CN103438030A - Pneumatic circulating type pump and wind power valley electricity energy-storage pneumatic circulating type pumping system - Google Patents

Pneumatic circulating type pump and wind power valley electricity energy-storage pneumatic circulating type pumping system Download PDF

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CN103438030A
CN103438030A CN2013104053520A CN201310405352A CN103438030A CN 103438030 A CN103438030 A CN 103438030A CN 2013104053520 A CN2013104053520 A CN 2013104053520A CN 201310405352 A CN201310405352 A CN 201310405352A CN 103438030 A CN103438030 A CN 103438030A
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container
pneumatic
air
selector valve
pump
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刘典军
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Beijing Heng Qi New Energy Technology Co., Ltd.
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QINGDAO GELANDE NEW ENERGY CO Ltd
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Priority to CN2013104053520A priority Critical patent/CN103438030A/en
Priority to PCT/CN2013/088810 priority patent/WO2015032137A1/en
Publication of CN103438030A publication Critical patent/CN103438030A/en
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Abstract

The invention provides a pneumatic circulating type pump and a wind power valley electricity energy-storage pneumatic circulating type pumping system, belonging to the technical field of submerged pumps. The pneumatic circulating type pump at least comprises two-stage cascaded pneumatic pumps driven by compression air, the first stage is connected with a compression air source, and compression air discharged from the primary-stage pneumatic circulating type pump is used for driving the next-stage pneumatic circulating type pump. The pneumatic circulating type pump has a simple structure, and the input compression air can be used in a circulating manner, therefore, the pneumatic circulating type pump has high efficiency, is energy-saving and durable, can replace the traditional submerged pump and the centrifugal pump, and can be applied to places where pumping is required.

