30results about "Transverse flow pumps" patented technology

A disk-pack turbine includes two disks each having a waveform surface and a second surface, the waveform surfaces face each other and have an axially centered waveform pattern, at least one disk includes an axially centered opening passing from the second surface to the waveform surface, the disks define an expansion chamber including the at least one opening and a disk chamber between the disks from the expansion chamber to a periphery of the disks. The waveform pattern includes at least one waveform that has an amplitude that varies in a radial direction and the waveform pattern maintains or increases the number of peaks for each level of waveforms progressing out from the inner most waveform about the axial center to the periphery where the increase is by a multiplier of 2 to 8. The second surfaces have a slight parabolic shape or are flat.

The utility model discloses a diving tubular pump with fully-adjustable shaft overflowing blades, and relates to the technical field of water conservancy projects. The device comprises a diving tubular pump, the left end of the diving tubular pump is connected with a round-square gradually-changing flow channel through a left-end expansion joint, and the right end of the diving tubular pump is connected with a vertical shaft flow channel through a right-end expansion joint; a vertical shaft is arranged in the vertical shaft flow channel; an asynchronous submersible motor, a planetary gearbox, a thrust bearing box, a pump section hydraulic model and a hollow adjusting shaft are sequentially arranged in the submersible tubular pump from left to right, and the right end of the hollow adjusting shaft extends into the vertical shaft to be connected with a built-in synchronous hydraulic adjusting mechanism. Diffusion type guide vanes are not arranged any more, excellent conventional pump section hydraulic models, such as south-to-north water diversion series and the like, which are already checked and affirmed can be directly utilized, and meanwhile dynamic operation full adjustment of the vanes of the submersible tubular pump is achieved.

The present disclosure provides a blower that may increase air volume and reduce blade pass frequency (BPF) noise. The blower may include a plurality of casings and an impeller. The impeller may include a rotator, a blade assembly, and a gasket. The rotator may include a hub and an outer rim. The blade assembly may include: a plurality of blades disposed between the hub and the outer rim, and a plurality of flow channels. Each flow channel of the plurality of flow channels may be formed between two adjacent blades of the plurality of blades. The gasket may have a plurality of grooves formed on an outer circumferential surface of the gasket. The plurality of blades may include a plurality of first blades a plurality of second blades. Each of the plurality of second blades may be disposed between two adjacent blades of the plurality of first blades.

An impeller pump has a housing having a suction chamber and a discharge chamber therein, a plurality of discs joined in spaced relationship and positioned within the housing, and a shaft extending through the housing and having an end adapted to be driven by motor so as to be rotated by the motor. The housing has a suction inlet that opens to the suction chamber and a discharge outlet that opens to the discharge chamber. The suction inlet has a pair of flow paths to the suction chamber. The plurality of discs includes a drive disc and a plurality of driven discs. The shaft is affixed to the drive disc such that the plurality of discs rotate within the housing.

The utility model relates to the technical field of drilling machines, and discloses an auxiliary flushing structure of a double-wheel stirring drilling machine, which comprises a drill rod, a drill bit arranged at the bottom, stirring blades arranged on the outer side of the drill bit, a rotor disc arranged at the top and a stator disc arranged at the top of the rotor disc, the liquid conveying assembly is arranged at the bottom of the rotor disc and comprises a rotating shaft fixedly connected to the bottom of the stator disc, a center hole is formed in the rotating shaft, the top of the rotating shaft communicates with the stator disc, a connecting ring is fixedly connected to the bottom of the rotor disc, and the bottom of the connecting ring communicates with a liquid collecting cover; the bottom of the liquid collecting cover is communicated with a liquid conveying pipe; through the arrangement of the liquid conveying assembly, the impact force carried by flushing liquid during flowing can be increased, and then the cooling efficiency of the drill bit and the stirring blades is improved.

A disc pump for removing mineral bearing solids from a collection media in mineral recovery in a mining operation, featuring a housing and a pair of discs. The housing has an input port configured to receive an input fluid flow having a collection media with mineral bearing solids attached thereto, and has an output port configured to provide an exit fluid flow having the collection media and removed mineral bearing solids displaced from the collection media. The pair of discs is attached to a central shaft and configured to rotate in the housing in a rotational direction, the pair of discs having planar surfaces with blade-like strippers attached thereto. Each blade- like stripper has a flat surface and a contoured surface configured to contact the collection media received and remove the mineral bearing solids from the collection media.

