Linkage operation program control system for hydropower station power generation equipment

Abstract

The invention discloses a hydropower station power generation equipment linkage operation program control system which comprises an energy storage main water tank and a high-pressure water storage tank and further comprises a power generation mechanism, a water pumping mechanism and a control mechanism. The multiple water pumping mechanisms are arranged on one side of the energy storage main water pool and the high-pressure water storage pool, the water inlet ends of the water pumping mechanisms are connected with one side of the energy storage main water pool in a penetrating mode, and the water drainage ends of the water pumping mechanisms are arranged at the top end of the high-pressure water storage pool; the control mechanism is arranged on the side of the top end of the bearing plate. Firstly, the energy storage main water pool, the high-pressure water storage pool, the power generation mechanism and the water pumping mechanism jointly form equipment capable of generating power continuously, water in the energy storage main water pool is pumped into the high-pressure water storage pool through the water pumping mechanism based on the water hammer principle, and therefore the power generation mechanism receives water at the bottom of the high-pressure water storage pool in a fall mode; therefore, hydroelectric generation is carried out, linkage control over power generation is achieved, power generation is safe and controllable, and stable and reliable power output is achieved.

Description

Technical Field

[0001] The invention relates to the technical field of power generation equipment, and in particular to a linkage operation program control system for power generation equipment in a hydropower station. Background Art

[0002] With the continuous growth of global energy demand and the increasing attention to environmental protection, it has become a top priority to find clean, renewable and efficient energy solutions. There are many problems with traditional energy generation methods, such as the limited environmental pollution of fossil energy and the instability of renewable energy. Therefore, hydropower station equipment such as hydroelectric power generation has emerged. When performing hydroelectric power generation, the existing power generation equipment of this type is composed of a power generation mechanism and a drainage mechanism, and the power generation equipment is impacted by the drop-type drainage control to generate electricity. However, the existing power generation technology of this type relies on natural water construction and needs to be set in a place with a drop in the water body. Such a setting cannot achieve continuous power generation and makes the linkage control of the power generation equipment incoherent. Therefore, this scheme proposes a linkage operation program control system for the power generation equipment of the hydropower station to solve the above problems. Summary of the invention

[0003] The purpose of the present invention is to provide a program control system for the linked operation of power generation equipment in a hydropower station to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above object, the present invention provides the following technical solution: a program control system for the linkage operation of power generation equipment in a hydropower station, comprising a main energy storage tank and a high-pressure water storage tank, a bearing plate is arranged between the top of the main energy storage tank and the bottom of the high-pressure water storage tank, and further comprising:

[0005] A power generation mechanism, the power generation mechanism is inserted and connected to one end of the bearing plate;

[0006] Pumping mechanism, multiple groups of the pumping mechanism are arranged on one side of the main energy storage tank and the high-pressure water storage tank, and the water inlet end of the pumping mechanism is interlaced and connected with one side of the main energy storage tank, and the drainage end of the pumping mechanism is arranged at the top of the high-pressure water storage tank;

[0007] A support mechanism, the support mechanism is arranged at the top of the high-pressure water storage tank, and the support mechanism is used to support the drainage end of the pumping mechanism;

[0008] A control mechanism is arranged on the side of the top end of the supporting plate, and is used for controlling the operation of pumping water and generating electricity.

[0009] Preferably, support piles are fixedly connected between the top of the main energy storage tank and the four corners of the bottom of the high-pressure water storage tank, and a plurality of the support piles are respectively interlaced and connected with the four corners of the bearing plate.

[0010] Preferably, the pumping mechanism includes an electromagnetic high-pressure water hammer pump, a water inlet pipe is provided at the water inlet end of the electromagnetic high-pressure water hammer pump, the end of the water inlet pipe away from the electromagnetic high-pressure water hammer pump is interlaced and connected with one side of the energy storage main water tank, and a drain pipe is provided at the drain end of the electromagnetic high-pressure water hammer pump, the end of the drain pipe away from the electromagnetic high-pressure water hammer pump is arranged above the high-pressure water tank, and the supporting mechanism is used for the installation of the drain pipe above the high-pressure water tank, and a solenoid valve is provided at the end of the drain pipe, and the solenoid valve and the power generation mechanism are both started and controlled by the control mechanism.

