Coupling integrated device for dynamic water flow water-leaving water storage cultivation and rewater discharging power generation

Abstract

The utility model discloses a dynamic water flow out-of-water storage cultivation and rewater discharge power generation coupling integrated device, which belongs to the technical field of electric power equipment, comprises a hill, a hillside, water flow and a field position, and is characterized in that the hillside is positioned on one side of the hill, and the water flow comprises a water flow upper head and a water flow lower head; the upper half part of the water flow is provided with a river retaining short dam, the water flow upper water head and the water flow lower water head are respectively located at the top and the bottom of one side of the hillside, the field position is located at the joint position of the water flow and the hillside, and a siphon vacuum pump is arranged on one side of the water flow upper water head and comprises a vacuum extraction nozzle and a vacuum water tank. Through cooperation of the siphon vacuum pump, the 1 # water hammer pump assembly and the 2 # water hammer pump assembly, under the condition that no electric power, oil gas and other energy sources are consumed, hydraulic potential energy formed by using the fall of terrains serves as a power water source, and water pumping, water storage, cultivation and water discharging for power generation all the year round can be achieved continuously day and night.

Description

Technical Field

[0001] The utility model relates to the technical field of electric power equipment, specifically to a coupled integrated device which artificially draws water from a dynamic water flow, stores water after leaving the water, performs aquaculture, and then releases water in equal amounts, thereby utilizing the hydraulic potential energy to generate electricity. Background Art

[0002] In order to realize the policies of "carbon peak, carbon neutrality" and "two controls" as soon as possible, my country, together with other countries in the world, is actively developing renewable, recyclable, clean, environmentally friendly and green new energy.

[0003] The traditional method of storing water for power generation is to smooth out the peak loads of the power grid and fill the valleys. It is a means of energy storage, but it cannot increase the total power of the power grid. Instead, it consumes a certain amount of power from the power grid.

[0004] In many places nowadays, people install water hammer pump systems in dynamic water flows and streams, and use the height difference between the upper water head and the installed water hammer pump position to introduce flowing water through pipes as a power water source. Water hammer pumps are used to boost pressure and pump water for farmland irrigation or aquaculture development. Therefore, water hammer pumps are widely used in agriculture, fishery and other fields.

[0005] However, installing a ram pump system in a water flow will often cause it to be submerged or work only intermittently due to many reasons such as floods caused by heavy rain seasons and reduced water flow or water outages in dry seasons, making it impossible to perform continuous and uninterrupted reciprocating pumping and lifting work all year round. Utility Model Content

[0006] The purpose of the utility model is to provide a dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device, through the cooperation of the siphon vacuum pump, 1# water hammer pump assembly and 2# water hammer pump assembly without consuming any electricity, oil, gas and other energy sources, using the terrain drop, the potential energy formed as a power water source, to achieve year-round water pumping, water storage, aquaculture and water release and power generation day and night, so as to solve the problems raised in the above-mentioned background technology.

[0007] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: a dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device, including hills, hillsides, water flows, and on-site locations, characterized in that: the hillside is located on one side of the hill, the water flow includes an upper head of the water flow and a lower head of the water flow, a low dam is provided on the upper half of the water flow, the upper head of the water flow and the lower head of the water flow are respectively located at the top and bottom of one side of the hillside, the on-site location is located at the interface between the water flow and the hillside, a siphon vacuum pump is provided on one side of the upper head of the water flow, and the siphon vacuum pump includes a vacuum pump. An empty extraction nozzle and a vacuum water tank, wherein the vacuum extraction nozzle is connected to the top of the vacuum water tank, and the other side of the top of the vacuum water tank is connected to a large water well, and the bottom of the vacuum water tank is connected to a 1# water hammer pump assembly, and a water inlet trough wheel generator is provided at the top of the hillside, and one side of the water inlet trough wheel generator is connected to a water inlet trough, and one side of the water inlet trough is connected to a large water reservoir, and the large water reservoir is located on one side of the top of the hillside, and a 2# water hammer pump assembly is provided on one side of the on-site location, and a 2# water hammer pump power water inlet is opened on one side of the 2# water hammer pump assembly.

