US20160040660A1 - Water Extraction System - Google Patents

Water Extraction System Download PDF

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Publication number
US20160040660A1
US20160040660A1 US14/456,207 US201414456207A US2016040660A1 US 20160040660 A1 US20160040660 A1 US 20160040660A1 US 201414456207 A US201414456207 A US 201414456207A US 2016040660 A1 US2016040660 A1 US 2016040660A1
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United States
Prior art keywords
chamber
water
piston
further including
mounting disk
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US14/456,207
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Sudhir Pandit
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Individual
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Individual
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Priority to US14/456,207 priority Critical patent/US20160040660A1/en
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04BPOSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS
    • F04B23/00Pumping installations or systems
    • F04B23/04Combinations of two or more pumps
    • F04B23/08Combinations of two or more pumps the pumps being of different types
    • F04B23/10Combinations of two or more pumps the pumps being of different types at least one pump being of the reciprocating positive-displacement type
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04BPOSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS
    • F04B47/00Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps
    • F04B47/02Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps the driving mechanisms being situated at ground level
    • F04B47/024Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps the driving mechanisms being situated at ground level actuated by muscle power
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04BPOSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS
    • F04B47/00Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps
    • F04B47/02Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps the driving mechanisms being situated at ground level
    • F04B47/04Pumps or pumping installations specially adapted for raising fluids from great depths, e.g. well pumps the driving mechanisms being situated at ground level the driving means incorporating fluid means
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04BPOSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS
    • F04B9/00Piston machines or pumps characterised by the driving or driven means to or from their working members
    • F04B9/08Piston machines or pumps characterised by the driving or driven means to or from their working members the means being fluid
    • F04B9/12Piston machines or pumps characterised by the driving or driven means to or from their working members the means being fluid the fluid being elastic, e.g. steam or air

Definitions

  • the present invention relates generally to water pumping systems, more specifically but not by way of limitation, a water extraction system operable to retrieve ground water from a source such as a well wherein the water extraction system utilizes a combination of a first pump located on the surface and a second pump that is submersed in a water source.
  • Conventional water pumps are known in the art and are typically placed proximate the water source and have a pipe or similar element that is extended down into the water source wherein the pump is used for extraction of the water. These water pumps can be manually powered or powered by an electric or combustion motor.
  • One issue with these conventional water pumps is that the pumping system requires that all components be disposed proximate the water source. In some environments this is undesirable.
  • water pumps that utilize electric or combustion motors have a higher cost of operation and require periodic maintenance. Further these styles of pumps in particular the combustion motor powered pump emit gases harmful to the atmosphere.
  • a water pumping system that provides an efficient method of extracting water from a desired source wherein the water pumping system includes an operable component that a user can engage to operate the water pumping system that does not have to be proximate the water source.
  • Another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the water pumping system that includes a second pump fluidly coupled with the first pump wherein the second pump is submersed in the water source.
  • a further object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the first pump is an air pump operable to provide pressurized air to the second pump.
  • An additional object of the present invention is to provide a water pumping system operable to facilitate the extraction of water from a desired source wherein the second pump includes a first cylinder and a second cylinder parallel in configuration and adjacent to each other.
  • Yet another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the second pump further includes a union operably coupling the first cylinder and second cylinder and wherein the union is present at one end thereof.
  • Still another object of the present invention is to provide a water pumping system that is operable to extract water from a desired source wherein the second pump includes a junction box operably coupled to the first cylinder and the second cylinder wherein the junction box is distal to the union.
  • a further object of the present invention is to provide a water pumping system operable to pump water from a desired source and transport to another location for collection wherein the first cylinder and second cylinder have disposed therein a movable piston.
  • An additional object of the present invention is to provide a water pumping system operable to extract water from a desired water source wherein the first cylinder and second cylinder further include a water intake proximate the union.
  • Yet another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the second pump further includes actuator arms operably coupled thereto.
  • Another object of the present invention is to provide a water pumping system operable to pump water from a desired source that further includes a sliding air nozzle disposed within the junction box wherein the sliding air nozzle is operable to traverse intermediate openings of the first cylinder and the second cylinder.
  • FIG. 1 is diagrammatic perspective view of the surface air pump of the present invention.
  • FIG. 2 is a diagrammatic perspective view of the submersible water pump of the present invention.
  • the water pumping system 100 further includes a surface air pump 5 illustrated in particular in FIG. 1 herein.
  • the surface air pump 5 further includes cylinder body 10 oriented in a vertical manner supported by frame 12 .
  • the cylinder body 10 is manufactured from a suitable durable material such as but not limited to non-corrosive metal.
  • Disposed within the cylinder body 10 is a piston 15 .
  • the piston 15 is sealably mounted within the interior volume of the cylinder body 10 and is vertically movable therein.
  • Operably coupled to the upper surface of the piston is rod 17 .
  • Rod 17 is operably coupled to handle 19 via union 21 .
  • Union 21 is constructed to facilitate vertical movement of the rod 17 as handle 19 is engaged by a user and moved in an upwards-downwards manner wherein the handle 19 is rotatably movable on rod 23 .
  • first valve 25 and second valve 27 Disposed within the cylinder body 10 are first valve 25 and second valve 27 .
  • the rod 21 facilitates the piston 15 movement within the interior volume of the cylinder body 15 .
