Animal power load bearing improved high-pressure water energy storage power generation device

Abstract

The animal power load bearing improved high-pressure water energy storage power generation device comprises a deflection disc, an energy taking mechanism is arranged at the top of the deflection disc, a synchronizing mechanism is arranged outside the energy taking mechanism, and a bypassing energy increasing mechanism is arranged in the synchronizing mechanism; and the bypassing energy increasing mechanism comprises two groups of symmetrical first synchronous cross beams, second synchronous cross beams and third synchronous cross beams. According to the animal-power load-bearing improved high-pressure water energy storage power generation device, synchronous cross beams of a bypassing energy increasing mechanism, a bent weighting mechanism and other mechanisms surround a central column to form a lever system, gravity is continuously provided in the uphill and downhill directions of a deflection disc, bypassing symmetrical balance beams and bypassing corresponding symmetrical balance beams alternately move, and therefore the power generation efficiency is improved. Generated kinetic energy and potential energy gravity are transmitted through a center column, the lever effect is generated to the maximum degree by means of the extremely short prying point distance, a U-shaped force applying lock is pushed, a bypassing load bearing flat beam is indirectly pushed, force is transmitted to an upper water pump, continuous gravity input is ensured, and work interruption is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of power generation devices, and in particular to an improved animal-powered load-bearing high-pressure water energy storage power generation device. Background Art

[0002] A power generation device is a mechanical device that converts mechanical energy into electrical energy. It plays a vital role in industrial and agricultural production, national defense, science and technology, and daily life in modern society. It not only ensures the stability of power supply, but also provides the necessary energy for various power equipment. With the development of science and technology, new power generation devices such as wind power generation, solar photovoltaic power generation equipment and other renewable energy power generation technologies are also being continuously developed and applied to meet the challenges of energy crisis and environmental protection.

[0003] After searching, the invention patent with patent application number CN201510550554.3 proposed an animal-powered load-bearing milling generator. This invention patent realizes power generation by pulling the weight uphill, but it is not conducive to continuous work. The invention patent with patent application number CN201410031360.8 proposed a fitness equipment that simultaneously takes the weight, load and pulling force of people and livestock to pump water. This invention directly converts weight into power and cannot be used to directly generate electricity, thus reflecting the shortcomings of traditional power generation fitness equipment. The invention patent with patent application number CN2 The invention patent No. 02410631926.4 proposes an improved gravity energy storage power generation device, which has only one uphill load-bearing beam working, and its inability to generate electricity on a large scale is its shortcoming, and its inability to make the uphill side of the deflection disk heavier is also its shortcoming. The invention patent with patent application number CN202410814144.4 proposes an improved hydraulic energy storage power generation device with multiple load-bearing beams to generate gravity. Because it cannot make the uphill side of the deflection disk heavier, it is not conducive to continuous operation. Therefore, an improved high-pressure water energy storage power generation device with animal power load is proposed. Summary of the invention

[0004] 1. Technical issues to be resolved In view of the deficiencies in the prior art, the present invention provides an improved animal-powered high-pressure water energy storage and power generation device.

[0005] (II) Technical solution To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an improved animal-powered high-pressure water energy storage power generation device, comprising a deflection plate and a bottom variable-speed piston water pump located at the bottom of the deflection plate, the bottom of the deflection plate is provided with a bottom variable-speed piston water pump, the interior of the deflection plate is provided with a middle variable-speed piston water pump, the upper part of the deflection plate is provided with an upper variable-speed piston water pump and a universal wheel variable-speed piston water pump, the top of the deflection plate is provided with an energy taking mechanism, the outside of the energy taking mechanism is provided with a synchronization mechanism, and the interior of the synchronization mechanism is provided with a bypass energy-increasing mechanism; The bypass energy-enhancing mechanism comprises two groups of correspondingly symmetrical first synchronous beams, second synchronous beams and third synchronous beams, a center column is arranged in front between the second synchronous beams and the third synchronous beams, a curved weight-biasing mechanism is arranged on the top of the bypass energy-enhancing mechanism, an energy-gathering mechanism is arranged on the top of the curved weight-biasing mechanism, and an energy-enhancing mechanism is arranged on the top of the energy-gathering mechanism.

[0006] Furthermore, the bypass energy-enhancing mechanism also includes two groups of bypass load-bearing flat beams, and the two groups of bypass load-bearing flat beams are respectively fixedly installed with load-bearing columns that form an angle of 45 degrees with the ground, the outer part of the weight-bearing column is provided with a first uphill weight-bearing sleeve and the outer part of another group of corresponding weight-bearing columns is provided with a second downhill weight-bearing sleeve, and anti-slip nuts are movably installed on the weight-bearing columns, and an energy-taking crossbeam is fixedly installed on the energy-taking mechanism, and a knife-shaped base is fixedly installed on the energy-taking crossbeam, and the weight-bearing column is provided with a first downhill weight-bearing sleeve and a first uphill weight-bearing sleeve, and a corresponding group of weight-bearing columns is provided with a second downhill weight-bearing sleeve and a second uphill weight-bearing sleeve.

[0007] Furthermore, a bypass symmetrical balance beam and a bypass corresponding symmetrical balance beam are fixedly installed on the first uphill load-bearing sleeve and the second downhill load-bearing sleeve, and the bypass symmetrical balance beam and the bypass corresponding symmetrical balance beam are respectively fixedly installed with top wheels on the balance beam, and the top wheels on the balance beam wriggle in the top groove on the U-shaped lock, and the top groove on the U-shaped lock is fixedly installed on the U-shaped force lock, and the two U-shaped force locks are respectively fixedly installed on both sides of the center column.

[0008] Furthermore, the orbiting symmetrical balance beam and the orbiting corresponding symmetrical balance beam are respectively fixedly installed with synchronous fixed beams, the other ends of the two synchronous fixed beams are respectively fixedly installed on the gear brackets on both sides, and the far ends of the orbiting symmetrical balance beam and the orbiting corresponding symmetrical balance beam are respectively fixedly installed with counterweight blocks and horizontal second load-bearing flat beams.