[0008] Preferably, one side of the 1# water hammer pump assembly is connected to the 1# water hammer pump power water inlet, and the bottom of the vacuum water tank is connected to the 1# water hammer pump power water inlet through a water outlet and a water outlet pipe, and the water outlet pipe includes a water outlet pipe valve.

[0009] Preferably, the top of the 1# water hammer pump assembly is connected to the water inlet groove wheel generator through the 1# water hammer pump water replenishment and lifting pipe, the 1# water hammer pump lifting pipe lower bend pipe and the 1# water hammer pump lifting pipe outlet.

[0010] Preferably, a dirt retaining net is fixedly connected to one side of the inner cavity of the large water reservoir by bolts, and a chute is connected to one side of the large water reservoir through a water tank drain pipe, the water tank drain pipe includes an external water tank drain valve, the chute is arranged at the top of the hillside, and a plurality of wheel generators are fixedly installed in the inner cavity of the chute.

[0011] Preferably, one side of the chute is connected to the 2# water hammer pump power water inlet through the 2# water hammer pump power water pipe and the 2# water hammer pump power water pipe valve, the top of the 2# water hammer pump assembly is connected to the water inlet trough wheel generator through the 2# water hammer pump water lifting pipe and the 2# water hammer pump water lifting pipe outlet, and breeze generators are provided on the top of the 2# water hammer pump water lifting pipe and the 1# water hammer pump water replenishment lifting pipe.

[0012] Preferably, a photovoltaic panel and a tubular generator are provided on the top of the 2# water hammer pump water lifting pipe.

[0013] Preferably, the large water well is located on one side of the upper head of the water flow, the large water well is connected to the water flow, and the large water well is connected to the vacuum water tank through a water inlet and a water inlet pipe.

[0014] Compared with the prior art, the beneficial effects of the utility model are:

[0015] The utility model provides a dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device, by building one or more stepped water storage tanks; utilizing the height difference of riverside terrain, adopting a siphon vacuum pump to pump water from a stream or a creek into the water storage tank without consuming electric energy and oil and gas energy, at the same time, the water storage tank continuously releases water and utilizes its potential energy to generate electricity, and then more than half of the tail water with a height difference of 7 to 8 meters and a certain hydraulic potential energy is recycled and pumped by multiple water hammer pump systems and injected into various water storage tanks on the hillside, and the water in the water storage tanks is used to develop aquaculture, and according to the amount of water pumped, equal and continuous water release is carried out, the water flow will generate potential energy depending on the slope of the hillside, and hydraulic potential energy power generation is carried out uninterruptedly. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0017] Figure 2 This is a schematic diagram of the stepped water pumping, water storage, water discharge and power generation structure of the utility model;

[0018] Figure 3 This is a schematic diagram of the enlarged structure of the B area of ​​the utility model;

[0019] Figure 4 It is a schematic diagram of the enlarged structure of area A of the present utility model.

[0020] Numbers in the figure: 1. Hill; 2. Hillside; 3. Water head; 4. On-site location; 5. Water head; 6. Siphon vacuum pump; 7. Vacuum extraction nozzle; 8. Water inlet; 9. Water inlet; 10. Water outlet; 11. Water outlet pipe; 12. Water outlet pipe valve; 13. 1# water hammer pump assembly; 14. 1# water hammer pump power water inlet; 15. 1# water hammer pump water replenishment and lifting pipe; 16. 2# water hammer pump assembly; 17. 2# water hammer pump power water inlet; 18. 2# water hammer pump power water pipe valve; 19. 2# water hammer pump power Water pipe; 20. Chute; 21. Wheel generator; 22. Pool drain pipe; 23. Pool drain valve; 24. Sewage screen; 25. Reservoir; 26. 2# water hammer pump water pipe; 27. 1# water hammer pump water pipe lower bend; 28. 1# water hammer pump water pipe outlet; 29. ​​2# water hammer pump water pipe outlet; 30. Inlet trough; 31. Inlet trough wheel generator; 32. River-blocking dam; 33. Large well; 34. Vacuum water tank; 35. Photovoltaic panel; 36. Breeze generator; 37. Tubular generator. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0022] The utility model provides Figures 1 to 4 The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device shown includes a hill 1, a hillside 2, a water flow, and a field location 4. The hillside 2 is located on one side of the hill 1. The water flow includes a water flow upper head 3 and a water flow lower head 5. A river-blocking dam 32 is arranged on the upper half of the water flow. The water flow upper head 3 and the water flow lower head 5 are respectively located at the top and bottom of one side of the hillside 2. The field location 4 is located at the interface between the water flow and the hillside 2. A siphon vacuum pump 6 is arranged on one side of the water flow upper head 3. The siphon vacuum pump 6 includes a vacuum extraction nozzle 7 and a vacuum water tank 34. The vacuum extraction nozzle 7 It is connected to the top of the vacuum water tank 34, the other side of the top of the vacuum water tank 34 is connected to a large water well 33, the bottom of the vacuum water tank 34 is connected to the 1# water hammer pump assembly 13, a water inlet trough wheel generator 31 is provided on the top of the hillside 2, one side of the water inlet trough wheel generator 31 is connected to the water inlet trough 30, one side of the water inlet trough 30 is connected to a large water reservoir 25, the large water reservoir 25 is located on one side of the top of the hillside 2, a 2# water hammer pump assembly 16 is provided on one side of the on-site location 4, and a 2# water hammer pump power water inlet 17 is opened on one side of the 2# water hammer pump assembly 16.