  • Hose 30 is operably coupled to hose 32 of the submersible pump 80 and facilitates air being introduced thereinto.
  • First valve 25 and second valve 27 are conventional valves that function to isolate and control the direction of the airflow within the interior volume of the cylinder body 10 .
  • the second valve 27 functions to isolate the lower portion 33 of the cylinder body 10 as the piston 15 is being moved in an upwards direction so as to ensure that air is not drawn back into the cylinder body 10 via hose 30 . It is further contemplated within the scope of the present invention that the first valve 25 and second valve 27 are configured so as to promote a consistent positive pressure of air being introduced into hose 30 during both the upwards and downwards stroke of the handle 19 . Those skilled in the art will recognize that the piston 15 , first valve 25 and second valve 27 could be configured in numerous different manners in order to achieve the desired objective herein. Furthermore, it is contemplated within the scope of the present invention that any number of conventional valves could be used to achieve the desired objective as set forth herein for the surface air pump 5 .
  • the frame 12 includes a plurality of support members 35 configured to provide support for the cylinder body 10 and the structure of the surface air pump 5 .
  • the support members 35 are manufactured from a suitable durable material. While a particular configuration of support members 35 has been illustrated herein, it is contemplated within the scope of the present invention that the surface air pump 5 could be manufactured in a variety of different configurations utilizing any number of support members 35 to provide the required structure to accomplish the stated objective.
  • Secured to the surface air pump 5 is water pipe 37 .
  • Water pipe 37 includes first end 38 and second end 39 .
  • First end 38 is operably coupled to outlet 140 and receives water therefrom wherein the water is provided to a user via second end 39 .
  • the surface air pump 5 is designed to be placed proximate a water source and is operably coupled to the submersible pump 80 as described herein. While a particular embodiment of the surface air pump 5 has been disclosed herein, it is further contemplated within the scope of the present invention that the surface air pump 5 could be constructed in numerous different manners in order to achieve the desired function of providing positive air pressure to the submersible pump 80 .
  • Hose 32 operably couples the surface air pump 5 to the submersible pump 80 .
  • Hose 32 is operably coupled to nozzle 55 .
  • Nozzle 55 is cylindrical in shape, substantially hollow and is constructed from a suitable durable material such as but not limited to metal or plastic.
  • Nozzle 55 is slidably mounted within support member 60 .
  • Support member 60 includes a plurality of walls 62 and a bottom 63 forming an interior volume 64 with opening 65 .
  • cross-member 70 Pivotally mounted to wall 67 via pin 68 is cross-member 70 .
  • Cross-member 70 is rectangular in shape and planar in manner and is manufactured from a suitable durable material such as but not limited to metal.
  • Secured to cross-member 70 extending downward therefrom is vertical member 72 .
  • Vertical member 72 is planar in manner and is parallel with wall 67 and adjacent thereto.
  • Cross-member 70 and vertical member 72 comprise the nozzle movement apparatus 75 that is generally t-shaped and is disposed within the interior volume 64 of the support member 60 .
  • the nozzle movement apparatus 75 functions to laterally move the nozzle 55 intermediate the openings 77 for the first water chamber 82 and second water chamber 85 .
  • Nozzle 55 includes pin 87 extending therefrom being perpendicular thereto so as to engage slot 89 of vertical member 77 .
  • Slot 89 is oval in shape so as to allow lateral movement without impingement of the nozzle 55 .
  • the nozzle movement apparatus 55 functions to facilitate the lateral movement of the nozzle 55 wherein the vertical member 72 moves in a pendulum type pattern adjacent and parallel to wall 67 . As the vertical member 72 moves in the aforementioned pattern the nozzle 55 slidably traverses intermediate the openings 77 .
  • the pendulum type movement pattern of the vertical member 72 is directed by the first control rod 90 and second control rod 92 engaging the cross member 70 .
  • first control rod 90 and second control rod 92 Extending from the first water chamber 82 and the second water chamber 85 are first control rod 90 and second control rod 92 .
  • the first control rod 90 and second control rod 92 are vertically movable having ends 93 , 94 that are perpendicular so as to engage ends 198 , 199 of cross member 70 of the nozzle movement apparatus 75 .
  • First control rod 90 has a second end 189 wherein the second end 189 is operably coupled to piston 105 disposed within first water chamber 82 utilizing suitable durable techniques.
  • Piston 105 is sealably and slidably mounted within first water chamber 82 and is operably coupled to spring 107 .
  • Spring 107 is mounted to the top members 110 of wire frame 210 suspended across first opening 112 .
  • Spring 107 functions to facilitate movement of piston 105 intermediate its first position and its second position. Beneath the piston 105 is the sliding valve 115 .
  • the sliding valve 115 is cylindrical in shape and tubular being of an external diameter that slightly less than the internal diameter of the first water chamber 82 .
  • the sliding valve 115 includes an upper edge 116 that is perpendicular in orientation to the wall 114 of the sliding valve 115 .
  • the sliding valve is movably mounted on wire frame 210 as further discussed herein.
  • First water chamber 82 further includes intake apertures 120 . Intake apertures 120 function to allow water to enter into the first water chamber 82 when sliding valve 115 is in its first position wherein the sliding valve 115 is above intake apertures 120 (as shown in FIG.
  • the upwards movement of the sliding valve 115 is limited by restraint 175 .
  • the restraint 175 includes first end 176 and second end 177 .