Various devices, systems, and methods are described herein that provide bi-directional, and even multi-directional airflow within fan systems. These fan systems can be utilized by devices such as datacenter switches to change from one direction of airflow (such as port side inlet) to another direction (such as port side exhaust). This can be done manually by having a multi-directional fan housed within an enclosure that provides access through a hatch door. The multi-directional fan can be removed and reoriented to a second direction, thus providing airflow with the same quality and pressure in multiple directions. Fan changes can also be automated through one or more interlocking rotational gears coupled to the fans within a housing, such that rotating one gear will rotate each of the fans within the housing, thus changing the direction of the airflow. By doing this, only one fan is needed to provide airflow in multiple directions.

By allowing adjustment of dimensions related to pump characteristics and reducing the load on the shaft and motor, this provides a pump with improved work efficiency. [Solution] The vortex pump according to the present invention comprises an impeller 6 having an impeller blade portion 32 on its outer circumference, and a pump casing 3 that forms an impeller flow path 17 around the impeller 6. The pump casing 3 has a suction port 11, a discharge port 12, and a flow path communicating with the impeller flow path 17. The flow path has a suction port side flow path 15 communicating with the suction port 11 and the impeller flow path 17, and a discharge port side flow path 16 communicating with the impeller flow path 17 and the discharge port 12. A partition wall 18 is provided between the suction port side flow path 15 and the discharge port side flow path 16, and an adjustment tongue portion 13 is provided between the partition wall 18 and the impeller 6 to adjust the size of the gap 21 between the partition wall 18 and the impeller 6. This achieves the intended purpose.

The present disclosure provides a fish guide device for a pump. An axial flow pump blade is located in a runner chamber. A fish guide ring mounted on a wall surface of the runner chamber is arranged at an inlet of the axial flow pump blade. A fish guide cap is mounted on a hub of the axial flow pump blade. A plurality of jet holes are provided on the fish guide ring, to form a jet to guide fish to the fish guide cap. A plurality of fish guide grooves are provided on a surface of the fish guide cap. The present disclosure allows the fish to enter a flow channel of an axial flow pump. This can improve the survival rate of fish and allow the fish to smoothly pass through the axial flow pump.

A tapered rotary disc pump is disclosed, including a disc assembly with a first disc and a second disc arranged in parallel to define a chamber. Each disc has an inner surface with multiple vanes extending toward the chamber. The vane outer ends align with the disc periphery, while vane inner ends extend toward the disc center. At least one vane tapers from the outer end toward the inner end, and optionally from the inner surface toward the chamber, to reduce turbulence and increase pumping efficiency. Standoffs couple the discs together and may extend into the vanes to further minimize turbulence. The vane leading face may include convex and concave portions to enhance fluid flow. Alignment of opposing vanes and equal vane counts between discs provide balanced operation and improved handling of fragile, abrasive, or high-solids fluids.

The novel variable pump comprises a pump shell, and a liquid inlet cavity and a liquid outlet cavity are formed in the two opposite sides of the pump shell respectively. The main shaft is rotationally connected to one side of the pump shell, one end of the main shaft is in transmission connection with a driving part, the main shaft is in key connection with a shaft sleeve, and a sliding stroke allowing the shaft sleeve to slide is formed on the main shaft; the impellers comprise the left impeller fixedly connected to one end of the shaft sleeve and the right impeller fixedly connected to the main shaft, and the left impeller and the right impeller are staggered to define an adjusting cavity; the sliding between the shaft sleeve and the main shaft is used for replacing the existing direct sliding between the bearing and the main shaft, and the left impeller is directly fixed on the shaft sleeve, so that the left impeller does not bear the axial thrust generated during rotation, and meanwhile, the bearing acting on the impeller can be prevented from directly rubbing with the main shaft; and the influence on variable control of the pump body due to transverse movement caused by abrasion of the bearing is avoided.

