Novel water turbine renewable new energy power generation device with cone device

Abstract

The invention discloses a novel water turbine renewable new energy power generation device with a cone device. A water storage container is used for storing water, and renewable clean new energy with certain pressure intensity and certain pressure is formed by the stored water under the physical action of gravitational attraction. High-speed water jet formed by the cone device can drive the novel water turbine to do work for power generation. The water flow in the water storage container does not drive the 10-kilowatt hydraulic turbine set to operate, and the rotating speed is zero. The cone device has the effect of increasing the rotating speed of the water turbine to different degrees after adopting a cone-shaped pipe, a cone-shaped nozzle, two-stage pressure intensity, a combined spray head, a pressure intensity air cylinder and terminal pressure intensity, and the rotating speed is gradually increased to 1216 revolutions from zero rotating speed of a water storage container. The novel water turbine adopts the multifunctional rotating wheel with a lever structure, an inertia structure and an impact groove structure, so that the rotating speed of the water turbine is increased, the rotating speed of the water turbine is increased to 1559 revolutions from 1216 revolutions of a cone device, and the rated rotating speed is achieved for acting and generating electricity.

Description

Technical Field

[0001] It is a clean new energy technology field that uses water storage containers or water storage facilities to store water, and uses the physical effect of the earth's gravity to make the stored water form a certain pressure and a certain pressure renewable water.

[0002] The high-speed water jet formed by the cone device drives the new type of turbine to generate power, which can achieve power generation without the use of raw materials, zero emissions, pollution and carbon.

[0003] A multi-stage and multi-cone structure device is used to form a high-speed water jet, and a cone device that can form a high-speed water jet is developed.

[0004] The new water turbine adopts a runner with multiple functions such as a lever structure, an inertia structure, and an impact groove structure. Various water turbines do not have the structure and function of the runner of the new water turbine.

[0005] A test method has been developed to quantitatively detect physical effects and turbine speed. Background Art

[0006] Upon inquiry, no identical or similar background technology was found. Summary of the invention

[0007] The invention adopts a water storage container or a water storage facility to store water, and utilizes the physical effect of the earth's gravity to make the stored water form a clean and renewable new energy with a certain pressure.

[0008] The invention adopts a multi-stage and multi-cone structure device to form a high-speed water jet to drive a new type of water turbine to generate power.

[0009] The invention discloses a cone device with multi-level and multi-cone structures capable of forming high-speed water jets.

[0010] The invented new type of water turbine adopts a multifunctional runner with a lever structure, an inertia structure, and an impact groove structure. Various water turbines do not have the runner structure and function of the new type of water turbine.

[0011] A test method has been developed to quantitatively detect physical effects and turbine speed. Technical Solution

[0012] The high-speed water jet formed by the cone device drives the new type of turbine to generate power, achieving emission-free, pollution-free and carbon-free power generation. The detection method that can quantitatively detect the speed of the turbine is used to detect the speed of the turbine driven by the high-speed water jet. The scheme adopts Example 1, Example 2 and Example 3. Example 1 uses a water storage container, an automatic water level controller is set at the upper end of the water storage container, and a water supply connecting pipe is used at the lower end of the water storage container. The connecting pipe is connected to the turbine, and a pressure gauge and valve are set on the upper section of the water supply connecting pipe. The cone device of Experiment 2 is based on the water storage container of Example 1. It is composed of a conical tube, two-stage pressure, combined nozzle, pressure cylinder, terminal pressure, and conical nozzle; Example 3 The new type of turbine adopts a multifunctional runner with a lever structure, inertia structure, and impact groove structure, which is composed of a wheel, a main shaft, a sleeve, inner and outer rings of the impact groove, a multi-stage blade impact groove, and a casing. Configure a circulating water system.

[0013] Example 1 uses a water storage container or a water storage facility. The water storage capacity is set according to the unit power. As the unit power increases, it can store tens, hundreds, or thousands of cubic meters. The specifications of the water storage container are set according to the water storage capacity. Steel plate coil welding is used to make it according to the set specifications. An automatic water level controller is set at the upper end of the water storage container, and a water connection pipe is set at the lower end of the water storage container, which is then connected to the 10-kilowatt turbine unit. A pressure gauge and valve are set at the upper section of the water connection pipe.