  • First end 176 is secured to mounting disk 225 utilizing suitable durable techniques and the second end 177 is secured to the upper edge 116 .
  • the restraint 175 is manufactured from a suitable durable material and functions to limit the upwards travel of the sliding valve 115 wherein the lower edge 193 is above the intake apertures 120 .
  • Mounting disk 225 is annular in shape having a center bore 227 . Mounting disk 225 is fixedly secured in position on the wire frame 210 utilizing suitable durable techniques. Below the mounting disk 225 within the wire frame 210 is disc 250 .
  • Disc 250 is annular in shape and planar in manner and has a diameter that is greater than that of center bore 227 .
  • Disc 250 has a first position and a second position. In its first position the disc 250 is adjacent to the mounting disk 225 so as to inhibit water flow from entering the first water chamber 82 and be forced through outlet 140 of union 125 as further described herein. In its second position, as illustrated herein in FIG. 2 , the disc 250 is distal to mounting disk 225 . In this position, the water disposed within the first water chamber 82 is being evacuated by the downward motion of the piston 105 causing the disc 250 to be moved to its second position so as to allow the water to flow to union 125 .
  • the wire frame 210 provides a support frame for the mounting and movement of the piston 105 , sliding valve 115 and mounting disk 225 . As shown in FIG. 2 herein, the wire frame 210 is journaled through the piston 105 , sliding valve 115 and mounting disk 225 . As previously discussed herein the piston 105 and sliding valve 115 are movably secured to the wire frame 210 . Utilizing the wire frame 210 provides consistent alignment and inhibits lateral movement of the elements secured thereto.
  • the second water chamber 85 is constructed identically to the first water chamber 82 having the same components therein.
  • a listing of the elements of the second water chamber 85 is as follows: piston 145 , spring 147 , wire frame 149 , sliding valve 150 , intake apertures 152 , mounting disk 350 , restraint 365 , disk 375 .
  • the aforementioned listed elements disposed within the second water chamber 85 and illustrated herein, are identically constructed to and operable as the corresponding elements described herein for the first water chamber 82 .
  • the first water chamber 82 and second water chamber 85 are operably coupled with a union 125 .
  • Union 125 is generally u-shaped being manufactured from a suitable material having outlet 140 .
  • Outlet 140 functions to allow water to evacuate either the first water chamber 82 or second water chamber 85 .
  • Outlet 140 is operably coupled to end 38 of water pipe 37 .
  • a description of the operation of the submersible pump 80 is as follows. Nozzle 55 is placed over opening 112 prior to submersion of submersible pump 80 . Air pressure is introduced into the first water chamber 82 via the surface air pump 5 . As air pressure is introduced to the first water chamber 82 the piston 105 begins to move downwards toward sliding valve 115 which is moved to its position wherein the sliding valve is aligned with intake apertures 120 preventing water egressing therefrom. As the piston 105 moves downward the disc 250 moves away from mounting disk 225 allowing water to flow through center bore 227 and egress towards union 125 .
  • first control rod 90 moves downward wherein at the end of the stroke of the piston 105 , end 93 will engage cross member 70 pushing downward thereon causing the pendulum movement of the vertical member 72 . This movement facilitates the lateral movement of nozzle 55 to opening 77 of the second water chamber 85 .
  • the sliding valve 150 is moved upwards by the positive pressure from the opposing first water chamber 82 and the negative pressure created above the sliding valve 150 from piston 147 being moved upwards by spring 147 .
  • piston 145 moves downward
  • sliding valve 150 moves downward to cover intake apertures 152
  • disc 375 moves away from center bore 351 and the water disposed within the second water chamber 85 egress out center bore 351 .
  • the pressure therein moves disc 250 against mounting disk 225 closing the center bore 227 forcing the water to exit outlet 140 .
  • nozzle movement apparatus 75 While a particular description of elements of the nozzle movement apparatus 75 has been disclosed herein, it is contemplated within the scope of the present application that the nozzle movement apparatus 75 could be constructed in various manners in order to achieve the functionality as described herein.

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Jet Pumps And Other Pumps (AREA)

Abstract

A water pumping system that is operable to use air from an air pump to provide positive pressure to a submersible pump submersed in a body of water so as to provide extraction of water for use. The water pumping system includes a surface mounted air pump located proximate a body of water that is operable to produce an airflow exiting therefrom and is directed to the submersible pump. The submersible pump includes a first chamber and a second chamber that are parallel in manner and substantially hollow. The first chamber and second chamber are operably coupled with a union and have an opening opposite thereto. An air nozzle receives air from the air pump and forces air into openings of the first chamber and second chamber so as to move a piston therein to evacuate water from the first chamber and second chamber during downward movement of the piston.

Description

    FIELD OF THE INVENTION
  • The present invention relates generally to water pumping systems, more specifically but not by way of limitation, a water extraction system operable to retrieve ground water from a source such as a well wherein the water extraction system utilizes a combination of a first pump located on the surface and a second pump that is submersed in a water source.
  • BACKGROUND
  • Millions of people in undeveloped and underdeveloped countries depend on water for survival. In these regions of the world that lack the water distribution infrastructure of developed countries obtaining water from sources such as wells or pools often requires many hours and can consume much of an individuals routine.
