KR20030041453A - Method and device for generating electricity using hydraulic lift power turbine - Google Patents

Abstract

PURPOSE: An apparatus for generating electricity using a hydraulic lift power turbine and a control method of the same are provided to build an environment-friendly power plant. CONSTITUTION: An apparatus includes a lift power part(4) having a horizontal support installed to penetrate a middle part of a vertical pole part and having both ends fixed by a hinge axis to rotate up and down, and a plurality of hydraulic cylinder parts placed around the vertical pole part and having outer diameters and lengths different to each other to have same capacity; a starting driving part comprising a first and a second motors wired to pull wires connected to both ends of the horizontal support by rotating in normal direction and reverse direction; a hydraulic turbine(8) generating power through a crankshaft(114) connected with an A, a B, a C and a D cylinder plungers(78,88,80,90) moved back and forth by hydraulic pressure supplied by a surge tank(72) storing hydraulic pressure generated by a first, a second, a third and a fourth hydraulic cylinder parts of the lift power part moved up and down by the first and the second motors; a hydraulic pump(10) pumping oil discharged from the A, B, C and D cylinder plungers and stored in an oil tank(82); a generator(12) connected to be driven by power of the hydraulic turbine so as to generate electricity; and a controller(14) electrically connected to control the first and the second motors, the oil pump, a first and a second two-way valves(74,76) and a first, a second, a third and a fourth direction switching valves(84,86,92,94).

Description

Power generating device and control method using a hydraulic turbine {Method and device for generating electricity using hydraulic lift power turbine}

The present invention relates to a power generation apparatus using a lifting force hydraulic turbine and a control method thereof, and more particularly, to convert the mechanical energy, which is a physical force generated by using the principle of seesaw and lever, into electrical energy to convert energy for power generation. The present invention relates to a power generation apparatus using a lifting force hydraulic turbine and a control method thereof.

In general, conventional thermal power plants obtain electric energy by operating steam turbines using energy sources such as coal or petroleum. In nuclear power plants, electric energy is operated by operating steam turbines using heat energy generated by using uranium as an energy source. Getting is known.

However, in order to prepare power generation facilities of conventional thermal power plants or nuclear power plants, high-cost investments are being made and promoted in the long term, and many household appliances are used every year as industrial facilities increase and the living environment becomes more favorable. Although the expansion of facilities is required, there is a problem that cannot actively cope with economic reasons.

In addition, the search for a suitable place due to the construction of a power plant cannot be avoided as it has to be constructed to avoid existing facilities.In particular, nuclear power plants and thermal power plants, etc., cause civil complaints from local residents due to air pollution, water pollution, and radiation pollution. There is a problem.

For reference, the present applicant proposes and proposes an apparatus for generating power using a lifting power unit in Patent Application Nos. 1998-54443 and 1999-55000.

An object of the present invention proposed to solve the problems of the prior art as described above is to use a lifting force part using the principle of seesaw and lever to generate a high hydraulic pressure to generate mechanical power into electrical energy Therefore, it is to provide a power generation device using a hydraulic power hydraulic turbine and its control method which is aimed at construction of environmentally friendly power plant, reduction of cost and shortening of air.

The present invention for realizing this

Through the middle of the vertical column, the horizontal support is fixed to the hinge axis so that both ends can be rotated up and down, and the vertical column is different from each other by the same outer and outer diameters and lengths. A lifting force part configured by arranging a plurality of hydraulic cylinder parts;

Starting drive unit consisting of the first and second motors for winding the wire connected to both ends of the horizontal support of the lifting force means, forward and reverse rotation;

A, B, C for each hydraulic cylinder of the lifting power unit to operate forward, backward by the hydraulic pressure supplied through the surge tank to store the hydraulic pressure generated by the horizontal support which is operated up and down by the drive of the first and second motors Hydraulic turbine generating power through the crankshaft connected to the D-cylinder,

A hydraulic pump for pumping oil discharged from the A, B, C, and D cylinder cylinders and stored in the oil tank;

A power generation device connected and installed to generate electricity by driving by the power of the hydraulic turbine;

A quantity comprising a control device electrically connected and installed to control the first and second motors, the oil pump, the first and second two-way valves, and the first, second, third and fourth directional valves of the power generating device and the lifting force. It is to provide a power generation apparatus using a power hydraulic turbine.

