WO2023077713A1

WO2023077713A1 - Super-efficient power generation device using tidal pressure

Info

Publication number: WO2023077713A1
Application number: PCT/CN2022/081849
Authority: WO
Inventors: 赖国民
Original assignee: 赖国民
Priority date: 2021-11-04
Filing date: 2022-03-19
Publication date: 2023-05-11
Also published as: CN114352468A

Abstract

The present invention provides a super-efficient power generation device using tidal pressure, comprising a pressure to linear motion mechanism, a kinetic energy to transmission mechanism, an energy storage mechanism, and a generator. The pressure to linear motion mechanism converts pressure into kinetic energy, and the kinetic energy is transmitted, by means of the kinetic energy to transmission mechanism, to the generator for power generation; tidal energy pressure is converted into electrical energy. The super-efficient power generation device using tidal pressure is clean, environmentally-friendly, and pollution-free, no dam needs to be built on the seaside, the influence on the environment is small, the tidal energy utilization is ultra-high, the structure is simple, the cost for later maintenance is low, the value is large, the return on investment is high, the economic benefit is particularly large, and the development prospect is wide; the requirement for the tide fluctuation amplitude is low, the application range is wider, and the device is suitable for most coastal countries and regions.

Description

A super efficient power generation device using tidal pressure

technical field

The invention relates to the field of clean energy power generation, in particular to a tidal pressure super-efficient power generation device and a tidal pressure combined super-high-efficiency power generation method.

Background technique

The speed of economic development is fast, the demand for energy is large, and the energy problem is becoming more and more prominent. The world's energy crisis is intensifying. People are turning their attention to the ocean. Ocean tides contain huge energy. Inexhaustible and inexhaustible, human beings use very little ocean tidal energy. If tidal energy can be used efficiently, it will solve the problems of low utilization rate of tidal energy, energy depletion, environmental pollution, large investment, high cost, and recycling. There are problems such as long cost cycle, low utilization rate of energy power generation, and large occupied area. Therefore, in order to change these problems, a super-efficient power generation method using tidal pressure super-efficient power generation device and tidal pressure combination is provided.

technical problem

If tidal energy can be used efficiently, it will solve the problems of low utilization rate of tidal energy, energy depletion, environmental pollution, large investment, high cost, long recovery cost cycle, low utilization rate of energy generation, and large land occupation. Therefore, In order to change these problems, a super-efficient power generation method using tidal pressure super-efficient power generation device and tidal pressure combination is provided.

technical solution

The technical problem to be solved by the present invention is to provide a super-efficient power generation device utilizing tidal pressure and a super-efficient power generation method combined with tidal pressure, aiming at the defects of the prior art.

In order to solve the above-mentioned technical problems and related problems, the technical solution adopted by the present invention to solve the technical problems is: a super-efficient power generation device utilizing tidal pressure, including a pressure conversion into linear motion mechanism, a kinetic energy conversion transmission mechanism, an energy storage mechanism, a power generation machine; the pressure is converted into a linear motion mechanism including a pressure chamber, the opening of the pressure chamber is downwardly installed on the pressure chamber fixing bracket, and the pressure chamber fixing bracket is arranged on the seabed; the top of the pressure chamber is connected to one end of the pressure pipe, and the The other end of the pressure pipe is connected to one end of the booster valve, the other end of the booster valve is installed on the cylinder, the cylinder is installed on the cylinder bracket, and the cylinder bracket is fixed on the base; the cylinder A sealing piston is arranged inside, and the sealing piston is installed at one end of the piston push rod, and the other end of the piston push rod is connected with a rack connecting rod; the rack connecting rod is connected with the first rack and the second rack; the A rack bracket is arranged under the first rack, and the rack bracket is installed on the base; the second rack is engaged with the second ratchet for transmission, and the second ratchet is installed on the second shaft; A gear rack is engaged with the first ratchet for transmission, and the first ratchet is mounted on the second shaft; the second shaft is mounted on the third bracket and the fourth bracket, and one end of the second shaft is connected to the kinetic energy input end of the gearbox The kinetic energy output end of the gearbox is connected to the high-speed shaft, the high-speed shaft is installed on the first bracket and the second bracket, and the first bracket and the second bracket are installed on the base; the other end of the high-speed shaft is connected to the The generator is connected to realize power generation; the generator is installed on the generator support, and the generator support is installed and fixed on the base.