[0009] Furthermore, an extended load-bearing frame is movably installed on the energy-taking mechanism, and a load-bearing frame crossbeam is fixedly installed on the extended load-bearing frame. The distal end, middle end and proximal end of the load-bearing frame crossbeam will be fixedly installed with a horizontal bypass load-bearing flat beam below the first uphill load-bearing sleeve and a corresponding horizontal bypass load-bearing flat beam below the second uphill load-bearing sleeve as needed. Further, a load-bearing frame solid column is fixedly installed below the extended load-bearing frame, and the number of the load-bearing frame solid column is one. An upper variable-speed piston water pump is fixedly installed below the load-bearing frame solid column. Further, two horizontal and correspondingly symmetrical groups of bypass load-bearing flat beams are arranged on the load-bearing frame crossbeam, and an uphill load-bearing column is fixedly installed on the other end of the bypass load-bearing flat beam. The uphill load-bearing column with the first uphill load-bearing sleeve externally mounted is inclined at 45 degrees to the ground in the downhill direction of the deflection disk. On the load-bearing column on the uphill side of the deflection disk, the first uphill load-bearing sleeve and anti-slip nut are arranged on the outer surface of the load-bearing column, and further corresponding to the opposite other The other end of the outer group of bypass load-bearing flat beams is fixedly installed with a downhill load-bearing column, and the downhill load-bearing column of the second downhill load-bearing sleeve on the outside is inclined to the uphill direction of the deflection disk at an angle of 45 degrees to the ground, and the load-bearing column is on the downhill side of the deflection disk. Further, the second downhill load-bearing sleeve and the first uphill load-bearing sleeve are respectively fixedly installed with a horizontal bypass corresponding symmetrical balance beam and a bypass symmetrical balance beam, and the bypass corresponding symmetrical balance beam and the bypass symmetrical balance are respectively fixedly installed with top wheels on the balance beam, and the top wheels on the two groups of balance beams respectively creep in the top grooves on the U-shaped locks, and the top grooves on the U-shaped locks are respectively fixed on two groups of U-shaped force locks, and the two groups of U-shaped force locks are respectively fixedly installed on both sides of the center column, and further, the center column is movably installed on the load-bearing frame beam with an O-shaped lock, and the center column is fixedly installed on the knife-shaped base, the knife-shaped base is fixedly installed on the energy extraction beam, and the energy extraction beam is fixedly installed on the energy extraction mechanism.

[0010] Furthermore, the far ends of the bypass corresponding symmetrical balance beam and the bypass symmetrical balance beam are respectively fixedly installed with a synchronous fixed beam, a counterweight block and a horizontal second load-bearing flat beam, the other ends of the two sets of synchronous fixed beams are respectively fixedly installed on the gear brackets on both sides, the two sets of counterweight blocks are potential energy sources, and the other ends of the two sets of second weight-bearing flat beams are respectively fixedly installed with an uphill load-bearing column and a downhill load-bearing column, the downhill load-bearing column with the first downhill load-bearing sleeve on the outside is a load-bearing column inclined at 45 degrees to the ground in the uphill direction of the deflection disk, the first downhill load-bearing sleeve and an anti-slip nut are arranged on the outer surface of the load-bearing column, the second uphill load-bearing beam is fixedly installed on one side of the first downhill load-bearing sleeve, the second uphill load-bearing beam is fixedly provided with a center point, an uphill thrust rod and a counterweight block, the center point is that the two ends of the second uphill load-bearing beam are the same length, and the upper end of the uphill thrust rod is fixedly installed on the second Below the uphill load-bearing beam, the counterweight is fixedly installed below the second uphill load-bearing beam, which is a potential energy source. The uphill load-bearing column with the second uphill load-bearing sleeve on the outside is a load-bearing column inclined at a 45-degree angle to the ground in the downhill direction of the deflection disk. The second uphill load-bearing sleeve is arranged outside the load-bearing column, and the second downhill load-bearing beam is fixedly installed on one side of the second uphill load-bearing sleeve. The center point, downhill thrust rod and counterweight are fixedly set on the second downhill load-bearing beam. The center point is the second downhill load-bearing beam from both ends to the center point, and the lengths of both ends are the same. The upper head of the downhill thrust rod is fixedly installed below the second downhill load-bearing beam, and the lower head of the downhill thrust rod is fixedly installed on the universal wheel speed-changing piston water pump. The main curved pillar is fixedly installed above the second downhill load-bearing beam, and the counterweight is fixedly installed below the second downhill load-bearing beam, which is a potential energy source.

[0011] Furthermore, the curved weight-biasing mechanism includes a main curved support, the bottom of which is fixedly mounted on a second downhill load-bearing beam, the top of which is fixedly mounted below the middle of the weight-biasing flat beam, and on the uphill side of the deflection disk, the distance from the joint at the top of the main curved support to the center point is determined according to how much weight is required on the uphill side of the deflection disk. The middle of the second gravity flat beam and the gravity flat beam is a center column, the entire gravity flat beam and the second gravity flat beam are always horizontal as a whole, one end of the middle between the gravity flat beam and the second gravity flat beam faces the highest point of the deflection disk, and the other end faces the lowest point of the deflection disk, and both ends of the weight-biasing flat beam are fixedly mounted with weight-biasing flat joints. Beam, the other ends of the two biased flat beams are fixedly installed with a gravity flat beam, the two ends of the multi-layer gravity flat beam are respectively fixedly installed with two multi-layer gravity cross beams, the other ends of the two gravity cross beams are fixedly installed with a second multi-layer gravity flat beam, the multi-layer second gravity flat beam is fixedly installed with a plurality of multi-layer gravity vertical columns and a plurality of multi-layer load-bearing columns, the gravity flat beam is fixedly installed with a plurality of multi-layer gravity vertical columns and a plurality of multi-layer load-bearing columns, the plurality of load-bearing columns are externally sleeved with a downhill load-bearing sleeve on one side and an uphill load-bearing sleeve on one side, the load-bearing columns with a downhill load-bearing sleeve on one side are all fixedly installed on the second gravity flat beam, the second gravity flat beam is on the downhill side of the deflection plate, and is externally sleeved with a side The multiple load-bearing columns of the downhill load-bearing sleeve are inclined to the uphill direction of the deflection disk at an angle of 45 degrees to the ground, and the multiple load-bearing columns are externally sleeved with the load-bearing columns of the uphill load-bearing sleeve on one side, which are all fixedly installed on the multi-layer gravity flat beam. The multiple load-bearing columns are externally sleeved with the load-bearing columns of the uphill load-bearing sleeve on one side, which are all inclined to the downhill direction of the deflection disk at an angle of 45 degrees to the ground, and the gravity flat beam is on the uphill side of the deflection disk, and one side of the multi-layer two-piece uphill load-bearing sleeve on one side and the multi-layer two-piece downhill load-bearing sleeve on one side are respectively fixedly installed with a bypass energy-gathering symmetrical balance beam, and one side of the four bypass energy-gathering symmetrical balance beams are respectively fixedly installed with toad movable joints, and the other ends of the four toad movable joints are respectively fixedly installed An energy-gathering synchronous force transmission beam, the middle of the two energy-gathering synchronous force transmission beams are respectively fixedly installed with top wheels on the balance beam, the top wheels on the two balance beams respectively creep in the top grooves on the U-shaped locks, the top grooves on the two U-shaped locks are respectively fixedly installed on both sides of the center column, the center column is vertically fixedly installed on the knife-shaped base from top to bottom, the far ends of the four orbiting energy-gathering symmetrical balance beams are respectively fixedly installed with energy-gathering weight-bearing flat beams and counterweights, the other ends of the four energy-gathering weight-bearing flat beams are respectively fixedly installed with multiple weight-bearing columns, the outsides of the multiple weight-bearing columns are respectively movably covered with energy-gathering uphill weight-bearing sleeves and energy-gathering downhill weight-bearing sleeves, the energy-enhanced uphill weight-bearing beam and the energy-enhanced downhill weight-bearing beam are provided with center points from the left and right ends to the middle.