Description

Pneumatic circulation pump and wind-force paddy electricity energy storage Pneumatic circulation pumping system
Technical field
The present invention relates to a kind of Pneumatic circulation pump and wind-force paddy electricity energy storage Pneumatic circulation pumping system, belong to the submersible pump technical field.
Background technique
Traditional submersible pump, centrifugal pump are with motor, to rotate drives impeller to produce centrifugal force water is taken out to height, and efficiency is low, easily bad.So the running of regulation submersible pump is about 2000 hours in industry, will Maintenance and Repair, bothersome effort.Particularly at some, need explosion-proof environment, or the application of petrochemical industry aspect, all be subject to certain restriction.
For overcoming above-mentioned technical problem, the inventor has proposed in 2011 years to State Intellectual Property Office the application for a patent for invention that denomination of invention is " a kind of air sac type high pressure pumping water device and preparation method thereof ", its application number is 201110097755.4, but some defects have been found in this invention in the process of Production and application:
First: airbag wall design is too thin, is not durable, easily bad, there is no contractile function, can not energy storage;
Second: the pump housing of design is single, can not circular work, and caused gas to waste;
The 3rd: the pump housing of design does not have self-absorption function, lean on the passive water inlet of pressure of water self;
The 4th: the control aspect, with flow switch and air operated reversing valve, control, the process complexity, dumb;
The 5th: design does not utilize the trough-electricity store compressed air in night to supply with the pneumatic pump acting, when there is no wind, can not draw water.。
Summary of the invention
For overcoming the shortcoming existed in prior art, order of the present invention has been to provide a kind of Pneumatic circulation pump and wind-force paddy electricity energy storage Pneumatic circulation pumping system.It can utilize pressurized air to carry out circular work, and water pump is pressed onto to eminence.
For realizing described goal of the invention, an aspect of of the present present invention provides a kind of Pneumatic circulation pump, it comprises at least pneumatic pump of the use compressed air-driven of two-stage cascade, and first order pneumatic pump connects compressed gas source, and the pressurized gas that the previous stage pneumatic pump is discharged is for driving rear one-level.
Preferably, every one-level pneumatic pump comprises two containers and two selector valves, and wherein, the upper end of each container is provided with the breathing pipe inserted in container, and the bottom of each container is provided with one-way water inlet valve; Each container also is provided with outlet pipe, and the outlet pipe place is provided with the single slope drainage valve; The inflation port of selector valve is connected with the breathing pipe of a container, the air inlet port is connected with the external world with source of the gas connection, exhaust port or is connected with the air inlet port of a selector valve of the pneumatic pump of next stage by main pipe rail; Two selector valves commutate by time-multiplexed mode.
Preferably, the volume of two of every one-level pneumatic pump containers is all identical.
Preferably, selector valve is two position, three-way electromagnetic change valve.
Preferably, vertically setting or left and right are set up in parallel all containers up and down.
For realizing described goal of the invention, another aspect of the present invention provides a kind of wind-force paddy electricity energy storage Pneumatic circulation pumping system, it comprises the wind-force air compressor for air is compressed or the electric power air compressor that air is compressed and for the air container of store compressed air, also comprise as above arbitrary described Pneumatic circulation pump, described Pneumatic circulation pump utilizes the pressurized air that air container is stored to be driven.
Compared with prior art, Pneumatic circulation pump provided by the invention is not because there is no rotating part, do not need will seal as traditional Submerged Motor Pumps and centrifugal pump, insulation etc., and can recycle the pressurized air of input, so its energy-efficient, durable, can replace traditional submersible pump and centrifugal pump, be applied to the place that need to draw water.
The accompanying drawing explanation
Fig. 1 is the schematic diagram of wind-force paddy electricity energy storage Pneumatic circulation pumping system provided by the invention;
Fig. 2 is the pulse signal that the present invention provides at beginning period PLC;
Fig. 3 is the pulse signal that the present invention provides at working hour PLC.
Embodiment
Describe the present invention in detail below in conjunction with accompanying drawing.Identical reference character means identical parts.
Fig. 1 is the schematic diagram of wind-force paddy electricity energy storage Pneumatic circulation pumping system provided by the invention.As shown in Figure 1, wind-force paddy electricity energy storage Pneumatic circulation pumping system comprises the wind-force air compressor for air is compressed or the electric power air compressor that air is compressed and for the air container of store compressed air, also comprise the Pneumatic circulation pump, described Pneumatic circulation pump utilizes the pressurized air that air container is stored to be driven.The Pneumatic circulation pump comprises first order pneumatic pump, described first order pneumatic pump comprises: the first container 1, second container 2, the first selector valve 21 and the second selector valve 22 that independent of one another with the first container and volume is identical, wherein, the upper end of described the first container 1 is provided with the first breathing pipe 13 inserted in the first container, and the bottom of described the first container is provided with the first one-way water inlet valve 5; The first container also is provided with the first outlet pipe 17, the first outlet pipe places and is provided with the first single slope drainage valve 9; The upper end of described second container 2 is provided with the second breathing pipe 14 inserted in second container, and the bottom of described second container is provided with the second one-way water inlet valve 6; Second container also is provided with the second outlet pipe 18, the second outlet pipe places and is provided with the second single slope drainage valve 10.The inflation port 34 of the first selector valve 21 is connected with the first breathing