The lifting force part crosses the middle of the vertical pillar and crosses the length and the outer diameter at regular intervals on the side of the first quadrant based on the horizontal support and the vertical pillar where both ends are fixed to the hinge axis so that the upper and lower pivots can be rotated. 1 pair of hydraulic cylinders installed in pairs across a horizontal support and a vertical column, and a pair across a horizontal support and a vertical column by varying the length and outer diameter at regular intervals on the second quadrant side. A plurality of second hydraulic cylinders installed in pairs; a third hydraulic cylinder installed in pairs across a horizontal support and a vertical column at different lengths and outer diameters at predetermined intervals on the third quadrant side; Lifting force consisting of a fourth hydraulic cylinder part which is provided in pairs in pairs across a horizontal support and a vertical column part by varying length and outer diameter at predetermined intervals on the fourth quadrant side. It is to provide a power generation device using a hydraulic turbine.

Another generating device using the lifting power hydraulic turbine

A first seesaw formed at a predetermined length in the center of the pedestal and hinged so that the left and right ends rotate up and down by the power of the motor;

A second seesaw which is arranged in parallel at a predetermined interval from the first seesaw while the left and right ends are hinged up and down by the power of the motor;

A lifting force part of a federated structure in which a horizontal support is linked at regular intervals on the first and second seesaws while being arranged in the same number on both sides of the first and second seesaws on the left and right sides;

Lifting force consisting of a multi-lift power unit including a forward and reverse motors are installed in the first and second seesaws, and the plurality of wires connected at regular intervals on the left and right sides based on the pedestal to the signal of the control device ( It is to provide a power generator using a hydraulic turbine.

The control of the generator using the above-mentioned lifting force hydraulic turbine is

Turning on the power to sequentially operate the first and second drive motors;

Selectively winding the wire by the operation of the first and second driving motors to rotate the left and right ends of the horizontal support up and down;

Generating hydraulic pressure by contracting and expanding the first, second, third and fourth hydraulic cylinders by the horizontal support;

Controlling the generated hydraulic pressure of the first, second, third and fourth hydraulic cylinders to control the first and second two-way valves and the first, second, third and fourth directional valves;

Controlling hydraulic pressure and discharge to the A, B, C, D cylinder section which performs the linear reciprocating motion by controlling the first, second two-way valve and the first, second, third and fourth directional valves;

Storing the oil in the oil tank by the operation of the A, B, C, and D cylinder parts;

Supplying and controlling the oil stored in the oil tank to the first, second, third and fourth hydraulic cylinders through a pipe selection valve;

Supplying oil to the first, second, third and fourth hydraulic cylinders by the oil pump at the same time as the supply control through the pipe selection valve;

Generating power by operating a hydraulic turbine through a crankshaft connected by the operation of the A, B, C, and D cylinder cylinders of the step;

The present invention provides a control method of a power generation apparatus using a lifting force hydraulic turbine which is controlled to generate power by driving a power generating apparatus with power transmitted through a crankshaft of the hydraulic turbine.

Therefore, the present invention operates the hydraulic turbine connected to the crankshaft as the increased hydraulic pressure generated in the first, second, third and fourth hydraulic cylinders of the lifting force reciprocates the A, B, C, and D cylinder sections of the linear motion section. As a result, the interlocking power generation device generates power.

For reference, the power generation principle using the lifting force, when the wire to the connecting motor to the seesaw operation to pull the left and right force points of the seesaw, the lifting force is generated by the amount of force corresponding to the capacity of the motor.

This force is converted into a force proportional to the principle of the lever through the supporting point, and is transmitted to the lifting force 1, 2, 3, 4 hydraulic cylinder mounted at one point, and the compressed hydraulic pressure rotates the crankshaft of the hydraulic turbine and It generates power by driving the interlocking power generator.

First, the principle of lever lever exerting great force with small force is to repeat the action of pulling up and down by connecting the power point of the left and right ends of the horizontal support or the seesaw which generates the lifting force by rotating the lifting force driving motor;

FL = F'L '(F: acting force, L: distance of action point, F' force, L: distance of support point)

As can be seen from the above equation, since the distance between the acting force and the acting point is proportional to the distance between the receiving force and the receiving point, the length of one side of the horizontal beam of the seesaw in the embodiment of the present invention is 10 m and the length of 1 m opposite the support point is applied when a force of 1 ton is applied. At one point of 10ton force was applied, the principle of rotating the turbine by the force of oil discharged at 10 tons of oil in the lifting force hydraulic pump.