[0014] Example 2: The cone device is equipped with a cone tube based on the water storage container of Example 1. The specifications of the cone tube are set according to the power of the unit and the specifications of the water storage container. The cone tube is made by steel plate coil welding according to the set specifications, and the upper end of the cone tube is connected and fixed to the lower end of the water storage container. The lower end of the cone tube is connected to the upper end of the two-stage pressure component.

[0015] The two-stage pressure component used in the cone device of the scheme example 2 is set according to the unit power and the specifications of the cone tube. The two-stage pressure component is made by steel plate coil welding according to the set specifications, and the upper end of the two-stage pressure component is connected and fixed with the lower end of the cone tube. The lower end of the two-stage pressure component is connected with the upper end of the combined nozzle.

[0016] The combined nozzle used in the cone device of the second scheme is set according to the power of the unit and the specifications of the two-stage pressure components, and is made by steel plate coil welding according to the set specifications. The upper end of the combined nozzle is connected and fixed to the lower end of the two-stage pressure component. The lower end of the combined nozzle is connected to the lower end of the pressure cylinder by 6 to 8 steel bars according to the set position.

[0017] Solution Example 2 The pressure cylinder used in the cone device is set according to the unit power and the specifications of the combined nozzle. It is made of steel plate coil welding according to the set specifications, and the upper end of the pressure cylinder is connected and fixed to the cone pipe at the set position. The lower end of the pressure cylinder is connected to the upper end of the terminal pressure.

[0018] Example 2 The terminal pressure component used in the cone device is set according to the unit power and the pressure cylinder specifications, and is made by steel plate coil welding according to the set specifications. The upper end of the terminal pressure component is connected and fixed to the lower end of the pressure cylinder. The lower end of the terminal pressure is connected to the upper end of the conical nozzle.

[0019] Example 2: The conical nozzle used for the terminal pressure of the cone device sets the large opening specifications of the conical nozzle according to the specifications of the lower opening of the terminal pressure component, sets the specifications of the lower opening of the conical nozzle according to the required flow of the unit, sets the length of the conical nozzle according to the position of the turbine, and uses steel plate coil welding to manufacture according to the set specifications. Connect and fix the upper opening of the conical nozzle to the lower opening of the terminal pressure component. Connect the lower opening of the conical nozzle to the turbine.

[0020] Solution Example 3 The wheel disc used in the new type of turbine runner sets the wheel blade diameter, wall thickness and other specifications according to the unit power and the required diameter of the lever structure. Two wheel blades are made of steel plates according to the set specifications, and then circular holes are punched in the centers of the two wheel blades according to the set specifications, and connected and fixed with the shaft sleeve at the set position. The outer periphery of the two wheel blades is connected to the inner ring at the set position to form a wheel disc.

[0021] Solution Example 3 The inner and outer rings of the impact grooves used in the new turbine are set as the outer diameter of the outer ring according to the unit power and the required diameter of the lever structure, and the outer diameter of the inner ring is set according to the impact groove spacing. The wall thickness of the inner and outer rings is set according to the wall thickness of the impact ring required by the inertial structure, and the height of the impact ring is set according to the unit power. The steel plate is rolled and welded according to the set specifications. The inner ring is connected and fixed to the outer periphery of the two blades at the set position, and the outer ring is connected and fixed to the inner ring at the set spacing and the set position to form an impact groove with a lever structure and an inertial structure.

[0022] Solution Example 3: A multi-stage blade impact groove runner adopted in a new type of turbine has specifications of the first-stage blades, the second-stage blades and the third-stage blades set according to the unit power, the unit flow and the injection intensity. The blades are made of steel plates according to the set specifications and the set quantity. The third-stage blades are arranged in the impact groove at a set angle, a set spacing and a set quantity to form a runner with multiple functions such as a lever structure, an inertia structure and an impact groove structure.

[0023] The novel water turbine of scheme example three connects the multi-functional runner of the lever structure, inertia structure, impact groove structure and the main shaft, which is arranged in a casing. The main shaft is then connected to a generator to form a novel water turbine.

