KR20010076574A - Power generator - Google Patents

Abstract

PURPOSE: The power generating device is provided to generate power capable of cleanly and safely being used as an energy source for automobile and industrial facilities without exhaustion of pollution by using repulsive force and attractive force of permanent magnet. CONSTITUTION: The power generating device comprises the first housing(10) having specified volume inside, many rotating circle plates(34) longitudinally arranged with constant gap inside of the first housing(10) and formed a hole(32) of a shaft(40) at center, the shaft(40) combined with the hole(32) of the shaft(40) by using key at center, many the first permanent magnets(50) located at the rotating circle plates(34) divided into the first range and the second range, many elevating parts(60) to do line moving vertically using repulsive force and attractive force of the first permanent magnets and the second permanent magnets, many link parts(70) to connected with the tops of the elevating parts(60), many crank shafts(72) to rotate the shaft(40) in the one way direction, the second housing(20) installed at the low side of the first housing(10), a bobbin equipped an armature(84) to connect with an induction coil(82), a field plate(86) located at the outside of the shaft(40), a break plate(90) to fixedly combined with the low side of the shaft(40), a friction plate(92) to control rotation of the shaft(40) contacting with the break plate(90), and a battery(100) to store with current generated from the induction coil(82) according to the rotating operation of the field plate(86).

Description

POWER GENERATOR {POWER GENERATOR}

The present invention relates to a power generating device, and more particularly, by using the magnetic force of the permanent magnet to generate power that can be applied to the energy source of automobiles or various industrial facilities without emitting any pollutants at all. It relates to a generator.

In general, fossil fuels such as coal and petroleum are used as fuels for automobiles and energy sources of various industrial facilities.

In order to obtain energy from such fossil fuels, the fossil fuels must be combusted. In the process of burning fossil fuels, nitrogen oxides (NO _X ), sulfur oxides (SO _X ), and various heavy metals are emitted.

The serious problem is that the substances emitted when burning fossil fuels themselves are pollutants that are harmful to the human body or are converted to substances harmful to the human body by combining with other substances contained in the atmosphere, contaminating the air, water and soil. There is.

In addition, such fossil fuels have a limited amount of reserves and a limited amount of reserves, which is a cause of disputes between countries.

In addition, fossil fuel consumption increases exponentially with the explosive increase in automobiles and industrial facilities around the world, while fossil fuels stored on earth are becoming increasingly depleted. There is a problem of energy shortage.

Accordingly, in recent years, in order to supplement the above-mentioned problems of fossil fuels, major countries of the world have installed power plants using nuclear power and use the energy obtained from them as power sources for various industrial facilities.

However, in this case, the disposal of nuclear waste from nuclear power plants is a serious social problem.

In addition, if a nuclear power plant is mismanaged, as can be seen in the Chernobyl nuclear power plant accidents, many unspecified humans suffer fatal harms, which do not end at that time due to the half-life of nuclear waste. There is a more serious problem of transitioning from generation to generation.

As a result, countries around the world are making efforts to develop alternative energy that can be used cleanly and safely without emitting any pollutants.

An object of the present invention is to create a new type of power that can generate a power that can be used cleanly and safely as an energy source of automobiles or various industrial facilities without emitting any pollution by using the repulsive force and manpower of permanent magnets It is to provide a generator.

1 is a cross-sectional perspective view showing a power generating apparatus according to the present invention,

2 is a front sectional view showing an installation state of a power generating apparatus according to the present invention;

3 is a partially enlarged perspective view illustrating the main part of the present invention;

Figure 4 is a front sectional view showing an operating state of the power generating apparatus according to the present invention.

*** Explanation of symbols for the main parts of the drawing ***

10: first housing 20: second housing

34: rotating disc 40: shaft

44: crank part 50: the first permanent magnet

60: elevating member 62: the second permanent magnet

70 link member 80 bobbin

82: induction coil 84: the armature

86: field 90: brake plate

92: friction plate 100: storage battery.