First, the lifting force is the point of support (A) of the center of the seesaw, the point of force point (P, P ') on both ends, and the lever is formed at a point proportional to the magnitude (P, P') of the force acting on each point. The force exerted on the power point is called diversion force.

As an example;

The T (Torque) of a 3Hp motor that rotates at about 1,800rpm is 119.36Kg · cm, and it is about 30rpm and T is 7,162Kg · cm when it is decelerated through the reducer (60: 1). It can be seen that T increases by 60 times.

First, about 30 rpm can be obtained at the time of deceleration through the motor of 3Hp through the reduction gear 60: 1; The force acting on B ', which is 10 times the point B, should be known as the force to be pulled from the motor according to the principle of the lever; (5m: 0.5m each for the center point of support point (A) and both ends of the point of distance (L, L ') of force point, and the distance 10 times at the point proportional to the magnitude of force acting on each point (P, P') Functioned)

Hps = P · v / 75 = P · rw / 75

P = 75Hps / rw,

P to be obtained from the above equation

P = 75 * 3/5 * 3,14 (w = 3,14 Hz)

As in the above equation, the magnitude (P) of the 3 Hps motor acting on the seesaw is 14.33 kg.

The above-mentioned force of force (P) = 14.33 kg acts at the point L or 5m, and 10 times the force (P ') in proportion to the distance at the point L' or the point of 0.5m where the force is generated according to the principle of lever. It can be seen that 143.3㎏ occurs.

As can be seen from the above equation, since the distance between the acting force and the acting point is proportional to the distance between the receiving force and the receiving point, the length of one side of the horizontal beam of the seesaw in the embodiment of the present invention is 10 m and the length of 1 m opposite the support point is applied when a force of 1 ton is applied. At one point of 10ton force was applied, the principle of rotating the turbine by the force of oil discharged at 10ton pressure of oil in the lifting power hydraulic pump.

That is, according to the present invention, the power and pressure of both powers vary depending on the capacity of the motor applied to the seesaw or the left and right end point of the horizontal support, and the first, second, The high pressure generated by the 3,4 hydraulic cylinder part is driven by the A, B, C, D cylinder part of the hydraulic turbine to drive the crankshaft to generate the rotational force to drive the power generator connected.

The power generated in this way becomes a basic energy without resource consumption and can be supplied where the electric wire reaches, and when it is installed to operate by operating the second and third lift power plants at the point of arrival, it becomes a large power plant at low cost. Self energy will be obtained.

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a view schematically showing the configuration of a power generation apparatus using a lifting force hydraulic turbine according to the present invention.

Figure 2 is a view showing a lifting force applied to the power generating apparatus using a lifting force hydraulic turbine according to the present invention.

3 is a view showing a hydraulic cylinder applied to the lifting force portion of the power generation apparatus using a lifting force hydraulic turbine according to the present invention.

4 is a view schematically showing the action of the lifting force portion of the single lever lever type applied to the power generating apparatus using the lifting force hydraulic turbine according to the present invention.

5 is a combination consisting of a horizontal support interlocking with the first and second seesaws interlocking with the motor and the hydraulic cylinder unit by applying the positive force action of the power generation device using the lifting force hydraulic turbine according to the present invention as a basic means Drawing showing the lifting force part.

FIG. 6 shows another embodiment of the seesaw according to FIG. 5. FIG.

Figure 7 is a block diagram showing the control of the power generation apparatus using a lifting force hydraulic turbine according to the present invention.

Explanation of symbols on the main parts of the drawings

4: lifting power part 6: starting drive part

8: hydraulic turbine 10: oil pump

12: generator 14: controller

16: vertical column 18: horizontal support

20,22,24,26: 1st, 2, 3, 4 hydraulic cylinder part 30: concrete foundation part

32: hinge axis 34: spring seat

70: supply line 72: surge tank

74, 76: First and second two-way valve 104: Wire

108: electromagnetic clutch 110, 112: first and second motor

114: crankshaft 116, 118: the first and second pipe

119: pipeline selection valve 120: multi-dynamic power unit

122,124: 1st, 2nd seesaw 126: Forward, reverse motor

128: base 130: slide section

132: ball unit 134: curved support frame

136: Rope

Hereinafter, with reference to the accompanying drawings, preferred embodiments of the present invention will be described in more detail.