  • Conventional water pumps are known in the art and are typically placed proximate the water source and have a pipe or similar element that is extended down into the water source wherein the pump is used for extraction of the water. These water pumps can be manually powered or powered by an electric or combustion motor. One issue with these conventional water pumps is that the pumping system requires that all components be disposed proximate the water source. In some environments this is undesirable. Additionally, water pumps that utilize electric or combustion motors have a higher cost of operation and require periodic maintenance. Further these styles of pumps in particular the combustion motor powered pump emit gases harmful to the atmosphere.
  • Accordingly there is a need for a water pumping system that provides an efficient method of extracting water from a desired source wherein the water pumping system includes an operable component that a user can engage to operate the water pumping system that does not have to be proximate the water source.
  • SUMMARY OF THE INVENTION
  • It is the object of the present invention to provide a water pumping system that is operable to extract water from a source such as but not limited to a well that includes a first pump that is placed distal to the water source and is configured to be engaged by a user of the water pumping system.
  • Another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the water pumping system that includes a second pump fluidly coupled with the first pump wherein the second pump is submersed in the water source.
  • A further object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the first pump is an air pump operable to provide pressurized air to the second pump.
  • An additional object of the present invention is to provide a water pumping system operable to facilitate the extraction of water from a desired source wherein the second pump includes a first cylinder and a second cylinder parallel in configuration and adjacent to each other.
  • Yet another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the second pump further includes a union operably coupling the first cylinder and second cylinder and wherein the union is present at one end thereof.
  • Still another object of the present invention is to provide a water pumping system that is operable to extract water from a desired source wherein the second pump includes a junction box operably coupled to the first cylinder and the second cylinder wherein the junction box is distal to the union.
  • A further object of the present invention is to provide a water pumping system operable to pump water from a desired source and transport to another location for collection wherein the first cylinder and second cylinder have disposed therein a movable piston.
  • An additional object of the present invention is to provide a water pumping system operable to extract water from a desired water source wherein the first cylinder and second cylinder further include a water intake proximate the union.
  • Yet another object of the present invention is to provide a water pumping system operable to extract water from a desired source wherein the second pump further includes actuator arms operably coupled thereto.
  • Another object of the present invention is to provide a water pumping system operable to pump water from a desired source that further includes a sliding air nozzle disposed within the junction box wherein the sliding air nozzle is operable to traverse intermediate openings of the first cylinder and the second cylinder.
  • To the accomplishment of the above and related objects the present invention may be embodied in the form illustrated in the accompanying drawings. Attention is called to the fact that the drawings are illustrative only. Variations are contemplated as being a part of the present invention, limited only by the scope of the claims.
  • BRIEF DESCRIPTION OF THE DRAWINGS
  • A more complete understanding of the present invention may be had by reference to the following Detailed Description and appended claims when taken in conjunction with the accompanying Drawings wherein:
  • FIG. 1 is diagrammatic perspective view of the surface air pump of the present invention; and
  • FIG. 2 is a diagrammatic perspective view of the submersible water pump of the present invention.
  • DETAILED DESCRIPTION
  • Referring now to the drawings submitted herewith, wherein various elements depicted therein are not necessarily drawn to scale and wherein through the views and figures like elements are referenced with identical reference numerals, there is illustrated a water pumping system 100 constructed according to the principles of the present invention.
  • The water pumping system 100 further includes a surface air pump 5 illustrated in particular in FIG. 1 herein. The surface air pump 5 further includes cylinder body 10 oriented in a vertical manner supported by frame 12. The cylinder body 10 is manufactured from a suitable durable material such as but not limited to non-corrosive metal. Disposed within the cylinder body 10 is a piston 15. The piston 15 is sealably mounted within the interior volume of the cylinder body 10 and is vertically movable therein. Operably coupled to the upper surface of the piston is rod 17. Rod 17 is operably coupled to handle 19 via union 21. Union 21 is constructed to facilitate vertical movement of the rod 17 as handle 19 is engaged by a user and moved in an upwards-downwards manner wherein the handle 19 is rotatably movable on rod 23. Disposed within the cylinder body 10 are first valve 25 and second valve 27. As the handle 19 is moved in an upwards-downward movement the rod 21 facilitates the piston 15 movement within the interior volume of the cylinder body 15. As the piston 15 moves downward toward end 28 the air within the cylinder body 10 is forced out hose 30. Hose 30 is operably coupled to hose 32 of the submersible pump 80 and facilitates air being introduced thereinto. First valve 25 and second valve 27 are conventional valves that function to isolate and control the direction of the airflow within the interior volume of the cylinder body 10. By way of example but not by way of limitation, the second valve 27 functions to isolate the lower portion 33 of the cylinder body 10 as the piston 15 is being moved in an upwards direction so as to ensure that air is not drawn back into the cylinder body 10 via hose 30. It is further contemplated within the scope of the present invention that the first valve 25 and second valve 27 are configured so as to promote a consistent positive pressure of air being introduced into hose 30 during both the upwards and downwards stroke of the handle 19. Those skilled in the art will recognize that the piston 15, first valve 25 and second valve 27 could be configured in numerous different manners in order to achieve the desired objective herein. Furthermore, it is contemplated within the scope of the present invention that any number of conventional valves could be used to achieve the desired objective as set forth herein for the surface air pump 5.