Further, the pressure chamber is composed of single or multiple chambers, and the pressure chamber increases the depth in the water to increase the kinetic energy of a super-efficient power generation device using tidal pressure; the pressure chamber is connected to one end of the pressure pipe, and the other end of the pressure pipe is connected to A valve, the valve is connected with the cylinder, a sealing piston is arranged in the cylinder, and the sealing piston is connected with one end of the piston push rod.

Further, the pressure is converted into a linear motion mechanism including a pressure chamber, a pressure pipe, a valve, a cylinder, a sealing piston, and a piston push rod; It is transmitted to the cylinder through the pressure pipe valve, and the sealing piston is pushed to slide, so that the piston push rod makes a linear motion, and the pressure is converted into kinetic energy.

Further, after the valve is installed and installed in a super high-efficiency power generation device using tidal pressure, the gas is injected from the valve to increase the pressure of the gas in the cylinder, pressure pipe, and pressure chamber, so that the pressure reaches the pressure required by the pressure chamber. At the set seawater depth, the pressure at the bottom of the pressure chamber is equal.

Further, the kinetic energy conversion transmission mechanism includes a first rack, a second rack, a first connecting rod of a rack, a second connecting rod of a rack, a rack bracket, a first ratchet, a second ratchet and a second shaft The two ends of the first rack and the second rack are connected by the first connecting rod of the rack and the second connecting rod of the rack, the first rack is engaged with the first ratchet for transmission, and the second rack is connected with the second rack. Ratchet meshing transmission, the first ratchet and the second ratchet are arranged on the second shaft; when the tide rises, the first rack moves forward linearly and meshes with the first ratchet, so that the first ratchet rotates counterclockwise and the second ratchet rotates counterclockwise. The shaft rotates counterclockwise; when the tide falls, the energy storage mechanism releases energy to make the second rack move backward in a straight line and engage with the second ratchet for transmission, so that the second ratchet rotates counterclockwise and the second shaft rotates counterclockwise.

Further, the rotation of the second shaft is transmitted to the input end of the gearbox kinetic energy, and after the gearbox is shifted to the rotation speed required by the generator for normal power generation, it is then transmitted to the high-speed shaft by the kinetic energy output end of the gearbox, and then transmitted to the high-speed shaft generator to generate electricity.

Further, the energy storage mechanism includes elastic energy storage, gravity energy storage, pressure energy storage and other energy storage mechanisms that are effective for the present invention; the energy stored in the energy storage mechanism should enable the generator to generate electricity normally when the tide is low. The sealing piston retracts.

Further, the first ratchet and the second ratchet are ratchets connected by the same shaft and rotate in the same direction, and the first ratchet and the second ratchet make the same connected shaft rotate in the same direction.

The present invention is a super-efficient power generation method using tidal pressure combination, which is characterized in that it includes the following steps: Step 1. This device, a super-efficient power generation device using tidal pressure, includes a base, which is installed on a solid coast or a sea surface platform to generate electricity The machine bracket is set on the base, the generator is installed on the generator bracket, the generator is connected to one end of the high-speed shaft, the high-speed shaft is set on the first bracket and the second bracket, and the first bracket and the second bracket are set on the base. One end of the high-speed shaft is connected with the output end of the kinetic energy of the gearbox, the input end of the kinetic energy of the gearbox is provided with a second shaft, the second shaft is installed on the third bracket and the fourth bracket, and the third bracket and the fourth bracket are arranged on the base , the second shaft is equipped with a first ratchet and a second ratchet, the first ratchet is engaged with the first rack for transmission, the second ratchet is engaged with the second rack for transmission, the two ends of the first rack and the second rack are connected to the rack The first connecting rod is connected with the second connecting rod of the rack, the first rack is arranged on the bracket, the bracket is arranged on the base, the second connecting rod of the rack is connected to one end of the piston push rod, and the piston push rod is provided with energy storage mechanism, one end of the piston push rod is connected with the sealing piston, the sealing piston is set in the cylinder, the cylinder is installed on the first bracket of the cylinder and the second bracket of the cylinder, and the first bracket of the cylinder and the second bracket of the cylinder are set on the base There are valves on the seat and the cylinder, the valves are connected to the pressure pipe, the pressure pipe is connected to the top of the pressure chamber, the pressure chamber is installed on the first fixing bracket of the pressure chamber and the second fixing bracket of the pressure chamber, the first fixing bracket of the pressure chamber and the pressure The second fixed bracket of the warehouse is arranged on the seabed.