1 is a view schematically showing the configuration of a power generating device using a lifting power hydraulic turbine according to the present invention, Figure 2 is applied to a power generating device using a lifting power hydraulic turbine according to the present invention. It is a figure which shows the lifting force part.

3 is a view showing a cylinder applied to the first, second, third, fourth hydraulic cylinder of the power generation apparatus using a lifting force hydraulic turbine according to the present invention, Figure 4 is a quantity according to the present invention It is a figure which shows schematically the action of the lifting force part applied to the power generating apparatus which uses a power hydraulic turbine.

5 is a horizontal support interlocking with the first and second seesaws interlocked with the motor and the hydraulic cylinder unit by applying the positive force action of the power generator using the positive force hydraulic turbine according to the present invention as a basic means. It is a view showing the combined lifting power unit made.

6 is a view showing another embodiment of the horizontal support according to Figure 5, Figure 7 is a block diagram showing the control of the power generation apparatus using a lifting force hydraulic turbine according to the present invention.

The generator 2 using the lifting power hydraulic turbine is largely the lifting power part 4, the starting drive part 6, the hydraulic turbine 8, the oil pump 10, and the power generating device 12 which are the lifting power means. ), The control device 14 is formed.

Lifting force portion 4 is composed of a vertical column 16, horizontal support 18, the first, second, third, fourth hydraulic cylinders 20, 22, 24, 26 as a lifting force means It is done.

The vertical pillar portion 16 forms the space portion 28 in the longitudinal direction, and is fixedly fixed to the concrete foundation portion 30.

The horizontal support 18 is formed to have a predetermined length, and is fixed to the hinge shaft 32 so that the left and right ends can be rotated up and down while passing through the space 28 of the vertical pillar 16. Spring seat 34 is arranged to assist the ascending rise after the descending.

When the first hydraulic cylinder 20 is divided into the horizontal support 18 and the vertical pillar 16 based on the first quadrant 36, the first hydraulic cylinder 20 is fixed while varying the cylinder length and the outer diameter. A plurality of pairs are provided as hinge shafts 32 in a pair across the horizontal support 18 and the vertical column 16 at intervals.

The 1st hydraulic cylinder part 20 is the innermost 1-1 cylinder 38 of the small length and large diameter, and the outer side of this 1-1 cylinder 38 in the innermost part. Length 1-2 cylinder 40 of the length and medium diameter, and 1-3 cylinder 42 of a large length and a small diameter outside the 1-2 cylinder 40. It is constructed and arranged.

The second hydraulic cylinder part 22 has a plurality of pairs of hinge shafts in a pair across the horizontal support 18 and the vertical column 16 by varying the length and the outer diameter at regular intervals on the second quadrant 44 side. 32) is installed.

The 2nd hydraulic cylinder part 22 is the innermost 2-1 cylinder 46 of a small length and a large diameter, and the outer side of this 2-1 cylinder 46 middle. The 2-2 cylinder 48 of length and medium diameter and the 2-3 cylinder 50 of a large length and a small diameter outside the outer side of the 2-2 cylinder 48 It is constructed and arranged.

The third hydraulic cylinder part 24 has a plurality of pairs of hinge shafts in a pair across the horizontal support 16 and the vertical column part 16 by varying the length and the outer diameter at regular intervals on the third quadrant 52 side. 32) is installed.

The 3rd hydraulic cylinder part 24 is the innermost 3-1 cylinder 54 of a small length and a large diameter, and the outer side of this 3-1 cylinder 54 middle. The third and second cylinders 56 having a length and a medium diameter, and the third and third cylinders 58 having a large length and a small diameter are located outside the third and second cylinders 56 and 56. It is constructed and arranged.

The fourth hydraulic cylinder 26 has a plurality of hinge shafts 32 in a pair across the horizontal support 18 and the vertical column 16 by varying the outer diameter at predetermined intervals on the fourth quadrant 60 side. It is installed.

The 4th hydraulic cylinder part 26 has the innermost 4-1 cylinder 62 of the small length and large diameter, and the outer side of this 4-1 cylinder 62 in the middle. The 4-2 cylinder 64 of the length and the medium diameter, and the 4-3 cylinder 66 of the large length and the small diameter on the outer side of the 4-2 cylinder 64. It is constructed and arranged.