  • The frame 12 includes a plurality of support members 35 configured to provide support for the cylinder body 10 and the structure of the surface air pump 5. The support members 35 are manufactured from a suitable durable material. While a particular configuration of support members 35 has been illustrated herein, it is contemplated within the scope of the present invention that the surface air pump 5 could be manufactured in a variety of different configurations utilizing any number of support members 35 to provide the required structure to accomplish the stated objective. Secured to the surface air pump 5 is water pipe 37. Water pipe 37 includes first end 38 and second end 39. First end 38 is operably coupled to outlet 140 and receives water therefrom wherein the water is provided to a user via second end 39. The surface air pump 5 is designed to be placed proximate a water source and is operably coupled to the submersible pump 80 as described herein. While a particular embodiment of the surface air pump 5 has been disclosed herein, it is further contemplated within the scope of the present invention that the surface air pump 5 could be constructed in numerous different manners in order to achieve the desired function of providing positive air pressure to the submersible pump 80.
  • Illustrated in particular in FIG. 2 herein is the submersible pump 80. The submersible pump 80 is placed in a body of water wherein it is desirable for a user to extract the water for use thereof. The submersible pump 80 is completely submersed in the desired body of water. Hose 32 operably couples the surface air pump 5 to the submersible pump 80. Hose 32 is operably coupled to nozzle 55. Nozzle 55 is cylindrical in shape, substantially hollow and is constructed from a suitable durable material such as but not limited to metal or plastic. Nozzle 55 is slidably mounted within support member 60. Support member 60 includes a plurality of walls 62 and a bottom 63 forming an interior volume 64 with opening 65. While three walls 62 are illustrated herein forming a support member 60 that is rectangular in shape, it is contemplated within the scope of the present invention that the support member 60 could be constructed using different amounts of walls. Pivotally mounted to wall 67 via pin 68 is cross-member 70. Cross-member 70 is rectangular in shape and planar in manner and is manufactured from a suitable durable material such as but not limited to metal. Secured to cross-member 70 extending downward therefrom is vertical member 72. Vertical member 72 is planar in manner and is parallel with wall 67 and adjacent thereto. Cross-member 70 and vertical member 72 comprise the nozzle movement apparatus 75 that is generally t-shaped and is disposed within the interior volume 64 of the support member 60. The nozzle movement apparatus 75 functions to laterally move the nozzle 55 intermediate the openings 77 for the first water chamber 82 and second water chamber 85. Nozzle 55 includes pin 87 extending therefrom being perpendicular thereto so as to engage slot 89 of vertical member 77. Slot 89 is oval in shape so as to allow lateral movement without impingement of the nozzle 55. The nozzle movement apparatus 55 functions to facilitate the lateral movement of the nozzle 55 wherein the vertical member 72 moves in a pendulum type pattern adjacent and parallel to wall 67. As the vertical member 72 moves in the aforementioned pattern the nozzle 55 slidably traverses intermediate the openings 77. The pendulum type movement pattern of the vertical member 72 is directed by the first control rod 90 and second control rod 92 engaging the cross member 70.
  • Extending from the first water chamber 82 and the second water chamber 85 are first control rod 90 and second control rod 92. The first control rod 90 and second control rod 92 are vertically movable having ends 93,94 that are perpendicular so as to engage ends 198,199 of cross member 70 of the nozzle movement apparatus 75. First control rod 90 has a second end 189 wherein the second end 189 is operably coupled to piston 105 disposed within first water chamber 82 utilizing suitable durable techniques. Piston 105 is sealably and slidably mounted within first water chamber 82 and is operably coupled to spring 107. Spring 107 is mounted to the top members 110 of wire frame 210 suspended across first opening 112. Spring 107 functions to facilitate movement of piston 105 intermediate its first position and its second position. Beneath the piston 105 is the sliding valve 115. The sliding valve 115 is cylindrical in shape and tubular being of an external diameter that slightly less than the internal diameter of the first water chamber 82. The sliding valve 115 includes an upper edge 116 that is perpendicular in orientation to the wall 114 of the sliding valve 115. The sliding valve is movably mounted on wire frame 210 as further discussed herein. First water chamber 82 further includes intake apertures 120. Intake apertures 120 function to allow water to enter into the first water chamber 82 when sliding valve 115 is in its first position wherein the sliding valve 115 is above intake apertures 120 (as shown in FIG. 2) so as to permit water to flow into the first water chamber 82. The upwards movement of the sliding valve 115 is limited by restraint 175. The restraint 175 includes first end 176 and second end 177. First end 176 is secured to mounting disk 225 utilizing suitable durable techniques and the second end 177 is secured to the upper edge 116. The restraint 175 is manufactured from a suitable durable material and functions to limit the upwards travel of the sliding valve 115 wherein the lower edge 193 is above the intake apertures 120. Mounting disk 225 is annular in shape having a center bore 227. Mounting disk 225 is fixedly secured in position on the wire frame 210 utilizing suitable durable techniques. Below the mounting disk 225 within the wire frame 210 is disc 250. Disc 250 is annular in shape and planar in manner and has a diameter that is greater than that of center bore 227. Disc 250 has a first position and a second position. In its first position the disc 250 is adjacent to the mounting disk 225 so as to inhibit water flow from entering the first water chamber 82 and be forced through outlet 140 of union 125 as further described herein. In its second position, as illustrated herein in FIG. 2, the disc 250 is distal to mounting disk 225. In this position, the water disposed within the first water chamber 82 is being evacuated by the downward motion of the piston 105 causing the disc 250 to be moved to its second position so as to allow the water to flow to union 125. The wire frame 210 provides a support frame for the mounting and movement of the piston 105, sliding valve 115 and mounting disk 225. As shown in FIG. 2 herein, the wire frame 210 is journaled through the piston 105, sliding valve 115 and mounting disk 225. As previously discussed herein the piston 105 and sliding valve 115 are movably secured to the wire frame 210. Utilizing the wire frame 210 provides consistent alignment and inhibits lateral movement of the elements secured thereto.