[0023] One side of the 1# water hammer pump assembly 13 is connected to the 1# water hammer pump power water inlet 14. The bottom of the vacuum water tank 34 is connected to the 1# water hammer pump power water inlet 14 through the water outlet 10 and the water outlet pipe 11. The water outlet pipe 11 includes a water outlet pipe valve 12.

[0024] As a technical optimization scheme of the utility model, according to the annual water volume of the water flow or stream, it is determined whether it is necessary to build a low dam 32 or a rubber dam in the river where the water head 3 flows. If there is a certain amount of water in the dry season to meet the needs, it is not necessary to build a low dam 32 or a rubber dam. It is only necessary to build a large well 33 in the river or near the shore and install a siphon vacuum pump 6.

[0025] The topographical difference of the upstream head 3 of the water flow must be more than 10 to 15 meters higher than the on-site position 4, and the downstream head 5 of the water flow is left to nature.

[0026] On the bank of a stream or a creek, a hill 1 is selected, and on its slope 2, at a height of less than 400m, one or more large reservoirs 25 are constructed in a stepped manner, and multiple sets of 1# water hammer pump assembly 13 systems and multiple sets of 2# water hammer pump assembly 16 systems are installed at the site location 4 near the river bank directly below.

[0027] One or more siphon vacuum pumps 6 need to be installed on the bank of the water head 3 of a water flow with a high drop in water flow or stream. A vacuum pump is used to extract the air in the vacuum water tank 34 of the siphon vacuum pump 6 through the vacuum extraction nozzle 7 one by one to form a vacuum negative pressure. The data obtained by the test is -0.045~-0.048MPa. Under the action of the negative pressure vacuum in the vacuum water tank 34, the river water or stream water enters the vacuum water tank 34 through the water inlet 9 and the water inlet pipe 8 of the large well 33. When the water in the vacuum water tank 34 is full, the vacuum pump is stopped from extracting vacuum, and the vacuum extraction nozzle 7 will automatically close; open the outlet pipe valve 12 on the outlet pipe 11, and the water in the vacuum water tank 34 will continue to flow along the outlet 10 and the outlet pipe 11 into the 1# water hammer pump power water inlet 14.

[0028] When the outlet pipe valve 12 is closed, the vacuum water tank 34 will stop taking in water; otherwise, the water in the large well 33 will automatically flow into the vacuum water tank 34 through the water inlet 9 and the water inlet pipe 8 under the action of the vacuum of the vacuum water tank 34.

[0029] After a portion of water is released from the vacuum water tank 34 through the water outlet pipe 11, the liquid level will automatically drop by 20-30%, and a negative pressure will be automatically formed. The negative pressure value is generally related to the absolute height of the siphon vacuum pump 6 and the water inlet 9. The test data is -0.045-0.048MPa. The water in the large well 33 will be automatically drawn through the water inlet pipe 8 and the water inlet 9, and will flow into the vacuum water tank 34 continuously.