[0011] Preferably, the power generation mechanism includes a turbofan turbine and a magnetic power generator, the turbofan turbine is inserted and connected to one end of the supporting plate, the rotor of the magnetic power generator is connected to the rotation transmission of the turbofan turbine, the water inlet end of the turbofan turbine is connected to the bottom of the high-pressure water reservoir by a water guide structure, and the turbofan turbine, magnetic power generator and solenoid valve are respectively controlled by the control mechanism.

[0012] Preferably, a drainage hole is provided at one end of the high-pressure water reservoir, and the water guiding structure includes a water diversion bucket and a water diversion inclined tube. The water diversion bucket is arranged at the bottom end of the high-pressure water reservoir and covers the bottom of the drainage hole. The bottom of the water diversion bucket is through-connected with one end of the water diversion inclined tube, and the end of the water diversion inclined tube away from the water diversion bucket is through-connected with the water inlet end of the turbofan turbine.

[0013] Preferably, the control mechanism comprises a control cabinet, and the output end of the control cabinet is electrically connected to the driving end of the turbofan turbine, the magnetic end of the magnetodynamic generator and the control end of the solenoid valve respectively.

[0014] Preferably, the supporting mechanism comprises:

[0015] A support plate, the support plate is fixedly connected to the side of the top of the high-pressure water storage tank, and a driving member is arranged at the bottom of the support plate;

[0016] Support members, multiple groups of the support members are arranged horizontally and longitudinally and inserted on the top of the support plate, and the multiple groups of the support members are synchronously controlled to rise and fall by the driving member.

[0017] Preferably, the support member includes a support rod, which is vertically inserted and connected to the bottom of the support plate. A clamp is provided on the top of the support rod, and the clamp is used to sleeve the drainage pipe. A driving cavity is opened at the bottom of the support plate, and the driving member is arranged in the driving cavity.

[0018] Preferably, the driving member comprises:

[0019] A driving rotating rod, the driving rotating rod is rotatably connected with the driving cavity along a horizontal longitudinal direction, and one end of the driving rotating rod passes through one end of the supporting plate;

[0020] A bevel gear is driven, and the bevel gear is sleeved on the outer wall of the driving rotating rod;

[0021] The driven bevel gear has its tooth side meshed with the tooth side of the shifting bevel gear. A driving screw is sleeved on the middle of the driven bevel gear. The threaded end of the driving screw is threadedly connected with the bottom of the support rod.

[0022] Preferably, a threaded groove is provided at the bottom end of the support rod, and the support rod is threadably inserted and connected with the threaded end of the driving screw through the threaded groove, and limiting grooves are provided on both sides of the insertion point between the support rod and the support plate, and limiting sliders are fixedly connected on both sides of the bottom of the support rod, and multiple limiting sliders are respectively slidably inserted and connected in multiple limiting grooves.

[0023] Technical effects and advantages of the present invention:

[0024] The present invention firstly forms a sustainable power generation device through a main energy storage tank, a high-pressure water storage tank, a power generation mechanism and a pumping mechanism. The pumping mechanism based on the water hammer principle is used to pump water in the main energy storage tank into the high-pressure water storage tank. In this way, the power generation mechanism receives water at a drop at the bottom of the high-pressure water storage tank to generate hydroelectric power. At the same time, a control mechanism is used to control the pumping and power generation operations, so as to realize the linkage control of power generation, so that the power generation is safe and controllable, and stable and reliable power output is achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0026] Figure 2 It is a front view of the overall structure of the present invention.

[0027] Figure 3 It is a top view of the overall structure of the present invention.

[0028] Figure 4 It is a left view of the overall structure of the present invention.

[0029] Figure 5 It is a right side view of the overall structure of the present invention.

[0030] Figure 6 It is a structural schematic diagram of the support mechanism of the present invention.

[0031] Figure 7 It is a structural cross-sectional view of the support mechanism of the present invention.

[0032] Figure 8 For the present invention Figure 7 A schematic diagram of the enlarged structure at point A in the middle.