  • The second water chamber 85 is constructed identically to the first water chamber 82 having the same components therein. A listing of the elements of the second water chamber 85 is as follows: piston 145, spring 147, wire frame 149, sliding valve 150, intake apertures 152, mounting disk 350, restraint 365, disk 375. The aforementioned listed elements disposed within the second water chamber 85 and illustrated herein, are identically constructed to and operable as the corresponding elements described herein for the first water chamber 82. The first water chamber 82 and second water chamber 85 are operably coupled with a union 125. Union 125 is generally u-shaped being manufactured from a suitable material having outlet 140. Outlet 140 functions to allow water to evacuate either the first water chamber 82 or second water chamber 85. Outlet 140 is operably coupled to end 38 of water pipe 37.
  • A description of the operation of the submersible pump 80 is as follows. Nozzle 55 is placed over opening 112 prior to submersion of submersible pump 80. Air pressure is introduced into the first water chamber 82 via the surface air pump 5. As air pressure is introduced to the first water chamber 82 the piston 105 begins to move downwards toward sliding valve 115 which is moved to its position wherein the sliding valve is aligned with intake apertures 120 preventing water egressing therefrom. As the piston 105 moves downward the disc 250 moves away from mounting disk 225 allowing water to flow through center bore 227 and egress towards union 125. As the water begins to enter the union 125 the pressure increase therein causes disc 375 to move such that it is adjacent mounting disk 350 inhibiting water flow into the second water chamber 85 so as to promote water flow through outlet 140 towards first end 38 for collection. During the downward movement of piston 105, first control rod 90 moves downward wherein at the end of the stroke of the piston 105, end 93 will engage cross member 70 pushing downward thereon causing the pendulum movement of the vertical member 72. This movement facilitates the lateral movement of nozzle 55 to opening 77 of the second water chamber 85. During the aforementioned cycle of the first water chamber 82, the sliding valve 150 is moved upwards by the positive pressure from the opposing first water chamber 82 and the negative pressure created above the sliding valve 150 from piston 147 being moved upwards by spring 147. As air pressure is introduced into the second water chamber 85, piston 145 moves downward, sliding valve 150 moves downward to cover intake apertures 152, disc 375 moves away from center bore 351 and the water disposed within the second water chamber 85 egress out center bore 351. As the water from the second water chamber 85 enters the union 125, the pressure therein moves disc 250 against mounting disk 225 closing the center bore 227 forcing the water to exit outlet 140. During this cycle of the second water chamber 85, the sliding valve 115 moves upward exposing the intake apertures 120 so as to allow water to enter the first water chamber 82. Additionally, piston 105 is returned towards support member 60 by spring 107. Returning to the cycle within the second water chamber 85, second control rod 92 moves downward as piston 145 is moved downward by air pressure and end 94 engages cross member 70 near the end of the stroke of piston 145 as most of the water has been evacuated from the second water chamber. Proximate the end of the stroke of piston 145, end 94 engages the end 199 of the cross member 70 so as to facilitate the lateral movement of the air nozzle 55 by the nozzle movement apparatus 75. The reciprocity of the aforementioned cycles continue as air pressure is introduced via surface air pump 5.
  • While a particular description of elements of the nozzle movement apparatus 75 has been disclosed herein, it is contemplated within the scope of the present application that the nozzle movement apparatus 75 could be constructed in various manners in order to achieve the functionality as described herein.
  • In the preceding detailed description, reference has been made to the accompanying drawings that form a part hereof, and in which are shown by way of illustration specific embodiments in which the invention may be practiced. These embodiments, and certain variants thereof, have been described in sufficient detail to enable those skilled in the art to practice the invention. It is to be understood that other suitable embodiments may be utilized and that logical changes may be made without departing from the spirit or scope of the invention. The description may omit certain information known to those skilled in the art. The preceding detailed description is, therefore, not intended to be limited to the specific forms set forth herein, but on the contrary, it is intended to cover such alternatives, modifications, and equivalents, as can be reasonably included within the spirit and scope of the appended claims.

Claims (20)

What is claimed is:
1. A water pumping system comprising:
an air pump, said air pump including a frame, said air pump further including at least one cylinder having a piston therein, said air pump having at least one valve disposed within said at least one cylinder, said air pump operable to produce airflow, said air pump having a hose to direct the airflow away from the air pump; and
a submersible portion, said submersible portion being completely submersed within a body of water, said submersible portion operably coupled to said air pump via said hose, said submersible portion having a first water chamber and a second water chamber, said first water chamber and said second water chamber being cylindrical in shape having a first end and second end, said submersible portion further including a union operably coupling said first water chamber and said second water chamber proximate the second ends thereof, said union further including a pipe, said submersible portion further including a first piston disposed within said first water chamber and a second piston disposed within said second water chamber, said submersible portion including an air nozzle, said air nozzle disposed within a support member mounted to said first ends of said first water chamber and said second water chamber, said air nozzle operably coupled to said hose of said air pump, said air nozzle operable to introduce air into said first water chamber and said second water chamber via openings proximate said first ends of said first water chamber and said second water chamber; and
wherein said first piston and said second piston are operable to traverse within said first water chamber and said second water chamber and evacuate water disposed therein via said pipe for collection by a user.