[0012] Furthermore, the exteriors of the multiple energy-gathering uphill load-bearing sleeves and the multiple energy-gathering downhill load-bearing sleeves are respectively fixedly mounted with multiple energy-enhancing downhill load-bearing beams and multiple energy-enhancing uphill load-bearing beams, the far ends of the multiple energy-enhancing uphill load-bearing beams and the multiple energy-enhancing downhill load-bearing beams are fixedly mounted with counterweight blocks, the lower sides of the energy-enhancing downhill load-bearing beams are fixedly mounted with energy-enhancing downhill thrust rods, the energy-enhancing downhill load-bearing beams are fixedly connected to each other through downhill connecting chains, the energy-enhancing downhill load-bearing beams are used to push the energy-enhancing downhill push rods, all the multiple energy-enhancing downhill load-bearing beams are connected to each other through the downhill connecting chains, and are uniformly concentrated on an energy-enhancing downhill thrust rod, which is connected to the energy-enhancing downhill load-bearing beams. The lower part of the thrust rod is fixedly installed on a group of universal wheel variable speed piston water pumps for pumping water, an uphill fixed chain is fixedly arranged between the energy-enhancing uphill load-bearing beams and fixedly connected to each other, the multiple energy-enhancing uphill load-bearing beams are used to push multiple energy-enhancing uphill pushing rods, a counterweight block is fixedly installed on the far end of the energy-enhancing uphill load-bearing beam, an energy-enhancing uphill thrust rod is fixedly installed under the energy-enhancing uphill load-bearing beam, all the multiple energy-enhancing uphill load-bearing beams are connected to each other through the uphill fixed chain and are uniformly concentrated on one energy-enhancing uphill thrust rod, and the lower part of the energy-enhancing uphill thrust rod is fixedly installed on a group of universal wheel variable speed piston water pumps for pumping water.

[0013] Furthermore, pressure water pipes are fixedly installed on the outside of the bottom speed-changing piston water pump, the middle speed-changing piston water pump, the upper speed-changing piston water pump and the universal wheel speed-changing piston water pump, and water valves are fixedly installed on the pressure water pipes. One end of the pressure water pipe away from the bottom speed-changing piston water pump, the middle speed-changing piston water pump, the upper speed-changing piston water pump and the universal wheel speed-changing piston water pump is connected to a high water storage device and a storage device for water after power generation.

[0014] Furthermore, pressure water pipes are fixedly installed on the outside of the high-altitude water storage device and the storage device for water after power generation, and one end of the pressure water pipe away from the high-altitude water storage device and the storage device for water after power generation is connected to a hydroelectric generator and a water pipe of a natural water source, an electric power output cable is fixedly installed on the hydroelectric generator, a water pipe for farmland irrigation is fixedly installed on the storage device for water after power generation, and a water valve is fixedly installed on the water pipe for farmland irrigation.

[0015] (III) Beneficial effects Compared with the prior art, the technical solution of this application has the following beneficial effects: 1. The animal-powered load-bearing improved high-pressure water energy storage power generation device adopts a bypass energy-increasing mechanism, including a first synchronous beam, a second synchronous beam and a third synchronous beam. These beams form a lever system around the central column, which can continuously provide gravity in the uphill direction of the deflection disk. When the bypass symmetrical balance beam and the second uphill load-bearing beam and the bypass corresponding symmetrical balance beam and the second downhill load-bearing beam move alternately like human legs, the kinetic energy and gravitational potential energy generated by them are continuously transmitted to the central column. Due to the central column and the downhill load-bearing sleeve of the pried point The distance between them is extremely short, which maximizes the lever effect of the bypass symmetrical balance beam and the bypass corresponding symmetrical balance beam. When the far end of the lever, i.e. the second uphill load-bearing beam, moves upward and the second lower load-bearing beam moves downward, it will push the U-shaped force lock, thereby indirectly pushing the two sets of bypass load-bearing flat beams, and finally transmitting the force to the upper variable-speed piston water pump, prompting the water pump to pump more water. This design ensures continuous gravity input in the uphill direction of the deflection plate, avoiding the work interruption problem caused by the inability to maintain continuous gravity in the prior art.

[0016] 2. The animal-powered improved high-pressure water energy storage power generation device, through the design of the curved biasing mechanism, enables the deflection plate to flexibly adjust the biasing degree in the uphill direction according to needs. The main curved support is fixed on the second downhill load-bearing beam on the downhill side of the deflection plate. By changing the position and weight of the counterweight block, the weight in the uphill direction of the deflection plate can be accurately controlled, so that it can achieve the optimal working state in different working environments. The counterweight block serves as the power source for pushing the second uphill load-bearing beam upward and the power source for pushing the second downhill load-bearing beam downward. When it pushes the second uphill load-bearing beam upward and pushes the second downhill load-bearing beam downward, it drives the uphill thrust rod and The downhill push rod pushes the universal wheel speed-changing piston water pumps on both sides to work. At the same time, by adjusting the distance between the bypass symmetrical balance beam and the bypass corresponding symmetrical balance beam on the extended load-bearing frame from the bypass load-bearing flat beam to the center column and adjusting the distance between the second downhill load-bearing beam and the main curved support lower head fixed point and the main curved support upper head fixed point to the center point, the efficiency of the device can be further enhanced, so that the deflection plate is always in a biased state in the uphill direction, thereby enhancing the stability and power generation efficiency of the entire system. This design makes up for the poor stability and low power generation efficiency caused by the inability to bias the deflection plate in the uphill direction in previous technologies. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the first cross-sectional structure of the present invention; Figure 3 It is a second cross-sectional structural schematic diagram of the present invention; Figure 4 It is a third cross-sectional structural schematic diagram of the present invention; Figure 5It is a schematic diagram of the bending weight-biasing mechanism of the present invention; Figure 6 This is a schematic diagram of the U-shaped force locking mechanism of the present invention; Figure 7 It is a schematic diagram of the power generation principle of the power generation device of the present invention.