[0033] In the figure: 1. main water storage tank; 2. supporting piles; 3. bearing plate; 4. high-pressure water storage tank; 401. water diversion bucket; 402. water diversion inclined pipe; 5. turbofan turbine; 6. magnetic power generator; 7. water inlet pipe; 8. electromagnetic high-pressure water hammer pump; 9. drainage pipe; 10. solenoid valve; 11. control cabinet; 12. supporting plate; 1201. driving rotating rod; 1202. shifting bevel gear; 13. supporting rod; 1301. clamp; 1302. limiting slider; 1303. driving screw; 1304. driven bevel gear. DETAILED DESCRIPTION

[0034] 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.

[0035] The present invention provides Figure 1-8 The hydropower station power generation equipment linkage operation program control system shown includes a main energy storage water tank 1 and a high-pressure water tank 4. A bearing plate 3 is arranged between the top of the main energy storage water tank 1 and the bottom of the high-pressure water tank 4. Support piles 2 are fixedly connected between the top of the main energy storage water tank 1 and the four corners of the bottom of the high-pressure water tank 4, and multiple support piles 2 are respectively interlaced and connected with the four corners of the bearing plate 3.

[0036] It should be noted that, in this scheme, the high-pressure water reservoir 4 is erected above the main energy storage water tank 1 by setting up supporting piles 2, and then the bearing plate 3 is placed between the two. The bearing plate 3 is used to set up a placement area in the numerical space of the main energy storage water tank 1 and the high-pressure water reservoir 4, so as to facilitate the setting of a mechanism between the main energy storage water tank 1 and the high-pressure water reservoir 4.

[0037] Also includes:

[0038] A power generation mechanism, which is inserted and connected to one end of the carrier plate 3;

[0039] Specifically, the power generation mechanism includes a turbofan turbine 5 and a magnetic power generator 6. The turbofan turbine 5 is inserted and connected to one end of the supporting plate 3. The rotor of the magnetic power generator 6 is connected to the rotation transmission of the turbofan turbine 5. The water inlet end of the turbofan turbine 5 and the bottom of the high-pressure water reservoir 4 are connected by a water guide structure.

[0040] It should be noted that the turbofan turbine 5 (also called a turbine turbine) and the magnetodynamic generator 6 are two different energy conversion devices, which are used for the conversion of water energy and electric energy respectively;

[0041] Among them, the turbofan turbine 5 is a device that uses the energy of water flow to drive the turbine to rotate, thereby converting the potential energy or kinetic energy of water into mechanical energy. It is usually used in hydropower stations; its working principle is: water inflow, water flows into the turbine from a high place and enters the turbine through the water inlet; the turbine rotates, the water flows through the turbine blades, and drives the turbine to rotate; energy conversion, the rotation of the turbine drives the generator connected to the coupling to operate, thereby converting mechanical energy into electrical energy; drainage, the water flows out of the turbine and is usually guided back to the natural water body or water storage tank.

[0042] The magnetodynamic generator 6 is a device that uses changes in the magnetic field to generate electrical energy. It usually rotates the conductor to cut the magnetic lines of force in the magnetic field, thereby generating current. Its working principle: rotational motion, the rotor of the generator (usually a part with a magnet) rotates; the magnetic field changes, the rotor rotates in the stator (usually a coil), causing changes in the magnetic field; current is generated, according to Faraday's law of electromagnetic induction, the change in the magnetic field will induce an electromotive force in the stator coil, and then generate current; output electrical energy: the generated current can be transmitted to the power grid or stored for subsequent use. After the turbofan turbine 5 and the magnetodynamic generator 6 are combined, an integrated hydroelectric power generation equipment is formed.

[0043] Furthermore, a drainage hole is opened at one end of the high-pressure water reservoir 4, and the water guiding structure includes a water diversion bucket 401 and a water diversion inclined pipe 402. The water diversion bucket 401 is arranged at the bottom end of the high-pressure water reservoir 4 and covers the bottom of the drainage hole. The bottom of the water diversion bucket 401 is through-connected with one end of the water diversion inclined pipe 402, and the end of the water diversion inclined pipe 402 away from the water diversion bucket 401 is through-connected with the water inlet end of the turbofan turbine 5.

[0044] It should be noted that the inclined water-guiding pipe 402 is an inclined pipe structure, with one end of the pipe close to the water diversion bucket 401 being at a high position, and the end connected to the turbofan turbine 5 being at a low position. In this way, when water is released, after a drop in height is formed, the water flow is guided by the inclined water-guiding pipe 402 to flow into the turbofan turbine 5, driving the turbine blades to rotate, thereby generating electricity.