pipe 13, and air inlet port 35 is communicated with source of the gas, and exhaust port 36 is communicated with main pipe rail 43; The inflation port 33 of the second selector valve 22 is connected with the second breathing pipe 14, and air inlet port 37 is communicated with source of the gas, and exhaust port 38 is communicated with main pipe rail 43.The first selector valve and the second selector valve replace commutation work.Outlet pipe 17 and 18 finally converges into a road and accesses total outlet pipe 26.In the present embodiment, the first container and second container are arranged to up-down structure, make second container be positioned at the first container directly over, for making them on vertical straight line, make the outlet pipe 17 that is inserted into the first container longitudinally through second container, the second single slope drainage valve 9 is arranged on the upper end of second container.Gas holder 47 is connected respectively to the air inlet port of the first selector valve 21 and the second selector valve 22 by total valve 46 and reduction valve 45.Outlet pipe 17 is through the local of the first container and will carry out soldering with container wall through the place of second container, and outlet pipe 18 will carry out soldering in case leak-stopping water or gas leakage with container wall through the place of second container.
Air compressor 48 shortens air pressure high-pressure air into and is stored in gas holder 47(by pipeline 49 can be also the underground gas storage hole) in, air compressor 48 can be the wind-force air compressor, it can be also the electric power air compressor, that is, described pressurized air can utilize wind-force compressed by the wind-force air compressor and be stored in air container; Can also by the paddy electricity in evening, utilize air compressor to be compressed and be stored in storage vessel, can be also the combination of the two.Can also be otherwise air pressure is contractd and is stored in storage vessel, for use.
The Pneumatic circulation pump also comprises second level pneumatic pump, second level pump comprises the 3rd container 3, the 4th container 4, the 3rd selector valve 23 and the 4th selector valve 24 that independent of one another with the 3rd container and volume is identical, wherein, the upper end of described the 3rd container is provided with the 3rd breathing pipe 15 inserted in the 3rd container, and the bottom of described the 3rd container is provided with the 3rd one-way water inlet valve 7; The 3rd container also is provided with the 3rd outlet pipe 19, the three outlet pipe places and is provided with the 3rd single slope drainage valve 11; The upper end of described the 4th container is provided with the four-way tracheae 16 inserted in the 4th container, and the bottom of described the 4th container is provided with the 4th one-way water inlet valve 8; The 4th container also is provided with the 4th outlet pipe 20, the four outlet pipe places and is provided with the 4th single slope drainage valve 12; The inflation port 32 of the 3rd selector valve is connected with the 3rd breathing pipe, air inlet port 39 is connected with main pipe rail 43, exhaust port 40 is connected with the external world, if also comprise next stage, and can also be by main pipe rail and the air inlet port that is connected to a selector valve of next stage pneumatic pump.The inflation port 31 of the 4th selector valve is connected with four-way tracheae 16, air inlet port 41 is connected with main pipe rail 43, exhaust port 42 is connected with the external world, if also comprise next stage, and can also be by main pipe rail and the air inlet port that is connected to a selector valve of next stage pneumatic pump.The 3rd selector valve and the 4th selector valve replace commutation work.Outlet pipe 11 and 12 finally converges into a road and accesses total outlet pipe 26, and total outlet pipe 26 is arranged on a side of the 3rd container and the 4th container.In the present embodiment, the 3rd container and the 4th container are arranged to up-down structure, the 4th container be positioned at the 3rd container directly over, the 3rd container be positioned at second container directly over, make second container be positioned at the first container directly over, for making them on vertical straight line, make the outlet pipe 19 that is inserted into the 3rd container longitudinally through the 4th container, the 3rd single slope drainage valve 11 is arranged on the upper end of the 4th container.Outlet pipe 19 is through the local of the 3rd container and will carry out soldering with container wall through the place of the 4th container, and outlet pipe 20 will carry out soldering in case leak-stopping water or gas leakage with container wall through the place of the 4th container.
The first, second, third and the 4th selector valve is two position, three-way electromagnetic change valve, and they are controlled by four control ends 28,29,30 and 25 of PLC 27 respectively.
PLC 27 adopts time-multiplexed mode to control the working state of every one-level submersible pump, and concrete working procedure is as follows:
During beginning, gas holder 47 is closed.PLC 27 provides control signal as shown in Figure 2 to the first selector valve 21, the second selector valve 22, the 3rd selector valve 23 and the 4th selector valve 24 by four control ends 28,29,30 and 25 respectively, wherein,
Figure 698101DEST_PATH_IMAGE001
with pulse shape identical, by control end 28 and 25, provided respectively;
Figure 457296DEST_PATH_IMAGE003
with
Figure 852505DEST_PATH_IMAGE004
pulse shape identical, by control end 29 and 30, provided respectively.?
Figure 230659DEST_PATH_IMAGE005
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and exhaust port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and air inlet port are connected, this period, the first container is communicated with the 3rd container 3 by the first tracheae 13, the inflation port 34 of the first selector valve 21, the exhaust port 36 of the first selector valve 21, main pipe rail 43, the air inlet port 39 of the 3rd selector valve, inflation port 32, the 3rd tracheae 15 successively, sinking along with the pump housing, the air that " water " first one-way water inlet valve 5 by the first container 1 bottom enters into the first container 1, the first container 1 the inside is along with the 3rd container 3 that is pressed into of " water " of continuous rising.The first container and the 3rd container are equivalent to the seal container of two connections, and due to the pressure of air, water is not full of the first container.
?
Figure 53121DEST_PATH_IMAGE006