[0018] In the figure: 1. Bottom speed-changing piston water pump; 2. Deflection plate; 3. Middle speed-changing piston water pump; 4. Upper speed-changing piston water pump; 5. Universal wheel speed-changing piston water pump; 6. Counterweight; 7. Energy-taking mechanism; 8. Synchronous mechanism; 9. Energy-increasing mechanism; 10. Energy-gathering mechanism; 11. Circumventing energy-increasing mechanism; 1101. Energy-taking crossbeam; 1102. Knife-shaped base; 1103. Extended load-bearing frame; 1104. Load-bearing frame crossbeam; 1105. Center column; 1106. O-shaped lock; 1107. Circumventing load-bearing flat beam; 1108. Load-bearing column; 1109. First uphill load-bearing sleeve; 111 0. Anti-slip nut; 1111. Orbiting symmetrical balance beam; 1112. Top wheel on balance beam; 1113. Top groove on U-shaped lock; 1114. U-shaped force lock; 1115. Synchronous fixed beam; 1116. Gear bracket; 1117. Second load-bearing flat beam; 1118. First downhill load-bearing sleeve; 1119. Second uphill load-bearing beam; 1120. Uphill thrust rod; 1121. First synchronous beam; 1122. Second synchronous beam; 1123. Third synchronous beam; 1124. Load-bearing frame column; 1125. Second downhill load-bearing sleeve; 1126. Second downhill load-bearing beam; 1 127. Second uphill load-bearing set; 1128. Corresponding symmetrical balance beam for detour; 1129. Downhill push rod; 12. Curved weight-biasing mechanism; 1201. Main curved pillar; 1202. Gravity flat beam; 1203. Gravity vertical column; 1204. Multiple load-bearing columns; 1205. Energy-enhanced downhill load-bearing beam; 1206. Energy-enhanced downhill thrust rod; 1207. Downhill connecting chain; 1208. Uphill fixed chain; 1209. Center point; 1210. Weight-biased flat beam; 1211. Weight-biased flat connecting beam; 1212. Uphill load-bearing set on one side; 1213. Downhill load-bearing set on one side; 1214. Uphill load-bearing beam; 1215, bypassing energy-gathering symmetrical balance beam; 1216, energy-gathering downhill load-bearing sleeve; 1217, energy-gathering uphill load-bearing sleeve; 1218, energy-gathering load-bearing flat beam; 1219, energy-enhancing uphill thrust rod; 1220, energy-gathering synchronous force transmission beam; 1221, toad movable joint; 1222, gravity beam; 1223, second gravity flat beam; 13, pressure water pipe; 14, high-altitude water storage device; 15, water valve; 16, storage device for water after power generation; 17, hydroelectric generator; 18, power output cable; 19, water pipe of natural water source; 20, water pipe of farmland irrigation. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] See also Figure 1-7 In this embodiment, an animal-powered load-bearing improved high-pressure water energy storage power generation device comprises a deflection plate 2 and a bottom variable-speed piston water pump 1 located at the bottom of the deflection plate 2, the bottom of the deflection plate 2 is provided with a bottom variable-speed piston water pump 1, the interior of the deflection plate 2 is provided with a middle variable-speed piston water pump 3, the upper part of the deflection plate 2 is provided with an upper variable-speed piston water pump 4 and a universal wheel variable-speed piston water pump 5, the top of the deflection plate 2 is provided with an energy taking mechanism 7, the outside of the energy taking mechanism 7 is provided with a synchronization mechanism 8, and the interior of the synchronization mechanism 8 is provided with a bypass energy-increasing mechanism 11; The bypass energy enhancement mechanism 11 includes two corresponding symmetrical and opposite groups of a first synchronization beam 1121, a second synchronization beam 1122 and a third synchronization beam 1123, a center column 1105 is arranged in front between the second synchronization beam 1122 and the third synchronization beam 1123, a bending weight-biasing mechanism 12 is arranged on the top of the bypass energy enhancement mechanism 11, an energy gathering mechanism 10 is arranged on the top of the bending weight-biasing mechanism 12, and an energy enhancement mechanism 9 is arranged on the top of the energy gathering mechanism 10.

[0021] Specifically, the bypass energy enhancement mechanism 11 uses the first synchronous beam 1121, the second synchronous beam 1122 and the third synchronous beam 1123 of the corresponding symmetrical opposite groups to form a lever system around the central column 1105, so that when the bypass symmetrical balance beam 1111 and the second uphill load-bearing beam 1119 and the bypass corresponding symmetrical balance beam 1128 and the second downhill load-bearing beam 1126 move alternately like human legs, the kinetic energy and gravitational potential energy generated can be continuously transmitted to the central column 1105. The distance between the slope weight sleeves 1125 is relatively short. When the far ends of the bypass symmetrical balance beam 1111 and the bypass corresponding symmetrical balance beam 1128, i.e., the first downhill weight sleeve 1118, move downward and the second uphill weight sleeve 1127 moves upward, it will push the U-shaped force lock 1114, and then indirectly push the two groups of bypass weight-bearing flat beams 1107, and finally transmit the force to the upper variable speed piston water pump 4, prompting the water pump to pump more water, thereby ensuring the continuous gravity input in the uphill direction of the deflection plate 2, and avoiding the work interruption problem caused by the inability to maintain continuous gravity in the prior art.