In order to achieve the above object, the present invention has a first housing having a predetermined size, and provided with a space portion of a predetermined volume therein; A plurality of rotating discs arranged at regular intervals in the longitudinal direction of the first housing and having a axial hole at a center thereof; The key is coupled to the shaft hole formed in the center of each of the rotating disk, the inner end is coupled to rotate in a state protruding to the outside through the bottom surface of the first housing, and in the opposite position at the predetermined position of the outer end A shaft having a plurality of crank portions facing; In the first region (section from 0 to 180 °) of each of the rotating discs divided into two regions by a horizontal or vertical center line, the S pole (or N pole) is installed to be exposed to the upper surface, and the second region ( A plurality of first permanent magnets installed so that the N pole (or the S pole) is exposed to the upper surface in a section from 180 to 0 °; The magnetic pole of the first permanent magnet exposed to the upper surface of the first region and the second region from the inner surface of the first housing and installed at regular intervals between the inner peripheral surface and the outer circumferential surface of each rotating disk, the upper surface of each of the rotating disk. The second permanent magnet having the same magnetic pole as (iii) is installed to protrude, and is moved upward and downward over a certain distance range by the action of repulsive force and attraction force generated between the first permanent magnet and the second permanent magnet. A plurality of lifting members linearly moved to; A plurality of link members connected to an upper end of the elevating member in a state of being installed on the inner circumferential surface of the first housing corresponding to the elevating height of the elevating member; One side end is connected to each crank part formed on the outer end of the shaft, the other end is connected to the link member a plurality of crank shafts to transfer the moving force of the elevating member to the crank to rotate the shaft only in one direction and; A second housing installed under the first housing; A bobbin of a predetermined size installed inside the second housing, having an induction coil wound on an outer circumferential surface thereof, and an armature connected to the induction coil at a predetermined position of the inner circumferential surface; A field piece provided on an outer circumferential surface of the shaft; A third housing mounted below the second housing; A brake plate fixedly coupled to a lower portion of the shaft protruding through the second housing; A friction plate installed at a position spaced a predetermined distance from an outer surface of the brake plate and contacting the brake plate by the action of an external force to control the rotation of the shaft; And a storage battery configured to receive electric current generated from the induction coil in accordance with the rotation operation of the field piece.

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

1 is a cross-sectional perspective view showing a power generating apparatus according to the present invention, Figure 2 is a front sectional view showing an installation state of the power generating apparatus according to the present invention, Figure 3 is a partially enlarged separated perspective view showing the main part of the present invention.

Referring to this, a first housing 10 having a predetermined size and provided with a space having a predetermined volume therein, a second housing 20 mounted below the first housing 10, and the second housing A third housing 30 mounted below the 20 is provided.

In the interior of the first housing 10 has a diameter of a predetermined size in the center, a plurality of rotary disks 34 formed with a shaft hole 32 in the center is arranged at regular intervals along the vertical direction.

The shaft hole 32 formed at the center of each of the rotating disks 34 is fixedly coupled in a state where a single shaft 40 having a predetermined length is fitted. An inner end of the shaft 40 is formed in the first housing 10. And protrudes outward through the bottom surface of the second housing 20 is configured to be inserted into the interior of the third housing 30 to rotate.

In such a configuration, the bearing housing 42 is installed at the portion into which the shaft 40 is fitted, so that frictional resistance during rotational driving can be minimized.

In addition, a plurality of crank parts 44 are formed at the outer ends of the shaft 40 facing in opposite directions.

A plurality of first permanent magnets 50 are provided at the edges of the rotating disks 34 at regular intervals.

At this time, the rotating plate 34 is divided into a first region 36 which is a section ranging from 0 to 180 ° and a second region 38 which is a section ranging from 180 to 0 ° based on a horizontal or vertical center line. do.

In the first region 36, the S pole (or N pole) of the first permanent magnet 50 is disposed to be exposed to the upper surface. In the second region 38, the N pole (or the first permanent magnet 50) is exposed. S pole) is installed to be exposed to the upper surface.

In the space corresponding to the inner circumferential surface of the first housing 10 and the outer circumferential surface of each rotating disc 34, a plurality of lifting members 60 having a predetermined length are installed in the vertical direction.

Magnetic poles of the first permanent magnets 50 exposed from the inner surface of the elevating member 60 toward the upper surfaces of the first and second regions 36 and 38, respectively. The second permanent magnet 62 having the same magnetic pole as) is configured to protrude.

In this configuration, each of the elevating member 60 is over a certain distance range by the action of the repulsion and attraction force generated between the first permanent magnet 50 and the second permanent magnet (62). Linear movement in the vertical direction.

In addition, a guide 12 is installed on the inner circumferential surface of the first housing 10 corresponding to the movement path of the elevating member 60 to stably move the elevating member.

On the other hand, on the inner circumferential surface of the first housing 10 corresponding to the lifting height of the elevating member 60, a plurality of link members 70 are connected to each elevating member.

In addition, between the crank portion 44 and each link member 70 on the shaft 40, the moving force of the elevating member 60 is transmitted to the crank portion 44 so that the shaft 40 rotates in one direction. A plurality of crank shaft 72 is installed so that the lifting member is moved by the repulsive force and the attraction force of the first permanent magnet 50 and the second permanent magnet 62 by the action force of the shaft 40 and The rotating disc 34 is always configured to rotate only in one direction.

Meanwhile, an induction coil 82 is wound around an outer circumferential surface of the second housing 20 mounted below the first housing 10, and a plurality of induction coils 82 are connected to a predetermined position of the inner circumferential surface of the second housing 20. A bobbin 80 of a predetermined size with the armature 84 is installed.

When the field piece 86 is rotated according to the rotation operation of the shaft 40, a plurality of field pieces 86 are installed on the outer circumferential surface of the shaft 40 penetrating the inside of the second housing 20, the armature An electromotive force is generated in the induction coil 82 connected to 84.

On the other hand, the brake plate 90 is fixedly coupled to the end of the shaft 40 that is fitted into the third housing 30, a straight line by the action of an external force at a position spaced apart from the brake 90 plate. While moving, the friction plate 92 which is in close contact with the brake plate 90 and controls the rotation of the shaft 40 is installed.