2. The water pumping system as recited in claim 1, and further including a nozzle movement apparatus, said nozzle movement apparatus being t-shaped, said nozzle movement apparatus operable to slidably traverse said air nozzle intermediate the openings proximate the first ends of said first water chamber and said second water chamber.
3. The water pumping system as recited in claim 2, wherein said first water chamber and said second water chamber further include intake apertures proximate the second ends thereof, said intake apertures operable to facilitate the introduction of water into the first water chamber and second water chamber.
4. The water pumping system as recited in claim 3, and further including a first sliding valve and a second sliding valve, said first sliding valve being disposed within said first water chamber, said second sliding valve being disposed within said second water chamber, said first sliding valve and said second sliding valve operable to open and close the intake apertures.
5. The water pumping system as recited in claim 4, and further including a first mounting disk and a second mounting disk, said first mounting disk disposed within said first water chamber beneath the intake apertures, said second mounting disk being mounted within said second water chamber beneath the intake apertures.
6. The water pumping system as recited in claim 5, and further including a first wire frame and a second wire frame, said first wire frame being secured within said first water chamber, said second wire frame being secured within said second water chamber, said first wire frame providing support for said first piston, said first sliding valve and said first mounting disk, said second wire frame providing support for said second piston, said second sliding valve and said second mounting disk.
7. The water pumping system as recited in claim 6, and further including a first disc and a second disc, said first disc being mounted within said first water chamber, said second disc being mounted within said second water chamber, said first disc being movably mounted within the first wire frame below said first mounting disk, said second disc being movably mounted within the second wire frame below said second mounting disk.
8. A water pumping system operable to extract water from a body of water for use thereof comprising:
an air pump, said air pump further including a support frame, said air pump having a cylinder operably secured to said support frame, said cylinder having a first end and a second end, said cylinder being hollow having an interior volume, said cylinder having a piston disposed therein, said piston configured to traverse within said interior volume of said cylinder, said air pump further including at least one valve, said cylinder having a hose proximate said second end, said air pump operable to produce airflow outward from said cylinder through said hose;
a submersible portion, said submersible portion having a first chamber and a second chamber, said first chamber and said second chamber being cylindrical in shape and hollow having first ends and second ends, said first chamber and said second chamber being adjacent to each other and parallel, said first chamber and said second chamber each having an opening proximate said first ends, said submersible portion further including a support member, said support member operably coupled to said first chamber and said second chamber proximate said first ends, said support member having a bottom and at least one wall, said submersible portion having a union operably coupled to said first chamber and said second chamber, said union further including a pipe, said submersible portion further including a nozzle, said nozzle being movably secured within said support member, said nozzle being operably coupled to said hose so as to receive air therefrom, said first chamber having a piston movably disposed therein, said second chamber having a piston movably disposed therein, said first chamber including intake apertures, said second chamber including intake apertures; and
wherein the piston in said first chamber and the piston in said second chamber operably reciprocate to evacuate water disposed within said first chamber and said second chamber respectively wherein water is evacuated via said pipe to a location for collection by a user.
9. The water pumping system as recited in claim 8, and further including a nozzle movement apparatus, said nozzle movement apparatus having a horizontal cross member and a vertical member formed to create a t-shape, said vertical member operably coupled to said nozzle, said horizontal member being pivotally mounted to the at least one wall of said support member, said nozzle movement apparatus operable to facilitate the movement of the nozzle intermediate the openings of said first chamber and said second chamber.
10. The water pumping system as recited in claim 9, and further including a first wire frame and a second wire frame, said first wire frame being secured within said first water chamber, said second wire frame being secured within said second water chamber, said first wire frame providing support for components disposed within said first water chamber and said second water chamber.
11. The water pumping system as recited in claim 10, and further including a first sliding valve and a second sliding valve, said first sliding valve being disposed within said first water chamber, said second sliding valve being disposed within said second water chamber, said first sliding valve and said second sliding valve being cylindrical and tubular having a passage therethrough, said first sliding valve and said second sliding valve operable to open and close the intake apertures.
12. The water pumping system as recited in claim 11, wherein the piston in said first chamber has operably coupled thereto a first control rod, said first control rod extending upward from said piston into said support member, said first control rod having a first end and a second end, said second end of said first control rod being perpendicular in configuration so as to engage a portion of said cross member of said nozzle movement apparatus.
13. The water pumping system as recited in claim 12, and further including a second control rod, said second control rod operably secured to the piston disposed within said second chamber, said second control rod extending upward beyond said first end of said second chamber and into said support member, said second control rod operable to engage the nozzle movement apparatus when the piston is in its second position such that the piston is proximate the second end of said second chamber.