[0022] Specifically, the load-bearing columns 1108 respectively fixedly installed on the two sets of bypass load-bearing flat beams 1107 form an angle of 45 degrees with the ground. The outer sleeves of the two sets of weight-bearing columns 1108 are provided with a first uphill load-bearing sleeve 1109 and a second downhill load-bearing sleeve 1125, and are fixed by anti-slip nuts 1110. Such a design enables the device to change the weight of the deflection disk 2 in the uphill direction by adjusting the distance between the bypass load-bearing flat beams 1107 and the center column 1105 and the weight of the counterweight 6 during operation, thereby adjusting the load of the deflection disk 2 according to the needs of different working environments, thereby improving the flexibility and adaptability of the device.

[0023] Specifically, the bypass symmetrical balance beam 1111 fixedly installed on the first uphill load-bearing sleeve 1109 and the bypass corresponding symmetrical balance beam 1128 fixedly installed on the second downhill load-bearing sleeve 1125 are respectively provided with a top wheel 1112 on the balance beam, and the top wheel 1112 on the balance beam wriggles in the top groove 1113 on the U-shaped lock, and the top groove 1113 on the U-shaped lock is fixed on the U-shaped force lock 1114. The two U-shaped force locks 1114 are respectively fixedly installed on both sides of the center column, so as to ensure that the bypass symmetrical balance beam 1111 and the bypass corresponding symmetrical balance beam 1128 can accurately transmit force to the U-shaped force lock 1114 when moving, thereby realizing the effective conversion of energy and ensuring the stability and reliability of the operation of the device.

[0024] Specifically, the synchronous fixed beam 1115 and the gear bracket 1116 respectively installed on the bypassing symmetrical balance beam 1111 and the bypassing corresponding symmetrical balance beam 1128 can ensure that the bypassing symmetrical balance beam 1111 and the winding corresponding symmetrical balance beam 1128 move synchronously with other components during the movement. At the same time, the second load-bearing flat beam 1117 and the counterweight block 6 respectively fixedly installed at the far ends of the bypassing symmetrical balance beam 1111 and the winding corresponding balance beam 1128 can further increase the load-bearing capacity of the device, so that the entire device can withstand a larger load, thereby improving the power generation efficiency.

[0025] Specifically, the extended load frame 1103, the load frame cross beam 1104 and the load frame column 1124 movably installed on the energy taking mechanism 7 constitute a stable frame structure to support the upper variable speed piston water pump 4, and by arbitrarily selecting the distance between the two sets of bypass load-bearing flat beams 1107 arranged on the load frame cross beam 1104 and the center column 1105, it is ensured that the weight of the deflection disk 2 in the uphill direction is always maintained in the best state, thereby optimizing the power generation efficiency.

[0026] Specifically, the counterweight block 6 and the energy-focusing load-bearing flat beam 1218 fixedly installed at the far end of the bypass energy-focusing symmetrical balance beam 1215 can be adjusted at any time as needed to increase or decrease the weight of the deflection disk 2 in the uphill direction. At the same time, the uphill load-bearing sleeve 1212 on one side and the downhill load-bearing sleeve 1213 on one side provided with multiple load-bearing columns 1204 allow the device to maintain stable operation under different working conditions, thereby improving the reliability and power generation efficiency of the system.

[0027] Specifically, the bottom of the main curved support 1201 of the curved weight-biasing mechanism 12 is fixedly installed on the second downhill load-bearing beam 1126, and the upper part of the main curved support 1201 is fixedly installed at a position below the middle of the weight-biasing flat beam 1210. This design allows the weight of the deflection plate 2 in the uphill direction to be flexibly adjusted as needed, thereby achieving the optimal working state in different working environments, thereby enhancing the stability and power generation efficiency of the entire system.

[0028] Specifically, a plurality of energy-enhancing downhill weight-bearing beams 1205 arranged outside the energy-focusing uphill weight-bearing sleeve 1217 are fixedly connected to each other through a downhill connecting chain 1207, and an energy-enhancing downhill thrust rod 1206 is fixedly installed under each energy-enhancing downhill weight-bearing beam 1205, and the energy-enhancing downhill thrust rod 1206 is used to push the energy-enhancing downhill thrust rod 1206. At the same time, a plurality of energy-enhancing uphill weight-bearing beams 1214 arranged outside the energy-focusing downhill weight-bearing sleeve 1216 are fixedly connected to each other through an uphill fixed chain 1208, a counterweight block 6 is fixedly installed at the far end of the energy-enhancing uphill weight-bearing beam 1214, and an energy-enhancing uphill thrust rod 1219 is fixedly installed under it, and the energy-enhancing uphill weight-bearing beam 1214 is used to push the energy-enhancing uphill thrust rod 1219. Such a design ensures continuous gravity input in the uphill direction of the deflection disk 2, thereby improving the power generation efficiency of the device.

[0029] In summary, the animal-powered load-bearing improved high-pressure water energy storage and power generation device adopts a bypass energy-increasing mechanism 11, including two groups of first synchronous beams 1121, second synchronous beams 1122 and third synchronous beams 1123 correspondingly symmetrically opposite to each other. The lever system formed by these beams around the central column 1105 can continuously provide gravity in the uphill direction of the deflection plate 2. When the bypass symmetrical balance beam 1111 and the second uphill load-bearing beam 1119 form a 90-degree vertical potential energy at a secondary 45-degree angle and the corresponding bypass corresponding symmetrical balance beam 1128 and the second downhill load-bearing beam 1126 move alternately like human legs, the kinetic energy and gravitational potential energy generated by them are continuously transmitted to the central column 1105. The distance between 1105 and the first uphill load-bearing sleeve 1109 and the second downhill load-bearing sleeve 1125 of the prying point is extremely short, which maximizes the lever effect of the bypass symmetrical balance beam 1111 and the winding corresponding symmetrical balance beam 1128. When the far end of the lever, i.e., the second uphill load-bearing beam 1119, moves upward, and the second downhill load-bearing beam 1126 moves downward, it will push the U-shaped force lock 1114, and then indirectly push the bypass load-bearing flat beam 1107, and finally transmit the force to the upper variable speed piston water pump 4, prompting the water pump to pump more water. This design ensures continuous gravity input in the uphill direction of the deflection plate 2, and avoids the work interruption problem caused by the inability to maintain continuous gravity in the prior art.