Step 2. This device is a super-efficient power generation device using tidal pressure. After the installation of all components is completed, at the lowest tide, the gas is injected from the valve to make the pressure of the gas in the cylinder, pressure pipe, and pressure chamber consistent with the location of the pressure chamber. When the water depth is equal to the pressure on the bottom of the pressure chamber, the valve is closed, and the corresponding generator is configured. When the tide rises, the pressure on the bottom of the pressure chamber increases, and the pressure is transmitted to the sealing piston through the pressure chamber, pressure tube, and cylinder to make the seal The piston moves forward in a straight line, and the kinetic energy is transmitted to the piston push rod to make the piston push rod move forward in a straight line, and then the kinetic energy is transmitted to the second connecting rod of the rack, and the second connecting rod of the rack is connected to the first rack to make the first rack Moving forward in a straight line, the first rack and the first ratchet are engaged for transmission, so that the first ratchet rotates counterclockwise and the second shaft rotates counterclockwise, and the second shaft transmits the rotational kinetic energy to the kinetic energy input end of the gearbox. The box changes the rotation speed to the rotation speed at which the generator can generate electricity normally, and the kinetic energy output of the gearbox is transmitted to the high-speed shaft, so that the rotation of the high-speed shaft drives the rotation of the generator connected to the high-speed shaft, so that the generator can generate electricity normally; because the rising tide is continuous Yes, so the generator continues to generate electricity.

Step 3. The energy storage mechanism is also storing energy while the generator is continuously generating electricity when the tide is high. The energy stored by the energy storage mechanism should enable the generator to generate electricity normally and push the sealing piston back when the tide is low.

Step 4. When the above-mentioned energy storage mechanism is at low tide, the pressure on the bottom surface of the pressure chamber decreases when the tide drops, and the energy storage mechanism releases energy to make the sealing piston move linearly backward, and the kinetic energy is transmitted to the piston push rod to make the piston push rod move backward linearly. The kinetic energy is then transmitted to the rack connecting rod, and the rack connecting rod is connected with the second rack, so that the second rack moves backward in a straight line, and the second rack meshes with the second ratchet for transmission, so that the second ratchet rotates counterclockwise at the same time Make the second shaft rotate counterclockwise, the second shaft transmits the rotational kinetic energy to the kinetic energy input end of the gearbox, and through the gearbox, the speed is changed to the rotation speed at which the generator can normally generate electricity, and is transmitted from the output end of the gearbox to the high-speed shaft, so that the high-speed The rotation of the shaft drives the generator connected to the high-speed shaft to rotate at the same time, so that the generator can generate electricity normally; because the low tide is continuous, the generator continues to generate electricity.

Beneficial effect

Due to the adoption of the above technical solution, the present invention has the following beneficial effects: the super-efficient power generation device using tidal pressure is clean, environmentally friendly and pollution-free, does not need to build dams at the seaside, has less impact on the environment, has a super high utilization rate of tidal energy, and is simple in structure , Low post-maintenance cost, very high value, high return on investment, particularly large economic benefits, broad development prospects; low requirements for tidal fluctuations, wider scope of application, applicable to most coastal countries and regions.

Description of drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings that need to be used in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description are only These are some embodiments of the present invention. For those skilled in the art, other drawings can also be obtained according to the structures shown in these drawings without creative effort.

Fig. 1 is a schematic side view of the three-dimensional structure of the present invention.

Fig. 2 is a schematic view of the front three-dimensional structure of the present invention.

Fig. 3 is a schematic diagram of kinetic energy conversion and transmission at high tide according to the present invention.

Fig. 4 is a schematic diagram of the kinetic energy conversion transmission of the present invention at ebb tide.