The first, second, third and fourth hydraulic cylinders 20, 22, 24 and 26 are connected to the discharge pipe 68 and the supply pipe 70 to supply and discharge oil to each cylinder. The surge tank 72 is connected to the discharge pipe 68.

The surge tank 72 is provided with ordinary first and second two-way valves 74 and 76, and the first two-way valve 74 supplies oil to the A and C cylinders 78 and 80 and the oil tank. The first and second directional valves 84 and 86 are connected to and recirculated to (82), and the second two-way valve 76 is configured to supply oil to the B and D cylinders 88 and 90. The 3rd and 4th direction switching valves 92 and 94 are connected and recirculated to the oil tank 82. FIG.

The first, second, third and fourth directional valves 84, 86, 92 and 94 have A and B of return lines 95 and 96 connected to the oil tank 82 and the hydraulic turbine 8, respectively. , C, D cylinders 78, 88, 80, 90 and the A, B, C, D supply pipe (96) (98) (100, 102) to supply the oil Doing.

The starting drive unit 6 is provided with an electromagnetic clutch 108 for winding the wire 104 connected to the left and right ends of the horizontal support 18 of the lifting force unit 4 by forward and reverse rotation to the pulley 106. It consists of 1,2 motors 110 and 112.

The hydraulic turbine 8 is a surge tank through a plurality of discharge pipes 68 connected to each of the first, second, third and fourth hydraulic cylinders 20, 22, 24 and 26 of the lifting power unit 4. 72, the first and second two-way valves 74 and 76, the first, second, third and fourth directional valves 84, 86, 92, 94, by the oil pressure supplied through A, The B, C, and D cylinder brakes 78, 88, 80 and 90 are operated in a conventional manner, and the crankshaft 114 connected thereto is rotated to generate power.

The oil pump 10 is driven at the same time as the control of the pipeline selection valve 119 which selects the first and second pipelines 116 and 118 of the supply pipeline 70 by the controller 14, A, B, The oil discharged by the operation of the C, D cylinders 78, 88, 80 and 90 is connected to the first, second, third and fourth directional valves 84, 86, 92 and 94. It is installed to pump the oil in the oil tank 82 stored through the return pipe (95, 96).

In addition, the generator 12 is connected to the crankshaft 114 of the hydraulic turbine 8 according to a conventional technique, and A, B, C, and D cylinder brakes 78 and 88 of the hydraulic turbine 8 are installed. (80) It is installed to generate electricity by using the rotational force of the crankshaft 114 to rotate by the operation of (90).

In addition, a normal damper may be provided between the crankshaft 114 and the power generator 12 in order to reduce the impact of rapid power transmission.

The control device 14 is electrically connected and installed to control the first and second motors 110 and 112 and the oil pump 10 of the power generator 12 and the lifting power unit 4 according to previously inputted information. have.

Another embodiment of the power generation apparatus using the above-mentioned lifting power hydraulic turbine is the combined lifting power unit 120 is the first seesaw 122, the second seesaw 124 for generating power in accordance with the generation of large capacity It is composed of a lifting power unit 4, a plurality of forward and reverse motor unit 126.

The first seesaw 122 is formed with a predetermined length at the center of the pedestal 128 (which can be replaced by the vertical column 16), and the left and right ends are rotated up and down by a plurality of motors within a 45 ° angle. The hinge is installed, and a plurality of wires 104 are connected and installed at regular intervals and are connected to the forward and reverse motor parts 126.

The second seesaw 124 is arranged in parallel at a predetermined interval from the first seesaw 122 while the left and right ends are hinged up and down by a plurality of motors within a range of 45 ° angles. A plurality of wires 104 are connected and installed and connected to the forward and reverse motor units 126.

Lifting power unit 4 is disposed between the first, second seesaw 122, 124, the left and right sides of the same as a plurality of bases 128, the first, second seesaw 122 to function as the exercise lever Horizontal support 18, which acts as a lever lever 124, is linked at regular intervals.

Assembled in a ball joint type for smooth interlocking between the horizontal support 18 and the first and second seesaws 122 and 124, the horizontal support 18 is assembled with the slide part 130, and the front end of the slide part 130. The first and second seesaws 122 and 124 are assembled to each other by the ball part 132 formed at the upper and lower sides.