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and air inlet port are connected, the inflation port of the second selector valve 22 and the 3rd selector valve 23 and exhaust port are connected, this period, second container 2 is successively by the second tracheae 14, the inflation port 33 of the second selector valve 22, the exhaust port 38 of the second selector valve 22, main pipe rail 43, the air inlet port 41 of the 4th selector valve 24, the inflation port 31 of the 4th selector valve 24, the 4th tracheae 16 is communicated with the 4th container 4, sinking along with the pump housing, " water " enters into second container 2 by the second one-way water inlet valve 6 of second container 2 bottoms, the air of second container 2 the insides is along with the 4th container 4 that is pressed into of " water " of continuous rising.Second container and the 4th container are equivalent to the seal container of two connections, and due to the pressure of air, water is not full of second container.This period, the part air in the 3rd container is discharged into the external world through the exhaust port of the 3rd selector valve 23.
?
Figure 320155DEST_PATH_IMAGE007
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and exhaust port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and air inlet port are connected.This period, the first container is communicated with the 3rd container by the first tracheae 13, the inflation port 34 of the first selector valve 21, the exhaust port 36 of the first selector valve 21, main pipe rail 43, the air inlet port 39 of the 3rd selector valve, the inflation port 32 of the 3rd selector valve, the 3rd tracheae 15 successively.Due to the pressure of water, the one-way water inlet valve 7 of the 3rd container 3 is opened, and water is filled with the 3rd container, but now the first container and the 3rd container are equivalent to the seal container of two connections, and due to the pressure of air in container, the first and the 3rd container is not full of water.This period, the part air in the 4th container is discharged into the external world through the exhaust port of the 4th selector valve 24.
? in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and air inlet port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and exhaust port are connected, this period, second container 2 is communicated with the 4th container 4 by the second tracheae 14, the inflation port 33 of the second selector valve 22, the exhaust port 38 of the second selector valve 22, main pipe rail 43, the air inlet port 41 of the 4th selector valve 24, inflation port 31, the 4th tracheae 16 successively.Pressure due to water, the unidirectional water inflow valve 8 of the 4th container 4 is all opened, and water is filled with the 4th container, but now second container and the 4th container are equivalent to the seal container of two connections, due to the pressure of air in container, second container and the 4th container are not full of water.This period, the part air in the 3rd container is discharged into the external world through the exhaust port of the 3rd selector valve 23.
So far, four containers all are immersed in the water.If now, the pump housing continues to move down along the depth direction of water, and four one-way water inlet valves of four container lower ends are all opened, and the air in the container be not communicated with the external world is compressed, and the air venting in the container be in communication with the outside is to extraneous.
? in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and exhaust port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and air inlet port are connected.This period, the first container is communicated with the 3rd container by the first tracheae 13, the inflation port 34 of the first selector valve 21, the exhaust port 36 of the first selector valve 21, main pipe rail 43, the air inlet port 39 of the 3rd selector valve, inflation port 32, the 3rd tracheae 15 successively.But now the first container and the 3rd container are equivalent to the seal container of two connections.Part air in the 4th container is discharged into the external world through the exhaust port 42 of the 4th selector valve 24.
?
Figure 243614DEST_PATH_IMAGE010
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and air inlet port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and exhaust port are connected, this period, second container 2 is communicated with the 4th container 4 by the second tracheae 14, the inflation port 33 of the second selector valve 22, the exhaust port 38 of the second selector valve 22, main pipe rail 43, the air inlet port 41 of the 4th selector valve 24, inflation port 31, the 4th tracheae 16 successively.But now second container and the 4th container are equivalent to the seal container of two connections, the part air in the 3rd container is discharged into the external world through the exhaust port 40 of the 3rd selector valve 23.
Repeatedly repeat
Figure 60261DEST_PATH_IMAGE011
the process of period, four containers have all been expired water.Then open total valve 46, regulate reduction valve 45, access pressurized air.PLC27 postpones the control signal shown in Fig. 2
Figure 797272DEST_PATH_IMAGE012
, obtain signal as shown in Figure 3, then by four control ends 28,29,30 and 25, apply to the first selector valve 21, the second selector valve 22, the 3rd selector valve 23 and the 4th selector valve 24 respectively.
? in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and air inlet port are connected; The inflation port of the second selector valve 22 and the 3rd selector valve 23 and exhaust port are connected, this period, gas holder is communicated with the first container 1 by total valve 46, reduction valve 45, the air inlet port 35 of the first selector valve 21, the inflation port 34 of the first selector valve 21, the first tracheae 13 successively, the first one-way water inlet valve 5 is closed in " water " extruding of air by compression in the first container, open the first single slope drainage valve 9 from first row water pipe 17 pumps to water main 26.
?
Figure 812819DEST_PATH_IMAGE013
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and exhaust port are connected, the inflation port of the second selector valve 22 and the 3rd selector valve 23 and air inlet port are connected, this period, the first container is successively by the first tracheae 13, the inflation port 34 of the first selector valve 21, the exhaust port 36 of the first selector valve 21, main pipe rail 43, the air inlet port 39 of the 3rd selector valve, inflation port 32, the 3rd tracheae 15 is communicated with the 3rd container, the pressurized air of the first container 1 the inside enters into three containers, the 3rd one-way water inlet valve 7 is closed in " water " extruding of air by compression in the 3rd container, open the 3rd single slope drainage valve 11 from the 3rd waste pipe 11 pumps to water main 26, simultaneously, the first one-way water inlet valve 5 of the first container 1 bottom is opened, water is filled with again the first container 1.In addition, gas holder is communicated with second container 2 by total valve 46, reduction valve 45, the air inlet port 37 of the second selector valve 22, the inflation port 33 of the second selector valve 22, the second tracheae 14 successively, the second one-way water inlet valve 6 is closed in " water " extruding of air by compression in second container, opens the second single slope drainage valve 10 from second row water pipe 18 also pump to water main 26.