[0024] The high-speed water jet formed by the cone device drives the new type of turbine to generate power, achieving emission-free, pollution-free and carbon-free power generation. DETAILED DESCRIPTION

[0025] Water is stored in a water storage container, and the physical effect of the earth's gravity is used to make the stored water form a clean and renewable new energy with a certain pressure. The high-speed water jet formed by the cone device drives the new type of turbine to generate power, which can achieve power generation without raw materials, emission, pollution and carbon-free power generation. Examples 1, 2 and 3 are used for this purpose. Example 1 uses a water storage container, an automatic water level controller is set at the upper end of the water storage container, and a water pipe is set at the lower end of the water storage container, and the water pipe is connected to the turbine. A pressure gauge and a valve are set on the upper section of the water pipe. Example 2 uses a cone device, and on the basis of the water storage container in Example 1, a cone tube, two-stage pressure, a pressure cylinder, a terminal pressure and a cone nozzle are successively set. Example 3 The new type of turbine uses a multifunctional runner with a lever structure, an inertial structure and an impact groove structure, which is composed of a wheel disc, a main shaft, a sleeve, an inner and outer ring of the impact groove, an impact groove structure and a casing, and is equipped with a circulating water system. Example 1

[0026] A 24-meter-high water storage container with a water storage capacity of 16 cubic meters is used to store water. It is made of steel plate coil welding according to the set specifications. An automatic water level controller is installed at the top of the water storage container, and a water supply connecting pipe is installed at the lower end of the water storage container. The connecting pipe uses an inner diameter of 16 mm to control the flow rate. The connecting pipe is connected to a 10-kilowatt turbine unit. A pressure gauge and valve are installed on the upper section of the water supply connecting pipe, and a water supply pipe and a water pump are installed.

[0027] After the valve is closed, water is added. When the water is full, the pressure gauge shows a pressure of 0.22 MPa. After the valve is opened, the water flow is unable to drive the 10 kW turbine unit to operate, and its speed is zero. Example 2

[0028] A conical tube is set on the basis of the water storage container in Example 1. According to the specifications of the lower end of the water storage container and the specifications of the conical tube, the upper end of the conical tube is connected and fixed to the lower end of the water storage container by steel plate coil welding, and the lower end of the conical tube is connected to the upper end of the conical nozzle.

[0029] The cone device uses a cone nozzle. According to the diameter of the lower end of the cone tube, the nozzle aperture is still 16 mm to control the flow rate. The length of the cone nozzle is set according to the position of the turbine. It is made by steel plate coil welding according to the set specifications. The upper end of the cone nozzle is connected and fixed to the lower end of the cone tube. The lower end of the cone nozzle is connected to the 10 kW turbine unit. A pressure gauge and valve are set on the upper section of the cone nozzle, and a water pipe and a water pump circulation pool are configured.

[0030] After closing the valve, water is added. When the water is full, the pressure gauge shows a pressure of 0.22 MPa. The water jet formed can drive a 10-kW turbine unit to operate at 218 revolutions.

[0031] The cone device uses a two-stage pressure cone component. On the basis of the water storage container and the cone tube in Example 2, a two-stage pressure cone component is set. The two-stage pressure is set according to the diameter of the lower end of the cone tube, and then according to the specifications of the two-stage pressure cone component, and is made by steel plate coil welding. The upper end of the two-stage pressure cone component is connected and fixed to the lower end of the cone tube, and then the lower end of the two-stage pressure cone component is connected to the cone nozzle.

[0032] The cone nozzle used in the lower part of the two-stage pressure cone device is set to 16 mm with the inner diameter of the nozzle to control the flow rate. It is made of steel plate coil welding according to the set specifications. The upper end of the cone nozzle is connected and fixed to the lower end of the two-stage pressure cone component. The lower end of the cone nozzle is connected to the 10 kW turbine unit. A pressure gauge and valve are set on the upper part of the cone nozzle, and a water pipe, a water pump, etc. are configured.

[0033] After closing the valve, water is added. When the water is full, the pressure gauge shows a pressure of 0.22 MPa. The formed water jet drives the turbine unit to operate, reaching 376 rpm.