[0045] Pumping mechanism, multiple groups of pumping mechanisms are arranged on one side of the energy storage main water tank 1 and the high-pressure water storage tank 4, and the water inlet end of the pumping mechanism is interlaced and connected with one side of the energy storage main water tank 1, and the drainage end of the pumping mechanism is arranged at the top of the high-pressure water storage tank 4;

[0046] Specifically, the pumping mechanism includes an electromagnetic high-pressure water hammer pump 8, a water inlet pipe 7 is provided at the water inlet end of the electromagnetic high-pressure water hammer pump 8, the end of the water inlet pipe 7 away from the electromagnetic high-pressure water hammer pump 8 is interlaced and connected with one side of the energy storage main water tank 1, and a drain pipe 9 is provided at the drain end of the electromagnetic high-pressure water hammer pump 8, the end of the drain pipe 9 away from the electromagnetic high-pressure water hammer pump 8 is arranged above the high-pressure water storage tank 4, and the supporting mechanism is used for the installation of the drain pipe 9 above the high-pressure water storage tank 4, and a solenoid valve 10 is provided at the end of the drain pipe 9.

[0047] It should be noted that the electromagnetic high-pressure water hammer pump 8 is a device that uses electromagnetic principles and water hammer effect to achieve high-pressure water delivery. The working mechanism of this pump usually combines electromagnetic excitation and water hammer phenomenon to generate high-pressure water flow. The following is the basic concept and working principle of the electromagnetic high-pressure water hammer pump 8.

[0048] Basic concept: electromagnetic high-pressure water hammer pump 8, the pump drives the water flow through the rapidly changing magnetic field generated by the electromagnetic device, and generates high pressure in the pipeline through the water hammer effect; water hammer effect, when the fluid flow speed changes rapidly, it will produce instantaneous pressure fluctuations, this phenomenon is called water hammer effect. In the pump, this effect can be used to increase the water pressure.

[0049] Working principle: electromagnetic excitation, the core part of the electromagnetic high-pressure water hammer pump 8 is the electromagnetic coil. When current passes through the coil, a magnetic field is generated; piston movement, the magnetic field of the coil acts on the piston or other moving parts to make them move quickly, and the rapid movement of the piston will cause rapid changes in the water flow; water hammer phenomenon, the rapid movement of the piston will cause the water flow to stop or change instantly, thereby generating a high-pressure wave, which propagates in the pipeline to form a water hammer effect; high-pressure output, by adjusting the frequency and intensity of the current, the movement of the piston can be controlled, thereby adjusting the output pressure and flow of water.

[0050] The control mechanism is arranged on the side of the top of the support plate 3. The control mechanism is used for controlling the operation of pumping water and generating electricity. The turbofan turbine 5, the magnetodynamic generator 6 and the solenoid valve 10 are respectively controlled to be on and off by the control mechanism.

[0051] Specifically, the control mechanism includes a control cabinet 11, and the output end of the control cabinet 11 is electrically connected to the driving end of the turbofan turbine 5, the magnetic end of the magnetodynamic generator 6 and the control end of the solenoid valve 10 respectively.

[0052] It should be noted that the control cabinet 11 plays a core control role in the system of the turbofan turbine 5, the magnetodynamic generator 6 and the solenoid valve 10. By electrically connecting the output end of the control cabinet 11 with the driving end, the magnetic end and the control end of each device, real-time monitoring and adjustment of these devices can be achieved.

[0053] Specifically:

[0054] The driving end of the turbofan turbine 5: the control cabinet 11 can adjust the speed and output power of the turbine through the control signal, thereby optimizing the energy conversion efficiency;

[0055] Magnetic end of the magnetodynamic generator 6: the control cabinet 11 is capable of adjusting the magnetic field strength of the generator to improve the power generation efficiency and stabilize the power output, ensuring that the system can operate normally under different load conditions;

[0056] Control end of the solenoid valve 10: The opening and closing of the solenoid valve 10 can be automatically controlled through the control cabinet 11 to adjust the flow of the fluid, thereby ensuring the safety and stability of the system.

[0057] The supporting mechanism is arranged at the top of the high-pressure water storage tank 4, and the supporting mechanism is used to support the drainage end of the pumping mechanism.