The forward and reverse motor unit 126 has a plurality of wires 104 connected to the first and second seesaws 122 and 124 at regular intervals on the left and right sides of the pedestal 128. It is installed to be wound with a signal, and is eccentrically installed toward the pedestal 128 with respect to the vertical line.

And the forward and reverse motor portion 126 is installed while varying the horsepower (hp) at a predetermined interval on the inclined surface of the concrete foundation portion 30 fixed to the pedestal 128 or the vertical pillar 16, for example 10, 20, 30 and 40 horsepower motors can be deployed.

Further, in order to prevent the first and second seesaws 122 and 124 from twisting, the curved support frames 134 having different lengths at regular intervals are mounted on both left and right sides thereof. ) Are connected to each other by the rope 136 to the left and right, and is easily installed up and down while trying to reduce the weight.

The first and second seesaws 122 and 124 may be formed in various forms, and are manufactured as indicated by the dotted lines 138 to maintain balance during operation.

The first and second seesaws 122 and 124 may be made of a material for torsion or weight reduction, and are not limited to the illustrated drawings, such as materials and shapes.

Accordingly, in order to facilitate the return rotation operation of the first and second seesaws 122 and 124 according to the installation of the curved support frame 134, the spring seat 34 is formed at a predetermined height to form a concrete foundation. It is provided in the part 30 at an angle.

Description of the operation of the combined lifting power unit 120 in the present invention made as described above is made on the basis of the operation of the power generator 2 using the lifting power hydraulic turbine, detailed description thereof will be omitted.

The action of the generator 2 using the lifting power hydraulic turbine is to turn on the operating power of the control device 14 to apply power to the first motor 110 of the starting drive unit (6) (S10) oil pump ( 10, the first pipe 116 communicates with the pipe selection valve 119 to supply oil pressure to the cylinders of the first and third hydraulic cylinders 20 and 24.

At this time, the operation of the first motor 110 of the lifting power unit 4 is also made and the horizontal support 18 is rotated counterclockwise by pulling the wire 104 connected to the horizontal support 18.

Accordingly, hydraulic pressure is generated in the second and fourth hydraulic cylinders 22 and 26 of the second and fourth quadrants 44 and 60 (S30), and the hydraulic pressure is discharged through the discharge pipe 68 to the surge tank ( 72 is stored once.

The oil stored in the surge tank 72 is operated by the signal of the control device 14 to pass through the first two-way valve 74, the first and second directional valves 84, 86 (S40) and the hydraulic turbine ( It is supplied to the A, C cylinders 78 and 80 of 8) to rotate the crankshaft 114. (S50)

The B, D cylinders 88 and 90 are reversely compressed through the return pipes 95 and 96 by the third and fourth turn valves 92 and 94 acting as signals of the control device 14. The oil is stored in the oil tank 82 (S60).

On the other hand, the second of the starting drive unit 6 at the same time as the supply of oil through the second conduit 118 (S70) communicated by the conduit selection valve 119 on the oil pump 10 side by the control device (14) The horizontal support 18 is rotated clockwise by the winding of the wire 104 of the motor 112.

Accordingly, the horizontal support 18 is rotated up and down left and right within a predetermined angle range.

Accordingly, the cylinders of the first and third hydraulic cylinders 20 and 24 on the first and third quadrants 36 and 52 are compressed, and the oil pressure filled therein is surged through the discharge line 68. While stored in the tank 72, through the second two-way valve 76, the third and fourth directional valves 92, 94 (S40) to the B, D cylinders 88, 90 of the hydraulic turbine (8) S50

By operating the B, D cylinders 88 and 90, the conventional crankshaft 114 is applied to the hydraulic turbine 8 (S90) to drive the power generator 12 to generate power. (S100)

In this case, as the oil pressure is supplied to the B and D cylinders 88 and 90 (S50), the oils filled in the A and C cylinders 78 and 80 are operated by signals of the controller 14. Recirculation (S60) to the oil tank (82) via the direction switching valves (84), (86), return lines (95, 96).

In other words, the hydraulic power unit 4 is the first hydraulic pressure supplied to the pumping (S80) of the oil pump 10, the first and third quadrant 36, 52, the first, third hydraulic cylinder unit 20 And supplied to (24) (S30) to reach the filling state, compressing the second and fourth hydraulic cylinders (22) and (26) of the second and fourth quadrants (44) and (60), and conversely to the oil pump (10). When the oil pressure is supplied to the second and fourth hydraulic cylinders 22 and 26, the first and third hydraulic cylinders 20 and 24 are compressed.