The high-pressure peripheral pump comprises a peripheral pump body and a liquid inlet pipe, the liquid inlet pipe is integrally formed on the outer side of a pump shell of the peripheral pump body, the high-pressure peripheral pump further comprises a liquid adjusting mechanism, and the liquid adjusting mechanism comprises a hexagonal fixed block, a rotating pipe, a spindle variable-diameter cylinder, an outer connecting pipe, a flange plate, a liquid cutting plate, a reducing cup pipe and a hexagonal protruding block. The liquid adjusting mechanism is arranged at the position of the liquid inlet pipe of the peripheral pump body, and a spindle variable-diameter cylinder, a liquid cutting plate, a side cutting rib plate, a reducing cup pipe and other components in the liquid adjusting mechanism are matched with one another, so that liquid entering the liquid inlet pipe can be effectively adjusted; after liquid enters the spindle variable-diameter cylinder, the flow speed is reduced, the liquid cutting plate and the side cutting rib plate can perform separation and flow division, and the reducing cup pipe guides the liquid to contract and enter the liquid inlet pipe, so that the pressure of the liquid in the liquid inlet pipe is increased, the possibility of cavitation is reduced, the stability of the pump is improved, and the service life of the pump is prolonged.

A system and method in at least one embodiment for separating fluids including liquids and gases into subcomponents by passing the fluid through a vortex chamber into an expansion chamber and then through at least a portion of a waveform pattern present between at least two rotors and / or disks. In further embodiments, a system and method is offered for harnessing fields created by a system having rotating rotors and / or disks having waveform patterns on at least one side to produce current within a plurality of coils. In at least one embodiment, the waveform patterns include a plurality of hyperbolic waveforms axially aligned around a horizontal center of the system.

The application discloses a high-power submersible tubular pump, which comprises the following components: an inner cylinder, a cylinder cavity of which is a sealed cavity; a rotating shaft, which is in rotary cooperation with the inner cylinder and is sealed with the inner cylinder at a contact surface; a rotor assembly, which is arranged in the cylinder cavity of the inner cylinder and is coaxially fixed with the rotating shaft; a stator assembly, which is arranged in the cylinder cavity of the inner cylinder and is in electromagnetic induction cooperation with the rotor assembly so as to drive the rotor assembly and the rotating shaft to rotate; an outer cylinder, two ends of which are communicated with a drainage pipeline, the inner cylinder is coaxially arranged in the outer cylinder, and the outer cylinder and the inner cylinder are fixedly supported through support plates; the support plates are arranged in at least two groups along the axis of the outer cylinder, the outer cylinder, the inner cylinder and the support plates form a sealed cooling cavity, the cooling cavity is communicated with the cylinder cavity of the inner cylinder; and a water pipe, which penetrates through the support plates so as to pass through the cooling cavity of the outer cylinder, and two ends of the water pipe are communicated with external fluid. The application improves the heat dissipation efficiency of the submersible tubular pump matched with the high-power submersible motor, and ensures the stable operation of the submersible tubular pump.

Compressor (100) of the regenerative type configured to work at pressures exceeding 50 bars, comprising a motor (101), at least one magnetic drive coupling (1) connected to said motor (101) and suited to transmit the rotary motion to at least one drive shaft (2), said drive shaft (2) being mechanically connected to said coupling (1), two impellers (3, 4) of the peripheral type mounted on said shaft (2).

This invention relates to the field of vortex pump technology, specifically to a washing vortex pump with a material size selection structure. It includes an integrated plate, a motor, a connector, and a vortex pump. The vortex pump encloses a pump casing and an impeller. The pump casing is connected to an inlet pipe and an outlet pipe. The inlet pipe has an anti-backflow mechanism, and the outlet pipe has a selector body. The selector body includes an adjustment structure and an adjustment plate. The pump casing has a transmission port, and the impeller is connected to a transmission shaft and a fluid separator. In this invention, the adjustment structure allows a lever to rotate a gear ring within a groove, which in turn drives a gear rod meshing with the gear ring to rotate within a vertical groove. This, in turn, drives a screw sleeve threaded to the gear rod to rotate the adjustment plate within a side opening, thereby adjusting the deflection angle of the adjustment plate and the flow area within the outlet pipe. This allows for the targeted extraction of solid particles of different sizes from impurity fluids.