Fig. 5 is a three-dimensional cross-sectional structural view of the pressure chamber and the cylinder of the present invention.

Fig. 6 is a schematic diagram of the tidal range of the embodiment of the present invention.

Symbols in the figure: base 1, generator bracket 2, generator 10, high-speed shaft 11, first bracket 3, flywheel 12, second bracket 4, gearbox 13, second shaft 16, third bracket 6, first Ratchet 14, second ratchet 18, fourth bracket 9, first rack 8, rack bracket 7, second rack 15, first rack connecting rod 5, rack second connecting rod 20, piston push rod 22 , sealing piston 28, cylinder 17, cylinder first support 19, cylinder second support 21, valve 27, pressure pipe 23, pressure chamber 24, pressure chamber first fixed support 25, pressure chamber second fixed support 26, Energy storage mechanism 29.

Embodiments of the present invention

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The present invention will be further described below in conjunction with the accompanying drawings and embodiments. These drawings are simplified schematic diagrams, and only illustrate the basic structure of the present invention in a schematic manner.

As shown in Figure 1 and Figure 2, this device is a super-efficient power generation device utilizing tidal pressure including a base, the base 1 is installed on the coast or sea platform, the generator bracket 2 is arranged on the base 1, and the generator bracket 2 The generator 10 is installed, the generator 10 is connected with one end of the high-speed shaft 11, the high-speed shaft 11 is arranged on the first support 3 and the second support 4, the first support 3 and the second support 4 are arranged on the base 1, and the high-speed shaft 11 One end is connected with the kinetic energy output end of gearbox 13, and the kinetic energy input end of gearbox 13 is provided with a second shaft 16, and the second shaft 16 is installed on the third bracket 6 and the fourth bracket 9, and the third bracket 6 and the fourth bracket 9 Set on the base 1, the second shaft 16 is equipped with a first ratchet 14 and a second ratchet 18, the first ratchet 14 is engaged with the first rack 8 for transmission, and the second ratchet 18 is engaged with the second rack 15 for transmission, The two ends of the first rack 8 and the second rack 15 are connected with the first connecting rod 5 of the rack and the second connecting rod 20 of the rack, the first rack 8 is arranged on the bracket 7, and the bracket 7 is arranged on the base 1 Above, the second connecting rod 20 of the rack is connected to one end of the piston push rod 22, and the piston push rod 22 is provided with an energy storage mechanism 29, and one end of the piston push rod 22 is connected to the sealing piston 28, and the sealing piston 28 is arranged in the cylinder barrel 17. The barrel 17 is installed on the first support 19 of the cylinder and the second support 21 of the cylinder, the first support 19 of the cylinder and the second support 21 of the cylinder are arranged on the base 1, the valve 27 is arranged on the cylinder 17, the valve 27 Connect the pressure pipe 23, the pressure pipe 23 is connected with the top of the pressure chamber 24, the pressure chamber 24 is installed on the pressure chamber first fixing bracket 25 and the pressure chamber second fixing bracket 26, the pressure chamber first fixing bracket 25 and the pressure chamber second fixing bracket The support 26 is set on the seabed.

Further, after the installation and installation of the various components of a super-efficient power generation device using tidal pressure is completed, at the lowest tide, the gas in the cylinder 17, the pressure pipe 23, and the pressure chamber 24 is injected into the gas through the valve 27. Pressure and the depth of water where the pressure chamber is located, when the pressure on the bottom of the pressure chamber 24 is the same, the valve 27 is closed, and the corresponding generator 10 is configured. When the tide rises, the pressure on the bottom of the pressure chamber 24 increases, and the pressure passes through the pressure chamber 24 and the pressure pipe. 23. The cylinder 17 transmits to the sealing piston 28, so that the sealing piston 28 moves forward in a straight line, and the kinetic energy is transmitted to the piston push rod 22 to make the piston push rod 22 move forward in a straight line, and the kinetic energy is transmitted to the second connecting rod 20 of the rack. The second connecting rod 20 is connected with the first rack 8, so that the first rack 8 moves forward linearly, and the first rack 8 is engaged with the first ratchet 14 for transmission, so that the first ratchet 14 rotates counterclockwise and at the same time the second The second shaft 16 rotates counterclockwise, the second shaft 16 transmits the rotational kinetic energy to the kinetic energy input end of the gearbox 13, and through the gearbox 13, the rotational speed is changed to the rotational speed at which the generator 10 can normally generate electricity, and is transmitted by the kinetic energy output end of the gearbox 13. To the high-speed shaft 11, the high-speed shaft 11 is rotated to drive the generator 10 connected to the high-speed shaft 11 to rotate, so that the generator 10 generates electricity normally; because the high tide is continuous, the generator 10 continues to generate electricity.