[0030] In addition, the improved animal-powered load-bearing high-pressure water energy storage power generation device, through the design of the curved weight-biasing mechanism 12, makes it possible to flexibly adjust the degree of weight biasing in the uphill direction of the deflection plate 2 as needed. The bottom of the main curved support 1201 is fixed on the second downhill load-bearing beam 1126 on the downhill side of the deflection plate 2, and the upper part of the main curved support 1201 is fixedly installed at the center below the weighted flat beam 1210 on the uphill side of the deflection plate 2. A weighted horizontal connecting beam 1211 is fixedly installed on one side of the horizontal weighted horizontal beam 1210, and a multi-layer horizontal gravity flat beam 1202 is fixedly installed on the other end of the two horizontal weighted horizontal connecting beams 1211. Horizontal gravity cross beams 1222 are fixedly installed at both ends of the gravity flat beam 1202. The other end of the force horizontal beam 1222 is fixedly installed with a horizontal second gravity flat beam 1223, and multiple load-bearing columns 1204 and multiple gravity vertical columns 1203 of multiple layers are fixedly installed on the second gravity flat beam 1223. The outer sleeve of the multiple load-bearing columns 1204 fixedly installed on the multi-layer second gravity flat beam 1223 is provided with a downhill load-bearing sleeve 1213 on one side, and a bypass energy-gathering symmetrical balance beam 1215 is fixedly installed on one side of the downhill load-bearing sleeve 1213. The multiple load-bearing columns 1204 fixedly installed on the multi-layer second gravity flat beam 1223 are inclined at an angle of 45 degrees to the ground in the uphill direction of the deflection disk 2. The center column 1105 is located in the middle of the gravity flat beam 1202 and the second gravity flat beam 1223. A plurality of load-bearing columns 1204 of multiple layers and a plurality of gravity vertical columns 1203 of multiple layers are fixedly installed on the gravity horizontal beam 1202. The lower side of one end between the gravity horizontal beam 1202 and the second gravity horizontal beam 1223 is aligned with the highest point of the deflection disk 2, and the other end between the gravity horizontal beam 1202 and the second gravity horizontal beam 1223 is aligned with the lowest point of the deflection disk 2. The second gravity horizontal beam 1223 and the gravity horizontal beam 1202 are horizontal, and the gravity vertical column 1203 is vertical. The plurality of load-bearing columns 1204 with one side uphill load-bearing sleeves 1212 are fixedly installed on the gravity horizontal beam 1202, and the plurality of load-bearing columns 1204 with one side uphill load-bearing sleeves 1212 are inclined to the downhill direction of the deflection disk 2 at an angle of 45 degrees to the ground, and one side uphill A horizontal bypass energy-gathering symmetrical balance beam 1215 is fixedly installed on one side of the load-bearing sleeve 1212, and a frog movable joint 1221 is fixedly installed on one end of the four bypass energy-gathering symmetrical balance beams 1215 respectively. One end of the four frog movable joints 1221 is movably installed with an energy-gathering synchronous force transmission beam 1220, and the middle of the two energy-gathering synchronous force transmission beams 1220 is respectively fixedly installed with a top wheel 1112 on the balance beam, and the top wheels on the two balance beams respectively creep in the top groove 1113 on the U-shaped lock, and the top grooves 1113 on the two U-shaped locks are respectively fixedly installed on both sides of the central column 1105, and the central column is vertically fixedly installed on the knife-shaped base, and the far ends of the four bypass energy-gathering symmetrical balance beams 1215 are respectively fixedly installed with a counterweight block 6 and a horizontal energy-gathering load-bearing flat beam 1218,The other end of the energy-gathering load-bearing flat beam 1218 is fixedly installed with multiple load-bearing columns 1204, and the multiple load-bearing columns 1204 with energy-gathering downhill load-bearing sleeves 1216 are inclined in the uphill direction of the deflection disk 2 and are at an angle of 45 degrees to the ground. A horizontal energy-enhancing uphill load-bearing beam 1214 is fixedly installed on one side of the energy-gathering downhill load-bearing sleeve 1216, and an energy-enhancing uphill thrust rod 1219, an uphill fixed chain 1208 and a counterweight block 6 are fixedly installed at the far end of the energy-enhancing uphill load-bearing beam 1214. A center point 1209 is provided in the middle of the energy-enhancing uphill load-bearing beam 1214, and multiple load-bearing columns 1204 are arranged on the top of the energy-gathering downhill load-bearing sleeve 1216. The outer sleeve is provided with an energy-gathering uphill weight-bearing sleeve 1217, and the multiple weight-bearing columns 1204 in the energy-gathering uphill weight-bearing sleeve 1217 are inclined in the downhill direction of the deflection plate 2 and are at an angle of 45 degrees to the ground. A horizontal energy-enhancing downhill weight-bearing beam 1205 is fixedly installed on one side of the energy-gathering uphill weight-bearing sleeve 1217, and a center point 1209 is provided in the middle of the energy-enhancing downhill weight-bearing beam 1205, and the center point 1209 is aligned with the center column 1105. An energy-enhancing downhill thrust rod 1206, a downhill connecting chain 1207 and a counterweight block 6 are fixedly installed at the far end of the energy-enhancing downhill weight-bearing beam 1205. The counterweight block 6 It is the power source of potential energy. The lower parts of the energy-enhancing downhill thrust rod 1206 and the energy-enhancing uphill thrust rod 1219 are respectively fixedly installed with universal wheel variable speed piston water pumps 5 for pumping water and generating electricity. The downhill connecting chain 1207 is respectively fixedly connected with multiple energy-enhancing downhill load-bearing beams 1205 to be concentrated on an energy-enhancing downhill thrust rod 1206 to drive a universal wheel variable speed plug water pump to pump water and generate electricity. The uphill fixed chain 1208 is respectively movably connected with multiple energy-enhancing uphill load-bearing beams 1214 to be concentrated on an energy-enhancing uphill thrust rod 1219 to drive the universal wheel variable speed piston water pump 5 to pump water. The key technology of the present invention is that all the bypass energy-gathering symmetrical balance beams 1215 can be transformed into the bypass symmetrical balance beams 1111 and the bypass corresponding symmetrical balance beams 1128. By changing the position and weight of the counterweight block 6, the weight of the deflection plate 2 in the uphill direction can be accurately controlled so that it can achieve the optimal working state in different working environments. The counterweight block 6 serves as the power source of the second uphill load beam 1119 and the second downhill load beam 1126. When it pushes the second uphill load beam 1119 upward and pushes the second downhill load beam 1126 upward, the counterweight block 6 can be used to generate power. When the vehicle is moving downward, the uphill thrust rod 1120 and the downhill thrust rod 1129 are pushed to drive the universal wheel variable speed piston water pump 5 and other water pumps to work. At the same time, by adjusting the distance between the main curved support 1201 and the bypass load-bearing flat beam 1107 to the central column 1105, the efficiency of the device can be further enhanced, so that the deflection direction of the deflection plate 2 is always in the best state, and the stability and power generation efficiency of the whole system are enhanced. This design makes up for the poor stability and low power generation efficiency caused by the inability to adjust the weight of the deflection plate 2 in the uphill direction in the previous technology.