The objective is to improve motor cooling performance in a vortex pump without significantly changing the size of the motor's air vents. [Solution] The motor comprises a double-shaft motor 2 with a rotating shaft 10 extending laterally, an impeller 5 provided on one side of the rotating shaft of the motor 2, a pump casing 3 that rotatably houses the impeller 5 and has a discharge port formed therein for discharging liquid sucked in by the rotation of the impeller 5, a cooling fan 6 provided on the other side of the rotating shaft 10 of the motor 2, and a fan cover 7 that rotatably houses the cooling fan 6 and has an intake port 7a formed therein for drawing in air by the rotation of the cooling fan 6. Multiple cylindrical holes are provided on the outer surface of the motor 2 that connect the inside and outside of the outer surface of the motor 2, and the entire circumference of the outer edge of the motor casing at the holes is rounded, thereby increasing the amount of air flowing into the motor and enhancing the cooling effect.

To provide a viscous pump that can improve pump efficiency by properly discharging lubricating oil pumped through a flow path. [Solution] The viscous pump of the bearing device of the rotating machine according to the embodiment comprises a pump fixed part and a pump rotating part. The pump fixed part has a flow path outer surface and has a suction hole and a discharge hole. The pump rotating part is positioned on the inner circumference side of the pump fixed part such that a flow path is formed between it and the flow path outer surface along the circumferential direction, and rotates together with the machine shaft about the rotation axis, thereby pressurizing lubricating oil through the flow path from the suction hole to the discharge hole. In the viscous pump, a discharge-side oil reservoir is formed from the outlet position to the discharge hole, with the cross-sectional area gradually decreasing toward the outlet position of the flow path, and an outlet connection surface is formed adjacent to the discharge-side oil reservoir from the outer circumference side, which is tangentially continuous with the flow path outer surface at the outlet position of the flow path.

The utility model relates to the technical field of water pumps, in particular to a large submersible tubular pump capable of reducing noise and temperature rise, which comprises a pump section assembly, an overflowing cylinder is arranged outside the pump section assembly, a planetary gear reduction gearbox assembly and a submersible dry-type motor assembly are sequentially arranged on the side edge of the pump section assembly, and the planetary gear reduction gearbox assembly comprises a gearbox body. The submersible dry-type motor assembly comprises a motor main shaft, the interior of the gearbox body is divided into two cavities through a baffle, the motor main shaft penetrates through the gearbox body and the baffle and is coaxially and correspondingly provided with a bearing seat, a planet carrier assembly is arranged in the bearing seat, and the two ends of the planet carrier assembly are installed on the bearing seat through rolling bearings. An oil throwing ring mechanism is arranged between the motor spindle and the baffle, and a circulation pipeline mechanism is further arranged in the gearbox body. According to the utility model, the sound insulation chamber is additionally arranged, and active circulation of cooling lubricating oil is realized, so that the problems of loud noise and obvious vibration are effectively relieved, and a good heat dissipation effect is ensured.

A turbofan (30) includes an end plate (31), a shroud (32), and blade members (33). Of a space between the end plate (31) and the shroud (32) of the turbofan (30), an annular portion where the blade members (33) are provided is a pressure-increase flow path (43). Air flows from an inner peripheral side to an outer peripheral side of the pressure-increase flow path (43). The cross-sectional area of the pressure-increase flow path (43) increases gradually from an upstream end (43a) toward a downstream end (43b) of the pressure-increase flow path (43).

An impeller for a disc pump has a drive disc having a connector adapted to join with a shaft of the disc pump, and a driven disc affixed to the drive disc so as to define a space therebetween. The drive disc has a face facing a face of the driven disc. The drive disc extends in generally parallel relationship to the driven disc. At least one of the faces of the drive disc and the driven disc has an undulating surface thereon. A plurality of posts are affixed to the face of the drive disc and the driven disc. Each of these posts has an airfoil-shaped cross-section in a plane parallel to the face of the drive disc and the driven disc.

The invention relates to a peripheral impeller pump (2) with a drive motor (5), an impeller (16) coupled to the drive motor (5), and a partition (30) arranged between the drive motor (5) and the impeller (16), characterized in that an elastic spring element (36) is provided which allows the impeller (16) to move away from the drive motor (5). The invention also relates to a water supply system for a caravan, comprising a water circuit and such a peripheral impeller pump (2).