[0030] It should be noted that: the elevation of the water inlet 9 must be higher than the elevation of the 1# water hammer pump power water inlet 14, so that water can flow into the 1# water hammer pump power water inlet 14 and the 1# water hammer pump assembly 13 from the water outlet pipe 11; and the vertical drop between the water inlet 9 and the 1# water hammer pump power water inlet 14 must be 3 to 7 meters, preferably 7 to 8 meters. The water entering the 1# water hammer pump power water inlet 14 from the water outlet pipe 11 can have enough potential energy to provide a power water source for the 1# water hammer pump assembly 13, and the flow rate of the water outlet pipe 11 must be greater than the demand of the 1# water hammer pump assembly 13, ensuring the power water source and pumping water source of the 1# water hammer pump assembly 13.

[0031] The top of the 1# water hammer pump assembly 13 is connected to the water inlet groove wheel generator 31 through the 1# water hammer pump water replenishment and lifting pipe 15, the 1# water hammer pump lifting pipe lower bend pipe 27 and the 1# water hammer pump lifting pipe outlet 28.

[0032] One side of the inner cavity of the large water storage tank 25 is fixedly connected with a dirt retaining net 24 by bolts. One side of the large water storage tank 25 is connected with a chute 20 through a water tank drain pipe 22. The water tank drain pipe 22 includes an external water tank drain valve 23. The chute 20 is arranged at the top of the hillside 2. The inner cavity of the chute 20 is fixedly equipped with a plurality of wheel generators 21.

[0033] One side of the chute 20 is connected to the 2# water hammer pump power water inlet 17 through the 2# water hammer pump power water pipe 19 and the 2# water hammer pump power water pipe valve 18. The top of the 2# water hammer pump assembly 16 is connected to the water inlet tank wheel generator 31 through the 2# water hammer pump lifting pipe 26 and the 2# water hammer pump lifting pipe outlet 29. The tops of the 2# water hammer pump lifting pipe 26 and the 1# water hammer pump water replenishment lifting pipe 15 are both provided with breeze generators 36.

[0034] As a technical optimization scheme of the utility model, since the materials of the 1# water hammer pump water replenishment and lifting pipe 15 and the 2# water hammer pump water lifting pipe 26 are seamless steel pipes or galvanized pipes, they have greater strength, and multiple pipes are arranged in parallel to lift water, in addition to connecting the tubular generator 37 to the pipeline, photovoltaic panels 35 and breeze generators 36 can be added thereon to perform multi-energy complementary power generation.

[0035] A photovoltaic panel 35 and a tubular generator 37 are provided on the top of the 2# water hammer pump water lifting pipe 26 .

[0036] The large water well 33 is located on one side of the water head 3 of the water flow, and the large water well 33 is connected with the water flow. The large water well 33 is connected with the vacuum water tank 34 through the water inlet 9 and the water inlet pipe 8.

[0037] As a technical optimization scheme of the utility model, the 1# hammer pump assembly 13 system converts the power water source with certain potential energy flowing into the 1# hammer pump power water inlet 14 into a pressure energy water source through hydraulic potential energy and kinetic energy, and then drives it into the water inlet trough wheel generator 31 built on the hillside 2 of the hill 1 through the 1# hammer pump water replenishment and lifting pipe 15, the 1# hammer pump lifting pipe lower bend 27, and the 1# hammer pump lifting pipe outlet 28 to generate electricity for the first time. The tail water after power generation flows into the reservoir 25 through the water inlet trough 30 for water storage.

[0038] The 1# water hammer pump assembly 13 system needs to rely on the siphon vacuum pump 6 system to provide it with the original power water source and the pumping water source. The 1# water hammer pump assembly 13 system can be one set or multiple sets to provide water source and power water source.

[0039] 1# water hammer pump assembly 13 and 2# water hammer pump assembly 16 can be selected and purchased in the market as needed; the water inlet pipe 8, the water outlet pipe 11, and the 2# water hammer pump power water pipe 19 can be galvanized steel pipes, seamless steel pipes, or steel wire hoses; 1# water hammer pump water replenishment and lifting pipe 15, 2# water hammer pump lifting pipe 26, and 1# water hammer pump lifting pipe lower bend pipe 27 are galvanized steel pipes or seamless steel pipes; 1# water hammer pump assembly 13 and 2# water hammer pump assembly 16 and pipelines need to be sprayed with paint once a year.