[0034] The cone device uses a combined nozzle, which is set on the basis of the water storage container, conical tube, and two-stage pressure in Example 2. According to the diameter of the lower opening of the two-stage pressure cone component, and then according to the two-stage pressure setting specifications, it is made by steel plate coil welding. The upper end of the combined nozzle is connected and fixed with the lower end of the two-stage pressure, and the lower end of the combined nozzle is connected with the upper end of the conical nozzle.

[0035] The cone nozzle used in the cone device combined nozzle still uses 16 mm aperture as the nozzle inner diameter to control the flow rate. It is made by steel plate coil welding according to the set specifications, and the upper end of the cone nozzle is connected and fixed with the lower end of the combined nozzle, and the lower end of the cone nozzle is connected to the 10 kW turbine unit. A pressure gauge and valve are set on the upper part of the cone nozzle. After the valve is closed, water is added. After the water is full, the pressure gauge shows a pressure of 0.22 MPa. After the valve is opened, the water jet drives the turbine to operate, and its speed reaches 571 rpm.

[0036] The cone device uses a pressure cylinder, which is set on the basis of the water storage container, conical tube, two-stage pressure, and combined nozzle in Example 2. According to the diameter of the lower port of the combined nozzle, the pressure cylinder is made by steel plate coil welding according to the set specifications. The pressure cylinder is connected and fixed to the lower port of the combined nozzle at the set position using 6 steel bars, and the upper port of the pressure cylinder is connected and fixed to the conical tube at the set position.

[0037] The conical nozzle used in the pressure cylinder still uses a 16mm aperture as the inner diameter of the nozzle to achieve the control flow rate. It is made of steel plate coil welding according to the set specifications. The upper end is connected and fixed to the lower end of the pressure cylinder, and the lower end is connected to the 10 kW turbine unit. A pressure gauge and valve are set on the upper part of the conical nozzle. After the valve is closed, water is added. After the water is full, the pressure gauge shows 0.22 MPa. After the valve is opened, the water jet drives the turbine unit to operate, reaching 997 revolutions.

[0038] The cone device adopts terminal pressure, and the terminal pressure is set on the basis of the water storage container, conical tube, two-stage pressure, and pressure cylinder in Example 2. According to the diameter of the lower port of the pressure cylinder and the terminal pressure setting specifications, it is made by steel plate coil welding. The upper port of the terminal pressure is connected and fixed with the lower port of the pressure cylinder. The lower port of the terminal pressure cone component is connected with the upper port of the conical nozzle.

[0039] The conical nozzle used for the terminal pressure of the cone device still uses a 16mm aperture to set the nozzle inner diameter to control the flow rate, the nozzle length is set according to the turbine position, and the diameter of the upper end of the conical nozzle is set according to the lower end of the terminal pressure. It is made by steel plate coil welding according to the set specifications. The upper end of the conical nozzle is connected and fixed to the lower end of the terminal pressure cone component. The lower end of the conical nozzle is connected to the 10 kW turbine unit. A pressure gauge and valve are set on the upper section of the conical nozzle, and a water pipe, a water pump, and a circulating water tank are configured.

[0040] After closing the valve, fill it with water. When the water is full, the pressure gauge shows a pressure of 0.22 MPa. After opening the valve, the high-speed water jet formed drives the turbine unit to run at 1216 rpm. Example 3

[0041] The new type of turbine adopts a multifunctional impeller with a lever structure, an inertia structure, and an impact groove structure. It is composed of a wheel, a main shaft, a sleeve, inner and outer rings of the impact groove, a multi-stage blade impact groove, and a casing, and is equipped with a water circulation system.

[0042] The wheel disc used in the new turbine consists of a blade, a sleeve, and an inner ring. The blade diameter used is set according to the required diameter of the lever structure. Two blades of the same specification are made of steel plates according to the set specifications, and then circular holes are punched in the centers of the two blades according to the set specifications, and connected and fixed with the sleeve at the set position. The outer periphery of the blade is connected to the inner ring at the set position to form a wheel disc.