As shown in Figure 3, when the tide rises, the sealing piston 28 pushes the piston push rod 22 to move linearly forward, and the piston push rod 22 makes the second connecting rod 20 of the rack push the first rack 8 to move linearly forward, and the first rack 8 and the first rack 8 move linearly forward. The first ratchet 14 is engaged with the transmission, so that the first ratchet 14 rotates counterclockwise and the second shaft 16 rotates counterclockwise.

As shown in Figure 4, when the tide is low, the energy storage mechanism 29 releases energy to make the sealing piston 28 drive the piston push rod 22 to move linearly backward, and the piston push rod 22 makes the second connecting rod 20 of the rack drive the second rack 15 to move linearly backward. movement, the second rack 15 is engaged with the second ratchet 18 for transmission, so that the second ratchet 18 rotates counterclockwise and at the same time the second shaft 16 rotates counterclockwise.

As shown in Figure 6, when the device is in use, the components of a super-efficient power generation device using tidal pressure are installed and installed. At the lowest tide, gas (such as hydrogen, air, etc.) is injected from the valve to make the cylinder, The pressure of the gas in the pressure tube and the pressure chamber is equal to the seawater depth where the pressure chamber is located, and the pressure at the bottom of the pressure chamber is equal, and a suitable generator set is configured; at this time, the water level in the pressure chamber is a1; the pressure chamber is at 200m underwater, and the tidal range where the width of the pressure chamber is 100m, the length is 200m, the seawater density is 1030 kg/m3, a is the bottom tide sea level, b is the high tide sea level, c is the position of the bottom surface of the pressure chamber, and b1 is the time of high tide Pressure chamber water level.

The pressure chamber is set as one layer. Under ideal conditions, regardless of energy loss, all the work done by the floating mechanism is transferred to the generator; the specific energy transfer process is as follows.

Because the seabed pressure formula is p=ρ seawater gh, then by F=p*S seabed pressure chamber bottom area, then by W=F*s effective work distance.

Known constants: ρ seawater = 1.03*10^3 kilograms per cubic meter; g is the gravity constant, which is 9.8N/kg; h is the depth of seawater, which is 200m; S bottom area of the submarine pressure tank = length of the pressure tank * width of the pressure tank =200*100=20000 square meters; the effective working distance of force is the height of tidal difference, s is 6m; equivalent transformation: 1 degree=3600000 joules.

So W=ρ seawater gh*S*s=1.03*10^3*9.8*200*20000*6=2.42256*10^11J, further, the power generation for 6 hours when the tide rises=2.42256*10^11J/3600000J=67293 degree, semi-diurnal tide twice a day high tide total power generation = 67293 degrees * 2 = 134586 degrees / day.

The above are only ideal embodiments of the present invention, and are not intended to limit this patent. Through the above description, relevant staff can make various changes, Modifications, additions, subtractions, substitutions and variations; therefore, the technical scope of this invention is not limited to the contents of the description, and any modifications, additions, subtractions, variations, equivalent replacements and improvements made within the spirit and principles of this patent etc., should be included within the protection scope of the present invention.