Increased hydraulic pressure generated by the operation of the lifting force unit 4, the control unit 14, the first, second two-way valve 74, 76, the first, second, third, fourth direction connected to the pipeline Control the switching valves 84, 86, 92, 94 (S40) to supply oil to the hydraulic turbine 8 to supply the A, B, C, D cylinders 78, 88, 80 ( 90 is alternately operated (S50) to rotate the crankshaft 114 (S90) is a facility that makes the power generator 12 to drive power generation (S100).

The present invention, as described through the above preferred embodiment, by using a lifting power unit for converting the mechanical energy, which is the physical force generated by using the principle of seesaw and lever into electrical energy, by rotating the power generation apparatus using a hydraulic turbine It has an excellent effect on obtaining the generated energy by force.

There is an effect that can be applied at a low cost to the power generation facilities of the production site, or the place that requires other power using the above-mentioned lifting power unit and the equipment for generating electrical energy using the hydraulic turbine.

In addition, the construction cost of the power generation facility and the construction of less air is required less construction costs, especially because it has an excellent effect without the generation of resources and pollution is very useful invention in the power generation industry.

Claims (3)

Through the middle of the vertical column, the horizontal support is fixed to the hinge axis so that both ends can be rotated up and down, and the vertical column is different from each other by the same outer and outer diameters and lengths. A lifting force part configured by arranging a plurality of hydraulic cylinder parts; Starting drive unit consisting of the first and second motors for winding the wire connected to both ends of the horizontal support of the lifting force means, forward and reverse rotation; Crank connected to the A, B, C, D cylinder sub-operating forward and backward operation by the supply of oil pressure through a plurality of pipes connected to each of the first, second, third, fourth hydraulic cylinder of the lifting force means A hydraulic turbine generating power through the shaft, A hydraulic pump for pumping oil discharged from the A, B, C, and D cylinder cylinders and stored in the oil tank; A power generation device connected and installed to generate electricity by driving by the power of the hydraulic turbine; Power generation using a two-way hydraulic turbine, characterized in that consisting of a control device that is electrically connected and installed to control the hydraulic pump of the power generator and the first, second drive motor portion, the linear motion portion of the power unit. Device. Turning on the power to sequentially operate the first and second driving motor units (S10); Selectively winding the wire by the operation of the first and second driving motor units to rotate the left and right ends of the horizontal support up and down (S20), (S30) generating a hydraulic pressure by contracting and expanding the first, second, third and fourth hydraulic cylinders by the horizontal support; Controlling the generated hydraulic pressure of the first, second, third and fourth hydraulic cylinders to control the first and second two-way valves and the first, second, third and fourth directional valves (S40); Controlling hydraulic pressure and discharge to the A, B, C, and D cylinder cylinders performing linear reciprocation by controlling the first and second two-way valves and the first, second, third and fourth direction switching valves (S50); , Storing the oil in the oil tank by operation of the A, B, C, and D cylinder cylinders (S60), Supplying and controlling the oil stored in the oil tank to the first, second, third and fourth hydraulic cylinders through a pipe selection valve (S70); Supplying oil to the first, second, third and fourth hydraulic cylinders by the oil pump at the same time as the supply control through the pipe selection valve (S80); Generating power by operating the hydraulic turbine through the crankshaft connected by the operation of the A, B, C, and D cylinder parts of the step (S90), The control method of a power generating apparatus using a lifting power hydraulic turbine, characterized in that the control method of the step (S100) to drive the power generating device to generate power by the power transmitted through the crankshaft of the hydraulic turbine. A first seesaw formed at a predetermined length in the center of the pedestal and hinged so that the left and right ends are pivoted up and down by a plurality of motors, A second seesaw, which is arranged in parallel at a predetermined interval from the first seesaw while the left and right ends are hinged up and down by a plurality of motors; A lifting force part of a federated structure in which a horizontal support is linked at regular intervals on the first and second seesaws while being arranged in the same number on both sides of the first and second seesaws on the left and right sides; The first and second seesaw is composed of a combined lifting power unit including a forward and a reverse motor, which is installed by winding a plurality of wires connected at regular intervals on the left and right sides of the pedestal based on the signal of the control device. A power generating device using a lifting power hydraulic turbine.