[0043] The new turbine uses an impact groove inner and outer rings. The outer diameter of the outer ring is set according to the required diameter of the lever structure, and the inner diameter is set according to the impact groove spacing. The inner and outer ring wall thickness is set according to the inner and outer ring wall thickness required by the inertial structure. The inner and outer ring heights are set according to the unit power. The inner ring is connected and fixed to the outer periphery of the two blades at a set position by steel plate roll welding according to the set specifications. The outer ring is connected to the inner ring at a set spacing and a set position to form an impact groove.

[0044] The new turbine uses multi-stage and multi-blade impact grooves, which are made of steel plates in the required quantity according to the water jet intensity, the required specifications of the first, second and third stage blades. The multifunctional runners are arranged in the impact grooves at set angles, set spacings and set quantities to form lever structures, inertia structures and impact groove structures.

[0045] The new type of water turbine connects the multifunctional impeller of the lever structure, inertia structure and impact groove structure with the main shaft, which is arranged in the casing. The main shaft is then connected with a 10-kilowatt generator to form the new type of water turbine.

[0046] The high-speed water jet formed by the cone device drives the new turbine to operate, and the tachometer is used to detect the turbine speed. The test results show that the turbine reaches 1559 revolutions, reaching the rated speed to generate power.

[0047] The water level automatic controller is used to control the water level, so that the water level and water pressure are stable. The nozzle is used to control the flow rate, so that the turbine speed is stable, and the voltage and power are stable. The tachometer is used to detect the turbine speed, so that the operation is stable and safe, and the industrial grid-connected demonstration power generation has been achieved.

[0048] The working principle of increasing the speed of the turbine is that a conical tube, two-stage pressure, combined nozzle, terminal pressure, and conical nozzle are used in the conical device, all of which are conical structures of different specifications and structures. The difference in the pressure areas of the upper and lower large and small openings of the above-mentioned multi-stage and multiple conical structures is used to continuously increase the water pressure to form a high-speed water jet to increase the speed of the turbine; a pressure cylinder is used in the conical device, which utilizes the physical effect that the specific gravity of air is more than 700 times smaller than that of water, utilizes the physical effect that air can be compressed and stored, and utilizes the physical effect of the gravity pressure of the stored water to generate a strong pressure in the pressure cylinder, so that the stored water forms a high-speed water jet. As the power of the unit increases, a high-speed water jet with a water storage pressure of tens, hundreds, or thousands of tons can be formed to drive the turbine to generate power, achieving power generation without the use of raw materials, emission-free, pollution-free, and carbon-free. The new turbine adopts a multifunctional runner with a lever structure, an inertia structure, and an impact groove structure. The physical driving effect of the lever structure, inertia structure, and impact groove structure is used to increase the speed of the turbine, and the high-speed water jet formed by the cone device is used to drive the new turbine to generate power.

[0049] The working principle of increasing the turbine speed is to utilize the physical effect of the earth's gravity, the physical effect of multi-level and multi-cone structures, the physical effect between water and air, and the physical driving effect of the lever structure, inertia structure, and impact groove structure to gradually increase the turbine speed from zero to 1559 rpm. The turbine speed is used as an evaluation indicator and standard to detect and confirm the exact quantitative effect of the above-mentioned physical effects.

[0050] It was observed in the above practice that as the number of cone stages increased, the turbine speed continued to increase, but the pressure of 0.22 MPa and the height of the device of 24 meters were correct, indicating that the pressure gauge could not detect the changes in the water storage pressure and the pressure of the water storage, indicating that there are essential differences between the concept of pressure, the measurement of pressure and pressure.

Claims

1. A new type of cone device water turbine renewable energy power generation device, which adopts a detection method that can quantitatively detect the rotation speed of the water turbine, and detects the rotation speed of the water turbine driven by the high-speed water jet formed by the cone device or cone facility. Example 1 uses a water storage device; the cone device used in Example 2 is composed of a water storage container, a cone tube, two-stage pressure, a combined nozzle, a pressure cylinder, a terminal pressure, and a cone nozzle; Example 3 The new type of water turbine adopts a multifunctional runner with a lever structure, an inertial structure, and an impact groove structure, which is composed of a wheel disc, a main shaft, a sleeve, an inner and outer ring of the impact groove, a multi-stage blade impact groove, and a casing, and is equipped with a circulating water system.