Claims

A super high-efficiency power generation device utilizing tidal pressure, including a pressure conversion into linear motion mechanism, a kinetic energy conversion transmission mechanism, an energy storage mechanism, and a generator; the pressure conversion into linear motion mechanism includes a pressure chamber, and the opening of the pressure chamber is installed downwards On the pressure chamber fixed bracket, the pressure chamber fixed bracket is set on the seabed; the top of the pressure chamber is connected to one end of the pressure pipe, and the other end of the pressure pipe is connected to one end of the booster valve, and the other end of the booster valve is installed on the cylinder The cylinder is installed on the cylinder bracket, and the cylinder bracket is fixed on the base; the inside of the cylinder is provided with a sealing piston, and the sealing piston is installed on one end of the piston push rod, and the piston push rod The other end is connected to the rack connecting rod; the rack connecting rod is connected to the first rack and the second rack; a rack bracket is arranged under the first rack, and the rack bracket is installed on the base; The second rack is meshed with the second ratchet, and the second ratchet is mounted on the second shaft; the first rack is meshed with the first ratchet, and the first ratchet is mounted on the second shaft; The second shaft is installed on the third bracket and the fourth bracket, one end of the second shaft is connected to the kinetic energy input end of the gearbox, the kinetic energy output end of the gearbox is connected to the high-speed shaft, and the high-speed shaft is installed on the first bracket and the second bracket, the first bracket and the second bracket are installed on the base; the other end of the high-speed shaft is connected to the generator, so as to realize power generation; the generator is installed on the generator bracket, and the power generation The machine bracket is installed and fixed on the base.
A super high-efficiency power generation device using tidal pressure according to claim 1, characterized in that: the pressure chamber is composed of a single or multiple chambers, and the depth of the pressure chamber increases in the water so as to increase a super power generation device utilizing tidal pressure. The kinetic energy of the high-efficiency power generation device; the pressure chamber is connected to one end of the pressure pipe, the other end of the pressure pipe is connected to the valve, the valve is connected to the cylinder, and the cylinder is provided with a sealing piston, which is connected to the end of the piston push rod.
A super high-efficiency power generation device using tidal pressure according to claim 1, characterized in that: the pressure-to-linear motion mechanism includes a pressure chamber, a pressure pipe, a valve, a cylinder, a sealed piston, and a piston push rod; The pressure chamber is installed in the water to the required depth, and the pressure on the bottom of the pressure chamber is transmitted to the cylinder through the pressure pipe valve to push the sealing piston to slide, so that the piston push rod moves in a straight line, and the pressure is converted into kinetic energy.
A super-efficient power generation device using tidal pressure according to claim 1, characterized in that: after the installation and installation of the components of the super-high-efficiency power generation device using tidal pressure, the valve is injected with gas from the valve to increase the cylinder The pressure of the gas in the cylinder, pressure tube and pressure chamber makes the pressure reach the seawater depth set by the pressure chamber, and the pressure at the bottom of the pressure chamber is equal.
A super high-efficiency power generation device using tidal pressure according to claim 1, characterized in that: the kinetic energy conversion transmission mechanism includes a first rack, a second rack, a first connecting rod of the rack, and a second connecting rod of the rack Rod, rack bracket, first ratchet, second ratchet, and second shaft; the two ends of the first rack and the second rack are connected by the first connecting rod of the rack and the second connecting rod of the rack. The first rack is engaged with the first ratchet for transmission, and the second rack is engaged with the second ratchet for transmission. The first ratchet and the second ratchet are arranged on the second shaft; when the tide rises, the first rack moves forward linearly and The first ratchet is meshed and driven, so that the first ratchet rotates counterclockwise and the second shaft rotates counterclockwise; when the tide falls, the energy storage mechanism releases energy to make the second rack move backward in a straight line and mesh with the second ratchet. The second ratchet rotates counterclockwise and at the same time causes the second shaft to rotate counterclockwise. The rotation of the second shaft is transmitted to the input end of the gearbox kinetic energy. The kinetic energy output is transmitted to the high-speed shaft, and then the high-speed shaft is transmitted to the generator to realize power generation.
A super high-efficiency power generation device using tidal pressure according to claim 1, characterized in that: said energy storage mechanism includes elastic energy storage, gravity energy storage, pressure energy storage and other energy storage mechanisms effective for the present invention; said energy storage The energy stored by the energy mechanism will enable the generator to generate electricity normally when the tide is ebbing, and the sealing piston will be returned at the same time.