?
Figure 54444DEST_PATH_IMAGE007
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and air inlet port are connected, the inflation port of the second selector valve 22 and the 3rd selector valve 23 and exhaust port are connected, this period, second container is successively by the second breathing pipe 14, the inflation port 37 of the second selector valve 22, the exhaust port 38 of the second selector valve 22, main pipe rail 43, the air inlet port 41 of the 4th selector valve, inflation port 31, the 4th tracheae 16 is communicated with the 4th container, the pressurized air of second container 2 the insides enters into four containers, " water " extruding of air by compression in the 4th container open the 4th single slope drainage valve 12 from the 4th waste pipe 20 pumps to water main 26, simultaneously, the second one-way water inlet valve 6 of second container 2 bottoms is opened, water is filled with again second container 2.In addition, gas holder is communicated with the first container 1 by total valve 46, reduction valve 45, the air inlet port 35 of the first selector valve 21, the inflation port 34 of the first selector valve 21, the first tracheae 13 successively, the first one-way water inlet valve 5 is closed in " water " extruding of air by compression in the first container, open the first single slope drainage valve 9 from first row water pipe 17 pumps to water main 26.Pressurized air in the 3rd container 3 is got the external world by the inflation port 32 of the first tracheae 15, the 3rd selector valve, exhaust port 40 discharges of the 3rd selector valve successively, and the 3rd one-way water inlet valve 7 of the 3rd container 3 bottoms is opened, and water is filled with the 3rd container 3.
?
Figure 896279DEST_PATH_IMAGE008
in, the inflation port of the first selector valve 21 and the 4th selector valve 24 and exhaust port are connected, the inflation port of the second selector valve 22 and the 3rd selector valve 23 and air inlet port are connected, this period, the first container is successively by the first tracheae 13, the inflation port 34 of the first selector valve 21, the exhaust port 36 of the first selector valve 21, main pipe rail 43, the air inlet port 39 of the 3rd selector valve, inflation port 32, the 3rd tracheae 15 is communicated with the 3rd container, the pressurized air of the first container 1 the inside enters into three containers, the 3rd one-way water inlet valve 7 is closed in " water " extruding of air by compression in the 3rd container, open the 3rd single slope drainage valve 11 from the 3rd waste pipe 11 pumps to water main 26.Simultaneously, the first one-way water inlet valve 5 of the first container 1 bottom is opened, and water is filled with again the first container 1.Gas holder is communicated with second container 2 by total valve 46, reduction valve 45, the air inlet port 37 of the second selector valve 22, the inflation port 33 of the second selector valve 22, the second tracheae 14 successively, the second one-way water inlet valve 6 is closed in " water " extruding of air by compression in second container, opens the second single slope drainage valve 1 from second row water pipe 18 also pump to water main 26.Pressurized air in the 4th container 4 is got the external world by the inflation port 31 of the 4th tracheae 16, the 4th selector valve, exhaust port 42 discharges of the 4th selector valve successively, and the 3rd one-way water inlet valve 8 of the 4th container 4 bottoms is opened, and water is filled with the 4th container 4.
After this, repeat
Figure 539750DEST_PATH_IMAGE014
the process of period, water just constantly arrives eminence by water main 26 pumps.
In addition, although the present embodiment has two-stage with the Pneumatic circulation pump, every grade of situation with two containers is illustrated,, according to design of the present invention, the Pneumatic circulation pump can also have the n level, wherein
Figure 937234DEST_PATH_IMAGE015
and be integer, every grade can have individual container, wherein
Figure 744970DEST_PATH_IMAGE017
.Its basic principle is: utilize the pressure of water and compressed-air actuated pressure to control water in multistage container and be filled with and discharge, make the container that multistage volume is identical vertically be arranged to row or along left and right directions, in a row and cascade connection is set, fill the compression air to the container of the first order, water in the first order container extrusion pump of air by compression arrives eminence, then make the interior pressurized air of first order container be filled with the container of the second level, water in the container of the second level extrusion pump of air by compression arrives eminence, again is filled with water in first order container simultaneously; Make container interior pressurized air in the second level be filled with the container of the third level, the water in the third level container extrusion pump of air by compression arrives eminence, again is filled with water in the container of the second level simultaneously.While making the interior pressurized air of container at the corresponding levels be filled with the container of next stage, the water in the next stage container extrusion pump of air by compression arrives eminence, and container at the corresponding levels also has been filled with water again simultaneously.
Be exactly more than this pneumatic pump structure and working procedure, because there is no rotating part, do not have easily worn part and shape changeable, changeable, go for various rugged environment, the all defect of tradition submersible pump and centrifugal pump, all be readily solved, again do not need to worry the problems such as insulation, electric leakage, explosion-proof, antirust, bearing rapid wear, polluted source.
Although below by reference to the accompanying drawings the present invention has been done to elaborate, it should be recognized by those skilled in the art that under the prerequisite that does not break away from the present invention's design, any improvement of making based on the present invention and conversion still belong to the content in protection domain of the present invention.