[0058] Specifically, the supporting organizations include:

[0059] A support plate 12, the support plate 12 is fixedly connected to the side of the top of the high-pressure water storage tank 4, and a driving member is provided at the bottom of the support plate 12;

[0060] Support members, multiple groups of support members are arranged horizontally and longitudinally and interspersed on the top of the support plate 12, and the multiple groups of support members are synchronously controlled to rise and fall by the driving member;

[0061] The support member includes a support rod 13, which is vertically inserted and connected to the bottom of the support plate 12. A clamp 1301 is provided on the top of the support rod 13, and the clamp 1301 is used to cover the drainage pipe 9. A driving cavity is opened at the bottom of the support plate 12, and the driving member is arranged in the driving cavity.

[0062] Furthermore, the driving member includes:

[0063] A driving rod 1201 is rotatably connected with the driving cavity along a horizontal longitudinal direction, and one end of the driving rod 1201 passes through one end of the support plate 12;

[0064] The bevel gear 1202 is moved, and the bevel gear 1202 is sleeved on the outer wall of the driving rotating rod 1201;

[0065] The driven bevel gear 1304 has its tooth sides meshed with the tooth sides of the shifting bevel gear 1202 . A driving screw 1303 is sleeved on the middle of the driven bevel gear 1304 . The threaded end of the driving screw 1303 is threadedly connected with the bottom of the support rod 13 .

[0066] A threaded groove is provided at the bottom end of the support rod 13, and the support rod 13 is threadedly inserted and connected with the threaded end of the driving screw 1303 through the threaded groove. Limiting grooves are provided on both sides of the insertion point between the support rod 13 and the support plate 12, and limiting sliders 1302 are fixedly connected on both sides of the bottom of the support rod 13, and multiple limiting sliders 1302 are respectively slidably inserted and connected in multiple limiting grooves.

[0067] It should be noted that when the support mechanism is used, the support height of the support rod 13 can be adjusted first. At this time, the driving rotating rod 1201 needs to be rotated, and the bevel gear 1202 is driven by the driving rotating rod 1201 to rotate synchronously. At the same time, under the meshing transmission, the driven bevel gear 1304 rotates and drives the driving screw 1303 to rotate synchronously. At this time, under the cooperation of the thread, the support rod 13 moves in the vertical direction according to the rotation direction of the driving screw 1303;

[0068] After the setting height of the support rod 13 is adjusted, the end of the drain pipe 9 away from the electromagnetic high-pressure water hammer pump 8 is mounted with the clamp 1301, and the clamp 1301 is tightened with bolts to complete the fixation of the drain pipe 9.

[0069] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A program control system for the linkage operation of power generation equipment in a hydropower station, characterized in that: The invention comprises an energy storage main water tank (1) and a high-pressure water tank (4), wherein a bearing plate (3) is arranged between the top end of the energy storage main water tank (1) and the bottom end of the high-pressure water tank (4), and further comprises: A power generation mechanism, the power generation mechanism being inserted and connected to one end of the carrier plate (3); Pumping mechanisms, wherein a plurality of groups of the pumping mechanisms are arranged on one side of the main energy storage tank (1) and the high-pressure water storage tank (4), and the water inlet end of the pumping mechanism is interlacedly connected with one side of the main energy storage tank (1), and the water discharge end of the pumping mechanism is arranged at the top of the high-pressure water storage tank (4); A support mechanism, the support mechanism being arranged at the top end of the high-pressure water storage tank (4), and the support mechanism being used to support the drainage end of the pumping mechanism; A control mechanism is arranged on the side of the top end of the bearing plate (3), and is used for controlling water pumping and power generation operations.

2. The hydropower station power generation equipment linkage operation program control system according to claim 1 is characterized in that: Support piles (2) are fixedly connected between the top of the energy storage main water tank (1) and the four corners of the bottom of the high-pressure water storage tank (4), and a plurality of the support piles (2) are respectively connected through the four corners of the bearing plate (3).