2. The water storage device used in Example 1 according to claim 1, characterized in that: It is made of steel plate coil welding according to the set specifications, and an automatic water level controller is installed at the upper end of the water storage container. The lower end of the water storage container is connected to the water supply connecting pipe, and the connecting pipe is connected to the 10-kilowatt turbine unit. A pressure gauge and valve are installed on the upper part of the water supply connecting pipe.

3. According to the cone device used in Example 2 of claim 1, a cone tube is provided on the basis of the water storage container of Example 1, characterized in that: According to the set specifications, the steel plate is rolled and welded to connect and fix the large mouth of the conical pipe to the lower end of the above-mentioned water storage container. The lower end of the conical pipe is connected to the conical nozzle, and then connected to the 10-kilowatt turbine unit. A pressure gauge and valve are set at the lower end of the conical pipe.

4. The cone device of Example 2 according to claim 1 adopts two-stage pressure based on the water storage container and cone tube of Example 2, and is characterized in that: According to the set specifications, the steel plate is rolled and welded to connect and fix the large opening at the upper end of the two-stage pressure tube with the small opening at the lower end of the tapered tube. The small opening at the lower end of the two-stage pressure tube is connected to the tapered nozzle and then connected to the turbine unit.

5. According to the second example of claim 1, the cone device is a combined nozzle based on the water storage container, the cone tube, and the two-stage pressure of the second example, characterized in that: According to the set specifications, the steel plate is rolled and welded to connect and fix the large opening at the upper end of the combined nozzle and the small opening at the lower end of the two-stage pressure. The lower end of the combined nozzle is connected to the conical nozzle and then to the turbine unit.

6. The cone device of Example 2 according to claim 1 is a pressure cylinder adopted on the basis of the water storage container, cone tube, two-stage pressure, and combined nozzle of Example 2, characterized in that: It is made by steel plate coil welding according to the set specifications, connecting the upper end of the pressure cylinder with the lower end of the combined nozzle, and then connecting the conical nozzle at the lower end of the pressure cylinder to the turbine unit.

7. The terminal pressure adopted by the cone device of Example 2 according to claim 1 based on the water storage container, cone tube, two-stage pressure, combined nozzle, and pressure cylinder of Example 2 is characterized by: According to the set specifications, the steel plate is rolled and welded to connect and fix the upper end of the terminal pressure with the lower end of the pressure cylinder. The lower end of the terminal pressure is connected to the upper end of the conical nozzle.

8. The conical nozzle used in the second cone device according to claim 1 is characterized in that: According to the set specifications, the steel plate is rolled and welded to connect and fix the upper opening of the conical nozzle with the terminal pressure opening. The lower opening of the conical nozzle is connected to the turbine.

9. The novel water turbine according to Example 3 of Claim 1 adopts a lever structure, an inertia structure, and an impact groove structure, and the wheel disc used is characterized in that: Two blades are made of steel plates according to the selected diameter specifications, and circular holes are punched in the centers of the two blades according to the set specifications, and connected and fixed with the shaft sleeve at the set position. Then, the outer peripheries of the two blades are connected with the inner ring at the set position.

10. The impact groove inner and outer rings of the new type of turbine runner according to Example 3 of claim 1 are characterized in that: The inner and outer rings are made of steel plates according to the selected specifications of diameter, thickness and height, the inner ring is connected and fixed to the outer peripheries of the two blades at a set position, and then the outer ring is connected and fixed to the inner ring at a set distance and at a set position to form an impact groove.

11. The multi-stage blade impact groove runner used in the third example of the water turbine runner according to claim 1 is characterized in that: The inner and outer ring impact grooves of the device are set according to the diameter of the lever structure, the thickness of the inertia structure, and the height. The first-stage, second-stage, and third-stage blades produced according to the set specifications are arranged in the impact grooves according to the set angles, the set spacings, and the set quantities to form a rotor with a lever structure, an inertia structure, and an impact groove structure.

12. The novel water turbine according to claim 1 is characterized in that: The runner with lever structure, inertia structure and impact groove structure is connected to the main shaft and arranged in the casing. The main shaft is connected to the generator to form a new type of turbine, which receives the impact of high-speed water jet formed by the cone device to generate power.