[0040] In order to reduce the investment and convenience of the whole system, one or more sets of 2# water hammer pump assembly 16 are set up at the on-site location 4. The power water source of 2# water hammer pump assembly 16 is changed to tail water with certain potential energy after the chute 20 is generated by the wheel generator 21 as the power water source and pumping water source of 2# water hammer pump assembly 16.

[0041] Since 45-50% of the water will be discharged by the 2# hammer pump assembly 16 and evaporated in the water reservoir 25 during the water pumping process, the tail water after the power generation by the wheel generator 21 in the chute 20 of the water reservoir 25 is used, and then the 2# hammer pump assembly 16 is used for circulating pressurization and water pumping. In the end, the amount of water in each water reservoir 25 will gradually decrease; in addition, the newly started power generation project first needs to store water in each water reservoir 25 one by one, which also requires a large amount of water. Therefore, it is necessary to add one or more sets of 1# hammer pump assembly 13 systems to perform the first water injection for each large water reservoir 25 and maintain the overall water balance of the water reservoir 25 and the 2# hammer pump assembly 16 for annual pressurization and water pumping.

[0042] If the 1# water hammer pump assembly 13 and the 2# water hammer pump assembly 16 are manufactured with high precision and have a reasonable structure, the head will be very large, generally between 100m and 300m, and can reach up to more than 400m.

[0043] Since the pressure in the 1# water hammer pump water supply and lifting pipe 15 and the 2# water hammer pump water supply and lifting pipe 26 is also very large, the water pressure provided to the water inlet groove wheel generator 31 by the 1# water hammer pump water supply and lifting pipe outlet 28 and the 2# water hammer pump water supply and lifting pipe outlet 29 is also very large, and the power generation efficiency of the water inlet groove wheel generator 31 is also very high; in order to reduce the pressure at the 1# water hammer pump water supply and lifting pipe outlet 28 and the 2# water hammer pump water supply and lifting pipe outlet 29, one or more sets of sleeve-type generators 37 can be installed in series on the 1# water hammer pump water supply and lifting pipe 15 and the 2# water hammer pump water supply and lifting pipe 26, while increasing the power generation, it also relatively reduces some of the pressure at the 1# water hammer pump water supply and lifting pipe outlet 28 and the 2# water hammer pump water supply and lifting pipe outlet 29, and at the same time, the tail water after the water inlet groove wheel generator 31 generates electricity is stored in the water reservoir 25 through the water inlet water tank 30.

[0044] The 1# water hammer pump water pipe outlet 28 and the 2# water hammer pump water pipe outlet 29 provide a water source for the water reservoir 25 to store water.

[0045] When the water storage tank 25 reaches the water storage line requirement, it is necessary to lift and control the height of the water tank drain valve 23 outside the water tank drain pipe 22 so that the amount of water released from the water tank drain pipe 22 matches and is equal to the total amount of water pumped by the 1# water hammer pump water pipe outlet 28 and the 2# water hammer pump water pipe outlet 29, so as to maintain the annual water balance between water storage and water discharge.

[0046] A large reservoir 25 can be built along the hillside 2 of the hill 1, or multiple large reservoirs 25 can be built in a stepped manner to pump water and discharge water step by step. Figure 2 .

[0047] Since the water outlet 22 of the pool has a large potential energy and the slope of the chute 20 is also 12-45 degrees, the water in the chute 20 has a large potential energy and electrical energy, and a plurality of wheel generators 21 can be installed in series to generate electricity.

[0048] The tail water after the wheel generator 21 generates electricity still has a certain potential energy and electrical energy, which can flow into the 2# water hammer pump power water inlet 17 through the 2# water hammer pump power water pipe 19 and the 2# water hammer pump power water pipe valve 18, and then provide power water source and pumping water source for the 2# water hammer pump assembly 16.

[0049] All the water from the siphon vacuum pump 6 enters the 1# water hammer pump assembly 13 through the outlet pipe 11, of which 50-65% is pumped to the water reservoir 25 by the 1# water hammer pump assembly 13, and the remaining water flows by gravity to the water head 5.