Claims (6)

1. a Pneumatic circulation pump, is characterized in that, it comprises at least pneumatic pump of the use compressed air-driven of two-stage cascade, and first order pneumatic pump connects compressed gas source, and the pressurized gas that the previous stage pneumatic pump is discharged is for driving rear one-level pneumatic pump.
2. Pneumatic circulation pump according to claim 1, is characterized in that, every one-level pneumatic pump comprises two containers and two selector valves, and wherein, the upper end of each container is provided with the breathing pipe inserted in container, and the bottom of each container is provided with one-way water inlet valve; Each container also is provided with outlet pipe, and the outlet pipe place is provided with the single slope drainage valve; The inflation port of selector valve is connected with the breathing pipe of a container, the air inlet port is connected with the external world with source of the gas connection, exhaust port or is connected with the air inlet port of a selector valve of the pneumatic pump of next stage by main pipe rail; Two selector valves commutate by time-multiplexed mode.
3. root Pneumatic circulation pump claimed in claim 2, is characterized in that, the volume of two containers of every one-level pneumatic pump is all identical.
4. Pneumatic circulation pump according to claim 3, is characterized in that, selector valve is two position, three-way electromagnetic change valve.
5. Pneumatic circulation pump according to claim 4, is characterized in that, all containers vertically arrange up and down or left and right is set up in parallel.
6. wind-force paddy electricity energy storage Pneumatic circulation pumping system, it comprises the wind-force air compressor for air is compressed or the electric power air compressor that air is compressed and for the air container of store compressed air, it is characterized in that, also comprise described Pneumatic circulation pump as arbitrary as claim 1-5, described Pneumatic circulation pump utilizes the pressurized air that air container is stored to be driven.
CN2013104053520A 2013-09-09 2013-09-09 Pneumatic circulating type pump and wind power valley electricity energy-storage pneumatic circulating type pumping system Pending CN103438030A (en)

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PCT/CN2013/088810 WO2015032137A1 (en) 2013-09-09 2013-12-06 Wind power valley electricity pneumatic energy-storage cyclic water pumping system

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105402172A (en) * 2015-12-08 2016-03-16 成都广雄科技有限公司 Device for continuously generating compressed air

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GB1024277A (en) * 1962-12-31 1966-03-30 Edward Malcolm Smith Improvements in automatic apparatus for raising or forcing liquids
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CN102900712A (en) * 2012-09-29 2013-01-30 王曙光 Gas booster pump and emergency air-energy multifunctional water purification system
CN203476840U (en) * 2013-09-09 2014-03-12 青岛格兰德新能源有限公司 Pneumatic circulation type pump and wind power valley electricity energy storage pneumatic circulation type water pumping system

Cited By (1)

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CN105402172A (en) * 2015-12-08 2016-03-16 成都广雄科技有限公司 Device for continuously generating compressed air

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