3. The hydropower station power generation equipment linkage operation program control system according to claim 1 is characterized in that: The pumping mechanism comprises an electromagnetic high-pressure water hammer pump (8), a water inlet pipe (7) is arranged at the water inlet end of the electromagnetic high-pressure water hammer pump (8), and the end of the water inlet pipe (7) away from the electromagnetic high-pressure water hammer pump (8) is connected to one side of the energy storage main water tank (1) through insertion, and a drainage pipe (9) is arranged at the drainage end of the electromagnetic high-pressure water hammer pump (8), and the end of the drainage pipe (9) away from the electromagnetic high-pressure water hammer pump (8) is arranged above the high-pressure water storage tank (4), and the support mechanism is used for erecting the drainage pipe (9) above the high-pressure water storage tank (4), and a solenoid valve (10) is arranged at the end of the drainage pipe (9), and the solenoid valve (10) and the power generation mechanism are both started and controlled by the control mechanism.

4. The hydropower station power generation equipment linkage operation program control system according to claim 3 is characterized in that: The power generation mechanism comprises a turbofan turbine (5) and a magnetic power generator (6); the turbofan turbine (5) is connected to one end of the bearing plate (3); the rotor of the magnetic power generator (6) is connected to the rotation transmission of the turbofan turbine (5); the water inlet end of the turbofan turbine (5) is connected to the bottom of the high-pressure water reservoir (4) by a water guide structure; the turbofan turbine (5), the magnetic power generator (6) and the electromagnetic valve (10) are respectively controlled to be on and off by a control mechanism.

5. The hydropower station power generation equipment linkage operation program control system according to claim 4 is characterized in that: A drainage hole is provided at one end of the high-pressure water storage tank (4); the water guide structure comprises a water diversion bucket (401) and a water diversion inclined pipe (402); the water diversion bucket (401) is arranged at the bottom end of the high-pressure water storage tank (4) and covers the bottom of the drainage hole; the bottom of the water diversion bucket (401) is connected to one end of the water diversion inclined pipe (402); and the end of the water diversion inclined pipe (402) away from the water diversion bucket (401) is connected to the water inlet end of the turbofan turbine (5).

6. The hydropower station power generation equipment linkage operation program control system according to claim 4, characterized in that: The control mechanism comprises a control cabinet (11), the output end of which is electrically connected to the driving end of the turbofan turbine (5), the magnetic end of the magnetomotive generator (6) and the control end of the solenoid valve (10).

7. The hydropower station power generation equipment linkage operation program control system according to claim 3 is characterized in that: The supporting mechanism comprises: A support plate (12), the support plate (12) being fixedly connected to the side of the top end of the high-pressure water storage tank (4), and a driving member being arranged at the bottom of the support plate (12); Support members, wherein a plurality of groups of the support members are arranged horizontally and longitudinally and are inserted on the top of the support plate (12), and the plurality of groups of the support members are synchronously controlled to rise and fall by a driving member.

8. The hydropower station power generation equipment linkage operation program control system according to claim 7, characterized in that: The support member comprises a support rod (13), wherein the support rod (13) is inserted and connected to the bottom of the support plate (12) in a vertical direction, a clamp (1301) is arranged on the top of the support rod (13), and the clamp (1301) is used for sleeve-mounting the drainage pipe (9), and a driving cavity is opened at the bottom of the support plate (12), and the driving member is arranged in the driving cavity.

9. The hydropower station power generation equipment linkage operation program control system according to claim 8, characterized in that: The driving member comprises: A driving rotating rod (1201), wherein the driving rotating rod (1201) is rotatably connected with the driving cavity in a horizontal longitudinal direction, and one end of the driving rotating rod (1201) passes through one end of the supporting plate (12); A bevel gear (1202) is driven, wherein the bevel gear (1202) is sleeved on the outer wall of the driving rotating rod (1201); A driven bevel gear (1304), the tooth side of the driven bevel gear (1304) is meshed with the tooth side of the driving bevel gear (1202), a driving screw (1303) is sleeved on the middle part of the driven bevel gear (1304), and the threaded end of the driving screw (1303) is interlaced and connected with the bottom thread of the support rod (13).

10. The hydropower station power generation equipment linkage operation program control system according to claim 9, characterized in that: A threaded groove is provided at the bottom end of the support rod (13), and the support rod (13) is threadedly inserted and connected with the threaded end of the driving screw (1303) through the threaded groove. Limiting grooves are provided on both sides of the insertion point between the support rod (13) and the support plate (12). Limiting sliders (1302) are fixedly connected on both sides of the bottom of the support rod (13), and multiple limiting sliders (1302) are respectively slidably inserted and connected in multiple limiting grooves.

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