14. The water pumping system as recited in claim 13, and further including a first mounting disk and a second mounting disk, said first mounting disk disposed within said first water chamber beneath the intake apertures, said second mounting disk being mounted within said second water chamber beneath the intake apertures, said first mounting disk and said second mounting disk having a central bore therethrough and and further including a first disc and a second disc, said first disc being mounted within said first water chamber, said second disc being mounted within said second water chamber, said first disc being movably mounted within the first wire frame below said first mounting disk, said second disc being movably mounted within the second wire frame below said second mounting disk, said first disc operable to open and close the central bore of said first mounting disk, said second disc operable to open and close the central bore of said second mounting disk.
15. A water pumping system having a first pump operable to provide air pressure to a second pump wherein the second pump is submersed in a body of water wherein a user desires to extract water therefrom for use comprising:
an air pump, said air pump further including a support frame, said air pump having a cylinder operably secured to said support frame, said cylinder having a first end and a second end, said cylinder being hollow having an interior volume, said cylinder having a piston disposed therein, said piston configured to traverse within said interior volume of said cylinder, said piston having a rod operably coupled thereto extending outward from said cylinder, said rod operably coupled to a handle distal to said piston, said handle providing an interface to reciprocate the piston within the cylinder, said air pump further including at least one valve, said cylinder having a hose proximate said second end, wherein the air pump is operable to produce airflow outward from said cylinder through said hose so as to provide increased air pressure to a submersible pump operably coupled to said hose;
a submersible portion, said submersible portion having a first chamber and a second chamber, said first chamber and said second chamber being cylindrical in shape and hollow having first ends and second ends, said first chamber and said second chamber being adjacent to each other and parallel, said first chamber having an opening proximate said first end, said second chamber having an opening proximate said first end, said submersible portion further including a support container, said support container operably coupled to said first chamber and said second chamber proximate said first ends, said support container having a bottom and three walls, said bottom of said support container configured to provide access to said opening of said first chamber and said second chamber, said submersible portion having a union operably coupled to said first chamber and said second chamber proximate said second ends thereof, said union being u-shaped, said union further including a pipe, said pipe operably connected to a supply pipe present on said air pump, said submersible portion further including a nozzle, said nozzle being movably secured within said support container along said bottom, said nozzle being operably coupled to said hose so as to receive air therefrom, said first chamber having a piston movably disposed therein, said piston of said first chamber having a first position and a second position wherein in said first position said piston of said first chamber is proximate said opening, said second chamber having a piston movably disposed therein, said piston of said second chamber having a first position and a second position wherein in said second position said piston of said second chamber is proximate said union, said first chamber including intake apertures proximate said second end, said second chamber including intake apertures proximate said second end; and
wherein the piston in said first chamber and the piston in said second chamber operably reciprocate to evacuate water disposed within said first chamber and said second chamber in order to evacuate water via said pipe to said supply pipe.
16. The water pumping system as recited in claim 15, and further including a nozzle movement apparatus, said nozzle movement apparatus being t-shaped having a cross member and a vertical member, said cross member being pivotally coupled to one of said three walls of said support container, said vertical member being operably coupled to said nozzle distal to said cross member, wherein the nozzle movement apparatus facilitates the traversal of the nozzle intermediate the openings of the first chamber and second chamber.
17. The water pumping system as recited in claim 16, wherein the piston in said first chamber has operably coupled thereto a first control rod, said first control rod extending upward from said piston into said support container, said first control rod having a first end and a second end, said second end of said first control rod being perpendicular in configuration so as to engage a portion of said cross member of said nozzle movement apparatus.
18. The water pumping system as recited in claim 17, wherein the piston in said second chamber has operably coupled thereto a second control rod, said second control rod extending upward from said piston into said support container, said second control rod having a first end and a second end, said second end of said second control rod being perpendicular in configuration so as to engage a portion of said cross member of said nozzle movement apparatus opposite that of the portion engaged by said first control rod.
19. The water pumping system as recited in claim 18, and further including a first sliding valve and a second sliding valve, said first sliding valve being disposed within said first water chamber, said second sliding valve being disposed within said second water chamber, said first sliding valve and said second sliding valve being cylindrical and tubular having a passage therethrough, said first sliding valve and said second sliding valve operable to open and close the intake apertures.
20. The water pumping system as recited in claim 19, and further including a first mounting disk and a second mounting disk, said first mounting disk disposed within said first water chamber beneath the intake apertures, said second mounting disk being mounted within said second water chamber beneath the intake apertures, said first mounting disk and said second mounting disk having a central bore therethrough and further including a first disc and a second disc, said first disc being mounted within said first water chamber, said second disc being mounted within said second water chamber, said first disc being movably mounted within the first wire frame below said first mounting disk, said second disc being movably mounted within the second wire frame below said second mounting disk, said first disc operable to open and close the central bore of said first mounting disk, said second disc operable to open and close the central bore of said second mounting disk.
US14/456,207 2014-08-11 2014-08-11 Water Extraction System Abandoned US20160040660A1 (en)

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Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20110265642A1 (en) * 2010-05-03 2011-11-03 Spybey Alan C Double-Acting Subterranean Pump
US8540495B2 (en) * 2010-10-20 2013-09-24 Jiao Hsiung Industry Corp. Dual duty hand pump

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20110265642A1 (en) * 2010-05-03 2011-11-03 Spybey Alan C Double-Acting Subterranean Pump
US8540495B2 (en) * 2010-10-20 2013-09-24 Jiao Hsiung Industry Corp. Dual duty hand pump

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