reaching brine discharging port. The invention can dilute strong brine obtained by desalting sea water to the level of the original sea water, thus avoiding the rising of local sea area salinity when sea water is discharged and protecting marine environment.

A charging fluid suctions module is provided for an internal combustion engine, comprising a housing forming a flow path for a gaseous charging fluid, particularly air, a gas, and / or an air / gas mixture. Whereby, a heat exchanger is disposed in the housing for the gaseous charging fluid. In order to allow for an improved exhaust gas return the housing comprise an inlet channel for an exhaust gas, and the inlet channel flows into the flow path downstream of the heat exchanger for the gaseous charging fluid.

A supply facility is configured to charge fluid to a tank of a movable object. A charging profile storage unit is provided to the movable object to store a charging profile specifying a charging pressure of fluid in each elapsed time point from a beginning of fluid charge. A charging profile transmission unit is provided to the movable object to transmit the charging profile to the supply facility. A charging profile reception unit is provided to the supply facility to receive a charging profile transmitted from the charging profile transmission unit. A charging pressure control unit is provided to the supply facility to control charging pressure of fluid according to the charging profile when fluid is charged to a movable object, which corresponds to the charging profile.

Disclosed herein is the apparatus that produces very small or nano-sized, charged droplets and the methods for producing such charged fluid droplets. This apparatus avoids the problems known to exist with using spray nozzles having very small orifices to produce such small fluid droplets, those problems including clogging of the nozzles.

A charging fluid suctions module is provided for an internal combustion engine, comprising a housing forming a flow path for a gaseous charging fluid, particularly air, a gas, and / or an air / gas mixture. Whereby, a heat exchanger is disposed in the housing for the gaseous charging fluid. In order to allow for an improved exhaust gas return the housing comprise an inlet channel for an exhaust gas, and the inlet channel flows into the flow path downstream of the heat exchanger for the gaseous charging fluid.

A hydraulic system (20) is provided having a reservoir (25) configured to hold a supply of fluid. The hydraulic system also has a variable displacement pump (36) configured to supply charge fluid andpilot control fluid to the hydraulic system. In addition, the hydraulic system has a closed-loop portion (32) configured to receive charge fluid from the variable displacement pump and drive a mechanism (22). The hydraulic system further has a pilot fluid supply portion (28) configured to direct pilot control fluid from the variable displacement pump to the closed-loop portion.

In an exhaust gas turbocharger system for charging an engine including a compressor arrangement at a charging fluid side LL and a turbine arrangement at an exhaust gas side AG, a further compressor which is driven by a separate controllable drive and whose primary side is connected to the charging fluid side LL while its secondary side is connected to the exhaust gas side is provided for compressing charge air taken from the charging fluid side and supply it to the exhaust gas side for assisting driving the exhaust gas turbines so as to maintain them at relatively high speeds in transition periods including engine idling.

A hydrostatic transmission comprises a hydraulic pump, a hydraulic motor, first and second main fluid passages fluidly connecting the hydraulic pump to the hydraulic motor so as to constitute a closed fluid circuit, a charge fluid passage, a plurality of first charge check valves and a plurality of second charge check valves. The plurality of first charge cheek valves are interposed between the charge fluid passage and the first main fluid passage so as to allow only flow of fluid from the charge fluid passage to the first main fluid passage when the first main fluid passage is hydraulically depressed relative to the charge fluid passage. The plurality of second charge check valves are interposed between the charge fluid passage and the second main fluid passage so as to allow only flow of fluid from the charge fluid passage to the second main fluid passage when the second main fluid passage is hydraulically depressed relative to the charge fluid passage.

A hydrostatic transmission comprises a hydraulic pump, a hydraulic motor, first and second main fluid passages fluidly connecting the hydraulic pump to the hydraulic motor so as to constitute a closed fluid circuit, a charge fluid passage, a plurality of first charge check valves and a plurality of second charge check valves. The plurality of first charge cheek valves are interposed between the charge fluid passage and the first main fluid passage so as to allow only flow of fluid from the charge fluid passage to the first main fluid passage when the first main fluid passage is hydraulically depressed relative to the charge fluid passage. The plurality of second charge check valves are interposed between the charge fluid passage and the second main fluid passage so as to allow only flow of fluid from the charge fluid passage to the second main fluid passage when the second main fluid passage is hydraulically depressed relative to the charge fluid passage.