[0031] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the existence of other identical elements in the process, method, article or device including the elements.

[0032] 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. An improved animal-powered high-pressure water energy storage power generation device, comprising a deflection plate (2) and a bottom variable-speed piston water pump (1) located at the bottom of the deflection plate (2), characterized in that: A bottom variable speed piston water pump (1) is arranged at the bottom of the deflection plate (2), a middle variable speed piston water pump (3) is arranged inside the deflection plate (2), an upper variable speed piston water pump (4) and a universal wheel variable speed piston water pump (5) are arranged at the top of the deflection plate (2), an energy extraction mechanism (7) is arranged at the top of the deflection plate (2), a synchronization mechanism (8) is arranged outside the energy extraction mechanism (7), and a bypass energy enhancement mechanism (11) is arranged inside the synchronization mechanism (8); The bypass energy enhancement mechanism (11) comprises two groups of correspondingly symmetrical first synchronous beams (1121), second synchronous beams (1122) and third synchronous beams (1123); a central column (1105) is arranged in front between the second synchronous beams (1122) and the third synchronous beams (1123); a curved weight-biasing mechanism (12) is arranged on the top of the bypass energy enhancement mechanism (11); an energy-gathering mechanism (10) is arranged on the top of the curved weight-biasing mechanism (12); and an energy-enhancing mechanism (9) is arranged on the top of the energy-gathering mechanism (10).

2. The improved animal-powered high-pressure water energy storage power generation device according to claim 1 is characterized in that: The detour energy enhancement mechanism (11) further comprises two groups of corresponding symmetrical detour load-bearing flat beams (1107), on which a load-bearing column (1108) is fixedly mounted at an angle of 45 degrees to the ground, the load-bearing column (1108) is externally sleeved with a first uphill load-bearing sleeve (1109) and another group of corresponding load-bearing columns (1108) is externally sleeved with a second downhill load-bearing sleeve (1125), and the load-bearing column (1108) is movably mounted with a plurality of An anti-drop nut (1110) is provided, an energy taking beam (1101) is fixedly mounted on the energy taking mechanism (7), a knife-shaped base (1102) is fixedly mounted on the energy taking beam (1101), a first downhill weight sleeve (1118) and a first uphill weight sleeve (1109) are sleeved on the load-bearing column (1108), and a second uphill weight sleeve (1127) and a second downhill weight sleeve (1125) are sleeved on another set of corresponding load-bearing columns (1108).

3. The improved animal-powered high-pressure water energy storage power generation device according to claim 2 is characterized in that: A symmetrical balance beam (1111) is fixedly mounted on the first uphill load-bearing sleeve (1109), and a corresponding symmetrical balance beam (1128) is fixedly mounted on the corresponding second downhill load-bearing sleeve (1125). Top wheels (1112) on the balance beams are fixedly mounted on the symmetrical balance beams (1111) and the corresponding symmetrical balance beams (1128). The top wheels (1112) on the balance beams creep in a top groove (1113) on a U-shaped lock. The top groove (1113) on the U-shaped lock is fixedly mounted on a U-shaped force lock (1114). The two U-shaped force locks (1114) are fixedly mounted on both sides of the center column (1105), respectively.

4. The improved animal-powered high-pressure water energy storage power generation device according to claim 3 is characterized in that: A synchronous fixed beam (1115) is fixedly mounted on the orbiting symmetrical balance beam (1111) and the orbiting corresponding symmetrical balance beam (1128), respectively; the other end of the synchronous fixed beam (1115) is fixedly mounted on a gear bracket (1116); a counterweight block (6) and a horizontal second load-bearing flat beam (1117) are fixedly mounted on the far ends of the orbiting symmetrical balance beam (1111) and the orbiting corresponding symmetrical balance beam (1128), respectively.

5. The improved animal-powered high-pressure water energy storage power generation device according to claim 4 is characterized in that: An extended load frame (1103) is movably mounted on the energy taking mechanism (7), a load frame cross beam (1104) is fixedly mounted on the extended load frame (1103), a load frame column (1124) is fixedly mounted below the extended load frame (1103), the number of the load frame column (1124) is one, an upper variable speed piston water pump (4) is fixedly mounted below the load frame column (1124), and two groups of corresponding symmetrical and identical bypass load-bearing flat beams (1107) are fixedly arranged on the load frame cross beam (1104) in a horizontal direction.

6. The improved animal-powered high-pressure water energy storage power generation device according to claim 5 is characterized in that: The other end of the detour load-bearing flat beam (1107) is fixedly mounted with a load-bearing column (1108) which forms an angle of 45 degrees with the ground. The outer movable sleeve of the load-bearing column (1108) is provided with a first uphill load-bearing sleeve (1109). The upper part of the load-bearing column (1108) is provided with an anti-drop cap (1110). The load-bearing column (1108) is installed on the uphill side of the deflection plate (2). The load-bearing column (1108) with the first uphill load-bearing sleeve (1109) is inclined at 45 degrees to the ground in the downhill direction of the deflection plate (2). A horizontal detour symmetrical balance beam (1110) is fixedly mounted on one side of the first uphill load-bearing sleeve (1109). 1), the bypass load-bearing flat beam (1107) on the corresponding side is also the same, the other end of the bypass load-bearing flat beam (1107) is fixedly installed on the ground at a 45-degree angle with a load-bearing column (1108), the outer portion of the load-bearing column (1108) is sleeved with a movable second downhill load-bearing sleeve (1125), the load-bearing column (1108) is installed on the downhill side of the deflection plate (2), the load-bearing column (1108) sleeved with the second downhill load-bearing sleeve (1125) is inclined at 45 degrees to the ground in the uphill direction of the deflection plate (2), and a horizontal bypass corresponding symmetrical balance beam (1128) is fixedly installed on one side of the second downhill load-bearing sleeve (1125).