The application provides a vortex pump and belongs to the technical field of water pumps. The vortex pump solves the problem of poor heat dissipation effect of the existing water pump. The vortex pump comprises a water pump body provided with an electric control box and a fan body, an output shaft is arranged on the water pump body, a plurality of heat dissipation fins are arranged on the water pump body, a protective cover connected with the water pump body and used for protecting the fan body is arranged on the water pump body, a plurality of air inlet holes are arranged on the front end face of the protective cover, a plurality of air outlet holes are arranged on the rear end face of the protective cover, a sliding cover in sliding cooperation with the protective cover is arranged on the protective cover, a convex ring part one is arranged on the inner circumferential wall of the rear end part of the sliding cover, a plurality of plug columns are arranged on the inner wall of the convex ring part one at the corresponding air outlet holes, a moving unit is arranged on the water pump body, a communication hole is arranged on the end face of the convex ring part one at the corresponding heat dissipation flow channel, and a heat dissipation unit is arranged on the water pump body at the heat dissipation flow channel. The vortex pump has the advantage of good heat dissipation effect.

The utility model relates to the technical field of vortex pumps, and discloses a divergent double-channel anti-winding vortex pump, which comprises a vortex pump body, two connecting components and a linkage component, the vortex pump body comprises a pump body, the two connecting components are respectively arranged at a water inlet and a water outlet of the pump body, and the linkage component is arranged at the water inlet and the water outlet of the pump body. The two connecting assemblies are matched with a water inlet and a water outlet of the pump body correspondingly, and the linkage assemblies are arranged on the connecting assemblies. When a water pipe is installed, a flange plate of the water pipe is connected to the fixing rod on the fixing disc in a sleeved mode, the inner side of the flange plate is pushed to be attached to the fixing disc, then the hexagonal rod is rotated clockwise through a wrench, and the clamping plate can be driven to slide towards the flange plate. The clamping plate slides to drive the wedge-shaped piece to make contact with the outer side of the flange plate and continuously extrude the wedge-shaped piece in the sliding process so that the wedge-shaped piece can be tightly attached to the outer side of the flange plate, finally, the flange plate is tightly clamped, a worker only needs to rotate the hexagonal rod, fastening installation of the flange plate can be completed, and installation convenience is improved.

An improved high viscosity pump system and its rotor are disclosed herein. In an embodiment, a high viscosity pump system includes a motor, a housing having an inlet and an adjacent rotor space, and a rotor. The rotor is located within the rotor space of the housing and is configured to be driven by the motor around a rotational axis. The rotor includes a first plate and a second plate that rotate together around the rotational axis to pump liquid, material or slurry from the inlet to discharge or an outlet.

The utility model relates to a peripheral pump impeller which comprises a wheel rim and a wheel shaft integrally formed in the center of the wheel rim, blades are arranged on the two axial end faces of the wheel rim and extend in the radial direction of the wheel rim, the outer ends of the blades are flush with the outer edge of the wheel rim, and the outer edge of the wheel rim is flush with the outer edge of the wheel rim. And the angle between each blade and the rim deflects towards the rotating direction of the impeller. Aiming at the efficiency and energy consumption problems of the peripheral pump, by changing the shapes of the blades in the impeller and deflecting the angles of the blades towards the rotating directions of the blades, a structure similar to a paddle shape is formed, so that fluid can be guided to enter a flow channel of the peripheral pump more smoothly, the speed distribution of the fluid in the flow channel of the impeller is improved, the hydraulic loss is reduced, and the efficiency is improved; and the energy consumption is reduced.

An improved high viscosity pump system and its rotor are disclosed herein. In an embodiment, a high viscosity pump system includes a motor, a housing having an inlet and an adjacent rotor space, and a rotor. The rotor is located within the rotor space of the housing and is configured to be driven by the motor around a rotational axis. The rotor includes a first plate and a second plate that rotate together around the rotational axis to pump liquid, material or slurry from the inlet to discharge or an outlet.

A liquid delivery device comprises a liquid delivery unit and a liquid delivery rotary unit. The liquid delivery unit comprises a liquid delivery chamber where liquid flows in and flows out, and first and second straight flow channels. The liquid delivery rotary unit comprises a spindle that protrudes at the center of the liquid delivery chamber, and an impeller, supported by an annular part, to be rotatable about the spindle and contains a magnetic material; a drive motor is disposed outside the liquid delivery chamber and causes the impeller to be rotated by magnetic fields. A gap is provided between the outer circumference of the spindle and the inner circle of the annular part. The impeller rotates in a state where the gap is biased relative to a range of contact between the outer circumference of the spindle and the inner circle of the annular part.