A method of producing a print on a recording medium includes receiving image data for the print to be produced. A selected region of the recording medium is discharged. Charged fluid is deposited in a selected charged-fluid pattern corresponding to the image data on the selected region of the recording medium. Charged dry ink having charge of the opposite sign as the charge in the deposited charged-fluid pattern is deposited onto the recording medium. The deposited dry ink is repelled by the charged-fluid pattern and adheres to the recording medium outside the charged-fluid pattern.

A supply facility is configured to charge fluid to a tank of a movable object. A charging profile storage unit is provided to the movable object to store a charging profile specifying a charging pressure of fluid in each elapsed time point from a beginning of fluid charge. A charging profile transmission unit is provided to the movable object to transmit the charging profile to the supply facility. A charging profile reception unit is provided to the supply facility to receive a charging profile transmitted from the charging profile transmission unit. A charging pressure control unit is provided to the supply facility to control charging pressure of fluid according to the charging profile when fluid is charged to a movable object, which corresponds to the charging profile.

The invention relates to the technical field of valve structures and discloses a coded lock valve structure. The coded lock valve structure comprises a valve assembly. The valve assembly comprises a valve body with an air flue. A coded lock assembly is arranged in the valve body in the axial direction of the valve body. The coded lock assembly comprises a lock plate set capable of rotating in the valve body in the axial direction to control the air flue to be switched on or off. According to the coded lock valve structure, the lock plate set capable of rotating in the axial direction is arranged in the valve body in the axial direction of the valve body, the lock plate set is directly or indirectly driven by an unlocking mechanism to rotate by a corresponding password angle, the lock plate set controls the air flue to be switched on or off after rotating by the corresponding password angle, thus, the purpose of limiting charging of charging fluid or allowing charging of the charging fluid can be achieved, the charging limiting safety is high, and operation is easy.

A continuous printing apparatus includes a printhead including a first row of nozzles and a second row of nozzles. The first row of nozzles are spaced apart from the second row of nozzles by a distance A. The nozzles of the first row and the nozzles of the second row have a nozzle to nozzle spacing B when compared to each other. The apparatus includes a plurality of charging electrodes with one of the plurality of charging electrodes corresponding to each of the nozzles of the first row and the second row, wherein A≧B / 2. The apparatus can include a first deflection electrode and a second deflection electrode with the first deflection electrode being spaced apart from the second deflection electrode by a distance D, wherein D>A.

A tool assembly includes a body supporting a rotatable nut which receives and mates with a bleeder valve threaded into a hydraulic fluid system such as a caliper wheel brake or a clutch for a motorcycle. The nut is sealed to the system, and the nut is rotated to move the bleeder valve to an open position while maintaining the seal between the nut and the fluid system. A passage within the body and the nut provides for evacuating the system and then charging fluid into the system. The nut is rotated to move the bleeder valve to its closed position, and the nut is then unclamped and unsealed from the fluid system. In one embodiment, the bleeder valve is gripped to clamp and seal the nut to the fluid system, and in another embodiment, the nut is sealed to the system using a clamping member opposing the nut.

The invention relates to an interface assistant spinneret-free electrofluid mechanics method, in particular to a method for applying a force to a spinneret-free electrofluid mechanics interface namely a starting jet flow interface of a charged and processed material so as to assist the charge fluid to break through the surface tension of the electrofluid mechanics interface and the mutual acting forces in the fluid to process and deal with a processed material, in addition to an electrostatic force, and a selectable acting force, of which the vertical magnetic field acts on a sharp needle-shaped bulge vertical to a surface layer and formed by the perturbation effect on the free surface of a magnetic fluid, which adapts to the charged fluid motion direction namely a direction that the direction of an acting force is the same as that of an electric jet flow or has the same direction component. The method suitable to serve as the method for preparing a superfine material which has one or more functions including separation, protection, antibacterium, deodorization, catalysis, sensing, decoration, structure supporting, biocompatibility, storage, controllable release, electric conduction, restoration, medical treatment, health care, intelligent response, redolence and adhesion. The prepared superfine material is applied to structures of solid, hollow or nuclear shell structured particles, fibers, thin films, cloth blocks or block structures, and can be processed with low cost on a large scale.