The present invention combines a super-high-efficiency power generation method using tidal pressure, which is characterized in that: the device, a super-efficient power generation device using tidal pressure, includes a base, the base is installed on a solid coast or a sea surface platform, and the generator bracket is arranged on the base , the generator is installed on the generator bracket, the generator is connected to one end of the high-speed shaft, the high-speed shaft is set on the first bracket and the second bracket, the first bracket and the second bracket are set on the base, and one end of the high-speed shaft is connected to the gearbox The kinetic energy output ends are connected, the transmission kinetic energy input end is provided with a second shaft, the second shaft is installed on the third bracket and the fourth bracket, the third bracket and the fourth bracket are arranged on the base, and the second shaft is installed with the second shaft. One ratchet and the second ratchet, the first ratchet is engaged with the first rack for transmission, the second ratchet is engaged with the second rack for transmission, the two ends of the first rack and the second rack are connected with the first connecting rod and the rack The second connecting rod is connected, the first rack is arranged on the bracket, the bracket is arranged on the base, the second connecting rod of the rack is connected to one end of the piston push rod, and an energy storage mechanism is arranged at the piston push rod, and one end of the piston push rod is connected to the The sealing piston is connected, the sealing piston is set in the cylinder, the cylinder is installed on the first bracket of the cylinder and the second bracket of the cylinder, the first bracket of the cylinder and the second bracket of the cylinder are set on the base, and the cylinder is set There is a valve, the valve is connected to the pressure pipe, the pressure pipe is connected to the top of the pressure chamber, the pressure chamber is installed on the first fixing bracket of the pressure chamber and the second fixing bracket of the pressure chamber, the first fixing bracket of the pressure chamber and the second fixing bracket of the pressure chamber are set Seabed; this device is a super-efficient power generation device that uses tidal pressure. When the water depth is equal to the pressure on the bottom of the pressure chamber, the valve is closed, and the corresponding generator is configured. When the tide rises, the pressure on the bottom of the pressure chamber increases, and the pressure is transmitted to the sealing piston through the pressure chamber, pressure tube, and cylinder to make the seal The piston moves forward in a straight line, and the kinetic energy is transmitted to the piston push rod to make the piston push rod move forward in a straight line, and then the kinetic energy is transmitted to the second connecting rod of the rack, and the second connecting rod of the rack is connected to the first rack to make the first rack Moving forward in a straight line, the first rack and the first ratchet are engaged for transmission, so that the first ratchet rotates counterclockwise and the second shaft rotates counterclockwise, and the second shaft transmits the rotational kinetic energy to the kinetic energy input end of the gearbox. The box changes the rotation speed to the rotation speed at which the generator can normally generate electricity, and the kinetic energy is transmitted from the output end of the gearbox to the high-speed shaft, so that the rotation of the high-speed shaft drives the rotation of the generator connected to the high-speed shaft, so that the generator can generate electricity normally; because the high tide continues, So the generator keeps generating electricity.
According to claim 7, a method for combining super-efficient power generation with tidal pressure, is characterized in that: when the tide rises, the generator continues to generate electricity, while the energy storage mechanism is also storing energy, and the energy stored by the energy storage mechanism is at ebb tide It is necessary to make the generator generate electricity normally and push the sealing piston back at the same time.
According to claim 8, a super-high-efficiency power generation method using tidal pressure combination, characterized in that: when the above-mentioned energy storage mechanism is at low tide, the pressure on the bottom surface of the pressure chamber decreases when the tide drops, and the energy storage mechanism releases energy, so that the sealing piston moves toward the After the linear movement, the kinetic energy is transmitted to the piston push rod to make the piston push rod move linearly backward, and the kinetic energy is transmitted to the rack connecting rod. The rack connecting rod is connected with the second rack to make the second rack move backward linearly. The second rack is meshed with the second ratchet for transmission, so that the second ratchet rotates counterclockwise and the second shaft rotates counterclockwise. The second shaft transmits the rotational kinetic energy to the kinetic energy input end of the gearbox, and through the gearbox, the speed is changed to power generation. The rotation speed of the normal power generation is transmitted from the output end of the gearbox to the high-speed shaft, so that the high-speed shaft rotates and drives the generator connected to the high-speed shaft to rotate, so that the generator can generate electricity normally; because the ebb tide continues, the generator continues to generate electricity.