[0050] All the tail water in the chute 20 enters the 2# ram pump assembly 16, 50-65% of the water is pumped again by the 2# ram pump assembly 16 to the reservoir 25, and the remaining water flows into the water stream by gravity.

[0051] The 1# water hammer pump assembly 13 and the 2# water hammer pump assembly 16 of the utility model can also be replaced by a water-powered turbine pump.

[0052] The circuit connection involved in the present utility model is a common means used by those skilled in the art, and technical inspiration can be obtained through a limited number of experiments, which belongs to common knowledge.

[0053] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device, comprising a hill (1), a hillside (2), a water flow, and a site location (4), characterized in that: The hillside (2) is located on one side of the hill (1); the water flow includes an upper head (3) and a lower head (5); a dam (32) is provided at the upper half of the water flow; the upper head (3) and the lower head (5) are respectively located at the top and bottom of one side of the hillside (2); the on-site location (4) is located at the interface between the water flow and the hillside (2); a siphon vacuum pump (6) is provided on one side of the upper head (3) of the water flow; the siphon vacuum pump (6) includes a vacuum extraction nozzle (7) and a vacuum water tank (34); the vacuum extraction nozzle (7) is connected to the top of the vacuum water tank (34); the vacuum water tank (34) is connected to the upper head (3) of the water flow; ) is connected to a large water well (33) on the other side of the top of the hillside (2); the bottom of the vacuum water tank (34) is connected to a 1# water hammer pump assembly (13); a water inlet groove wheel generator (31) is provided on the top of the hillside (2); one side of the water inlet groove wheel generator (31) is connected to a water inlet trough (30); one side of the water inlet trough (30) is connected to a large water reservoir (25); the large water reservoir (25) is located on one side of the top of the hillside (2); a 2# water hammer pump assembly (16) is provided on one side of the on-site location (4); a 2# water hammer pump power water inlet (17) is provided on one side of the 2# water hammer pump assembly (16).

2. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 1 is characterized in that: One side of the 1# ram pump assembly (13) is connected to the 1# ram pump power water inlet (14), and the bottom of the vacuum water tank (34) is connected to the 1# ram pump power water inlet (14) through the water outlet (10) and the water outlet pipe (11). The topographical difference of the water head (3) of the water flow is higher than that of the on-site position (4) by more than 10 to 15 meters, and the water outlet pipe (11) includes a water outlet pipe valve (12).

3. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 2 is characterized in that: The top of the 1# hammer pump assembly (13) is connected to the water inlet groove wheel generator (31) through the 1# hammer pump water replenishment and lifting pipe (15), the 1# hammer pump lifting pipe lower bend pipe (27) and the 1# hammer pump lifting pipe water outlet (28).

4. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 1 is characterized in that: A dirt retaining net (24) is fixedly connected to one side of the inner cavity of the large water storage tank (25) by means of bolts. A chute (20) is connected to one side of the large water storage tank (25) via a water storage tank drain pipe (22). The water storage tank drain pipe (22) includes an outer water storage tank drain valve (23). The chute (20) is arranged at the top of the hillside (2). A plurality of wheeled generators (21) are fixedly mounted in the inner cavity of the chute (20).

5. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 4 is characterized in that: One side of the chute (20) is connected to the 2# ram pump power water inlet (17) through the 2# ram pump power water pipe (19) and the 2# ram pump power water pipe valve (18); the top of the 2# ram pump assembly (16) is connected to the water inlet wheel generator (31) through the 2# ram pump water lifting pipe (26) and the 2# ram pump water lifting pipe outlet (29); and the tops of the 2# ram pump water lifting pipe (26) and the 1# ram pump water replenishment lifting pipe (15) are both provided with breeze generators (36).

6. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 5 is characterized by: A photovoltaic panel (35) and a tubular generator (37) are arranged on the top of the No. 2 water hammer pump water lifting pipe (26).

7. The dynamic water flow separation water storage aquaculture and then water release power generation coupling integrated device according to claim 1 is characterized in that: The large water well (33) is located on one side of the upper water head (3) of the water flow, the large water well (33) is connected to the water flow, and the large water well (33) is connected to the vacuum water tank (34) through the water inlet (9) and the water inlet pipe (8).

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