7. The improved animal-powered high-pressure water energy storage power generation device according to claim 6 is characterized in that: The curved weight-biasing mechanism (12) comprises a main curved support (1201), the bottom of the main curved support (1201) is fixedly mounted on a second downhill load-bearing beam (1126), the upper part of the main curved support (1201) is fixedly mounted below the middle of a weight-biasing flat beam (1210), the two ends of the weight-biasing flat beam (1210) are respectively fixedly mounted with horizontal weight-biasing flat beams (1211), the other ends of the two weight-biasing flat beams (1211) are respectively fixedly mounted with horizontal multi-layer gravity flat beams (1202), the two ends of the gravity flat beam (1202) are respectively fixedly mounted with two horizontal multi-layer gravity cross beams (1222), the two ends of the two gravity cross beams (1222) are respectively fixedly mounted with horizontal multi-layer second gravity beams A flat beam (1223), wherein multiple layers of gravity vertical columns (1203) and multiple load-bearing columns (1204) are fixedly mounted on the gravity flat beam (1202) and the second gravity flat beam (1223), wherein the multiple load-bearing columns (1204) are sleeved with a downhill load-bearing sleeve (1213) on one side and an uphill load-bearing sleeve (1212) on one side, wherein the multiple load-bearing columns (1204) sleeved with the downhill load-bearing sleeve (1213) on the outside of the two multiple load-bearing columns (1204) are inclined at an angle of 45 degrees to the ground in the uphill direction of the deflection plate (2), and the two multiple load-bearing columns (1204) are fixedly mounted on the second gravity flat beam (1223), wherein the two multiple load-bearing columns (1204) are sleeved with the uphill load-bearing sleeve (1212) on one side. The plurality of load-bearing columns (1204) are fixedly mounted on the gravity flat beam (1202) on the uphill side of the deflection disk (2); the plurality of load-bearing columns (1204) sleeved with the uphill load-bearing sleeve (1212) on one side are inclined at 45 degrees to the ground in the downhill direction of the deflection disk (2); one side of the two uphill load-bearing sleeves (1212) on one side and the two downhill load-bearing sleeves (1213) on one side are respectively fixedly mounted with horizontal deflection energy-gathering symmetrical balance beams (1215); the far ends of the four deflection energy-gathering symmetrical balance beams (1215) are respectively fixedly mounted with horizontal energy-gathering load-bearing flat beams (1218) and counterweights (6); and the other ends of the four energy-gathering load-bearing flat beams (1218) are respectively fixedly mounted with a plurality of load-bearing columns (1204) on the other side. 1204), the two multiple load-bearing columns (1204) provided with energy-gathering downhill load-bearing sleeves (1216) are on the downhill side of the deflection disk (2), and the multiple load-bearing columns (1204) provided with the downhill load-bearing sleeves (1216) are inclined to the ground at an angle of 45 degrees in the uphill direction of the deflection disk (2), the two multiple load-bearing columns (1204) provided with energy-gathering uphill load-bearing sleeves (1217) are on the uphill side of the deflection disk (2), and the multiple load-bearing columns (1204) provided with the energy-gathering uphill load-bearing sleeves (1217) are inclined to the ground at an angle of 45 degrees in the downhill direction of the deflection disk (2), and one side of the four bypassing energy-gathering symmetrical balance beams (1215) are respectively fixedly installed by toad movable joints (1221),Two energy-gathering synchronous force transmission beams (1220) are fixedly installed on one side of the four toad movable joints (1221), and a top wheel (1112) on a balance beam is fixedly installed in the middle of the two energy-gathering synchronous force transmission beams (1220). The top wheel (1112) on the balance beam moves in a top groove (1113) on a U-shaped lock. The top grooves (1113) on the two U-shaped locks are fixedly installed on two U-shaped force locks (1114). The two U-shaped force locks (1114) are fixedly installed on both sides of the center column (1105). The energy-enhancing downhill load-bearing beam (1105) and the energy-enhancing uphill load-bearing beam (1214) are provided with a center point (1209) from the left and right ends to the middle.

8. The improved animal-powered high-pressure water energy storage power generation device according to claim 7 is characterized in that: A plurality of energy-enhancing downhill load-bearing beams (1205) are fixedly mounted on the outside of the plurality of energy-gathering uphill load-bearing sleeves (1217); a counterweight block (6) is fixedly mounted on the far end of the plurality of energy-enhancing downhill load-bearing beams (1205); an energy-enhancing downhill thrust rod (1206) is fixedly mounted below the energy-enhancing downhill load-bearing beams (1205); the energy-enhancing downhill load-bearing beams (1205) are fixed to each other via a downhill connecting chain (1207); and the energy-enhancing downhill load-bearing beams (1205) are used to push the energy-enhancing downhill thrust rod (1206). A plurality of energy-enhancing uphill load-bearing beams (1214) are fixedly mounted outside the plurality of energy-enhancing downhill load-bearing sleeves (1216); an uphill fixed chain (1208) is fixedly arranged between the energy-enhancing uphill load-bearing beams (1214); the plurality of energy-enhancing uphill load-bearing beams (1214) are used to push an energy-enhancing uphill thrust rod (1219); a counterweight block (6) is fixedly mounted at the far end of the energy-enhancing uphill load-bearing beam (1214); and an energy-enhancing uphill thrust rod (1219) is fixedly mounted below the energy-enhancing uphill load-bearing beam (1214).

9. The improved animal-powered high-pressure water energy storage power generation device according to claim 8, characterized in that: Pressure water pipes (13) are fixedly mounted on the outside of the bottom speed-changing piston water pump (1), the middle speed-changing piston water pump (3), the upper speed-changing piston water pump (4) and the universal wheel speed-changing piston water pump (5), respectively. A water valve (15) is fixedly mounted on the pressure water pipe (13), and one end of the pressure water pipe (13) away from the bottom speed-changing piston water pump (1), the middle speed-changing piston water pump (3), the upper speed-changing piston water pump (4) and the universal wheel speed-changing piston water pump (5) is connected to a high-place water storage device (14) and a storage device (16) for water after power generation.

10. The improved animal-powered high-pressure water energy storage power generation device according to claim 9, characterized in that: A pressure water pipe (13) is fixedly installed outside the water high-place storage device (14) and the storage device for water after power generation (16); one end of the pressure water pipe (13) away from the water high-place storage device (14) and the storage device for water after power generation (16) is connected to a hydroelectric generator (17) and a water pipe (19) of a natural water source; a power output cable (18) is fixedly installed on the hydroelectric generator (17); a water pipe (20) for farmland irrigation is fixedly installed on the storage device for water after power generation (16); and a water valve (15) is fixedly installed on the water pipe (20) for farmland irrigation.

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