Abstract:
A gas liquid absorption device (GLAD) features a gas inlet manifold, a liquid inlet manifold and a gas/liquid mixing foamer. The gas inlet manifold has a gas inlet that receives an inlet gas, and has a gas foamer cavity and coupled fluidically to the gas inlet to receive the inlet gas. The liquid inlet manifold has a liquid inlet to provide a noninfused liquid, and has a liquid foamer cavity and coupled fluidically to the liquid inlet to receive the non-infused liquid. The gas/liquid mixing foamer is between the gas inlet manifold and the liquid inlet manifold and arranged in the gas foamer cavity and the liquid foamor cavity. The gas/liquid mixing foamer has a gas foamer wall that forms a gas receiving foamer chamber that is fluidically coupled to the gas foamer cavity.
Abstract:
A pump features a liquid sensing device (LSD) in combination with a housing. The LSD senses the level of a liquid collecting outside the pump and turns the pump on/off for pumping the liquid. The housing includes a housing wall to contain the LSD. The housing wall has an outside wall surface with an outside sensing surface. The housing includes an inside mounting structure to mount the LSD inside the housing in relation to the outside sensing surface. The outside sensing surface has ribs extending or projecting outwardly away from the outside wall surface in order to prevent an object from being stuck on the outside sensing surface, and allow the LSD to sense the level of the liquid collecting outside the pump and touching the outside sensing surface, reducing a malfunction of the pump due to the object contacting the outside sensing surface.
Abstract:
A modular pump features a gas-control-and-drive-unit (GCDU), a cartridge-style-pumping-module (CSPU) and a retainer clip (RC). The GCDU includes a GCDU-housing to receive/provide gas to a gas-passageway causing a GCDU-force in one direction; an actuator-rod-and-slide-valve-arrangement (AR/SVA) to respond to a CSPM-force and exhaust the gas from the GCDU-housing causing a GCDU-exhaustion-force in an opposite direction; and a GCDU-coupling-member. The CSPM includes a CSPM-housing to receive a fluid to be pumped, and a piston-and-dual-diaphragm-arrangement (PDDA) to respond to the GCDU-force, provide the CSPM-force and pump the fluid from the CSPM, and to respond to the GCDU-exhaustion-force and pump the fluid from the CSPM. The CSPM-housing includes a CSPM coupling member to detachably couple to the GCDU-coupling-member. The RC detachably couples a piston of the PDDA and an actuator rod of the AR/SVA, so the CSPM attaches/detaches from the GCDU using a three-step process for field replacement using the RC.
Abstract:
A pump features a motor, a pump head (PH) and a locking pin (LP) that are uniquely coupled together. The motor has a front end bell (FEB) with a FEB coupling portion configured with twist lock style (TLS) connections with locking portions, and an outer surface with a detent. Each locking portion engages a respective corresponding locking portion when the FEB coupling portion, and the PH coupling portion is twisted together in relation to one another about the longitudinal axis of the pump. Each locking stop abuts against a respective locking portion to stop the FEB coupling portion and the PH coupling portion from twisting together, so the detent and the threaded orifice are aligned to receive the LP, and the motor and pump head are locked together and cannot be pulled apart.
Abstract:
A pumping system for pumping water from streams, ponds or shallow wells having a predetermined depth, featuring a reel assembly to rotate so as to receive, roll-up and retain a hose; a submersible pump assembly having submersible pumps, each connected to a manifold in parallel so as to form a parallel pump configuration, the manifold having a hose connection to couple to the hose; a solar panel to couple and electrically power the submersible pump assembly; and a portable cart having a frame with a first frame part to affix to the reel assembly, a second frame part to affix to the solar panel, a third frame part to detachably receive and retain the submersible pump assembly, and a fourth frame part to affix to the wheel assembly to roll the pump system to a remote location for pumping water in areas with little or no access to grid electricity or liquid fuel.
Abstract:
A pump includes a molded housing configured with a rear endbell portion to receive an armature and bearing, an intermediate motor portion to receive a motor shell and magnets arranged around the armature, and a front endbell portion to receive a diaphragm assembly having a diaphragm support plate supporting a diaphragm, the rear endbell portion, the intermediate motor portion and the front endbell portion being configured as an integrated molded housing unit, the diaphragm having two circumferential diaphragm sealing surfaces. The pump also includes an upper housing configured to assemble and couple to the molded housing so as to form a circumferential fluid-tight sealing arrangement that is configured between the front endbell portion and the upper housing on only one end of the pump.
Abstract:
A compact, lightweight, battery operated, self-priming, positive displacement pump has a combination of an elongated housing having a longitudinal axis; a positive displacement pump assembly configured in the elongated housing, and configured to respond to a motor assembly drive torque, to self-prime, and to pump fluid from an input port to an output port; a motor assembly configured in the elongated housing and configured to respond to signaling and provide the motor assembly drive torque; a pump control interconnect assembly configured in the elongated housing, and configured to provide the signaling to control the operation of the motor assembly by current based on run dry mode.
Abstract:
An air operated diaphragm pump is provided featuring a housing, a fluid passageway and an indicator arrangement. The housing is configured with an orifice. The fluid passageway responses to a vacuum force and provides fluid, such as syrup from a bag or container to a beverage dispenser, through the air operated diaphragm pump via the fluid passageway, and is configured with a suction plenum or channel formed by an enclosed space with an inside pressure that is greater than an external pressure of the outside atmosphere when the fluid is being provided through the air operated diaphragm pump via the fluid passageway.
Abstract:
A pump has a signal processor, including one forming part of a printed circuit board assembly, that receives signaling containing information about a voltage supplied to a motor to run a particular pump model, and also containing information about whether a current draw of the pump is lower than a predetermined low current level or is higher than a predetermined high current level; and determines whether to shut off the pump after a predetermined time, based on the signaling received. The signal processor provides control signalling to shut off the pump after the predetermined time if the current draw of the pump is lower than the predetermined low current level or is higher than the predetermined high current level, where the predetermined low current level and the predetermined high current level depend on the voltage being supplied to the motor to run the particular pump model.
Abstract:
A pump mounting system for mounting a pump to a beverage dispensing system, the pump mounting system featuring a pump, an elastic pump mounting bracket, the elastic pump mounting bracket dampening the transmission of vibration from one end of the pump to the system; and a flexible looped hose connection having a corresponding pump-to-hose connector portion to coupled to the pump-to- hose connector portion of the pump, and having a hose-to-system connector portion to couple to a corresponding hose-to-system connector portion of the system, an intermediate looped hose connection portion to couple together the corresponding pump-to-hose connector portion and the hose-to-system connector portion, the flexible looped hose connection to provide a flow path connection to the system and dampen the transmission of the vibration of the pump to the system via the flow path connection.