On the other hand, the battery 100 for accumulating the current generated in the induction coil 82 is installed at a predetermined external location of each housing, the reverse flow of current in the path from the induction coil 82 to the battery 100 A conventional diode for the prevention is installed.

The operation of the present invention made as described above is as follows.

Figure 4 is a front sectional view showing an operating state of the power generating apparatus according to the present invention.

Referring to this, driving of the current generating device according to the present invention is controlled by whether the friction plate 92 is in contact with the brake plate 90 installed at the lower end of the shaft 40.

In the present invention, the force pushing each other between the first permanent magnet 50 exposed on the upper surface of each rotating disk 34 and the second permanent magnet 62 protruding from the elevating member 60 toward the upper surface of the rotating disk. Is generated.

Each lifting member 60 is linearly moved upward by a predetermined distance by the repulsive force between the first permanent magnet 50 and the second permanent magnet 62 generated as described above, and the acting force is the link member 70. It is transmitted to the crankshaft 72 through the shaft 40 is rotated in one direction.

When the rotation disc 34 is rotated in one direction by the above action, the positions of the first region 36 and the second region 38 are continuously changed, and the positions of the first region and the second region are As the repulsive force and the attraction force are generated between the first permanent magnet 50 and the second permanent magnet 62 at every instant of change, the shaft 40 is rotated in one direction while the elevating member 60 is continuously lifted. will be.

That is, the polarity of the first permanent magnet 50 exposed to the upper surface of the first region 36 on the rotating disc 34 in the initial state is the N pole (or S pole), the upper surface of the first region 36 When the second permanent magnet 62 protruding toward the N pole (or S pole), the lifting member 60 is predetermined by the repulsive force between the first permanent magnet 50 and the second permanent magnet 62. Is raised by the height of.

When the elevating member 60 moves in this way, the shaft 40 and the rotation disc 34 rotate in one direction while the link member 70 and the crankshaft 72 are interlocked by the moving force.

On the other hand, when the second region 38 on the rotating disc 34 reaches the position of the first region 36 by the rotation operation of the shaft 40, the first permanently exposed to the upper surface of the second region 38 Since the magnet 50 is the S pole (or N pole), the magnet 50 is lowered again by mutual attraction with the second permanent magnet 62 having the N pole (or S pole).

At this time, the above operation is also performed in the first region 36 moved to the position of the second region 38 on the rotating disk 34.

In addition, the up and down linear movement of the elevating member 60 is made stable by the guide 12, the shaft 40 in a state in which the frictional resistance is minimized by the action of the bearing built in the bearing housing 42 It is rotating.

The elevating operation of the elevating member 60 is continuously made while the rotating disk 34 is rotated, and thus the shaft 40 and the rotating disk 34 are continuously rotated only in one direction.

As a result, the field piece 86 provided on the shaft 40 penetrating the inside of the second housing 20 is rotated in place of the bobbin 80.

When the field piece 86 provided on the shaft 40 is rotated, a magnetic field is formed between the armature 84 and the field piece 86 provided on the inner circumferential surface of the bobbin 80 and at the same time the outer circumferential surface of the bobbin 80. Induction electromotive force is generated in the induction coil (82) wound on.

The electromotive force generated by the induction coil 82 is applied to the storage battery 100, and is stored. If the rectified current is rectified, the electromotive force can be used as energy of an automobile or various industrial facilities.

On the other hand, if the friction plate 92 is brought into close contact with the brake plate 90 when the current generating device is to be stopped in such a driving state as necessary, the rotational operation of the shaft 40 is stopped by the frictional force between them.

Applying the present invention as described above, by using only the repulsive force and manpower of the permanent magnet to obtain the electrical energy applied to all industrial facilities, the problem of environmental pollution is not generated at all.

In addition, the present invention is a very breakthrough technology that can obtain the power that can be applied to automobiles and various industrial facilities instead of fossil fuel is gradually exhausted.

Claims (1)

A first housing 10 having a predetermined size and provided with a space portion having a predetermined volume therein; A plurality of rotating disks 34 arranged at regular intervals in the longitudinal direction of the first housing 10 and having a shaft hole 32 formed at a center thereof; The key is inserted into the shaft hole formed in the center of each of the rotating disks 30, the inner end is coupled to rotate in a state protruding to the outside through the bottom surface of the first housing 10, the predetermined end of the outer end A shaft 40 formed with a plurality of crank parts 44 facing in opposite directions to each other; In the first region (section: 0 to 180 °) of each of the rotating discs 34 divided into two regions by a horizontal or vertical center line, the S pole (or N pole) is installed to be exposed to the upper surface. A plurality of first permanent magnets 50 installed in the second region 38 in a section from 180 to 0 ° to expose the N pole (or the S pole) to an upper surface thereof; It is installed at regular intervals between the inner circumferential surface of the first housing 10 and the outer circumferential surface of each rotating disk 34, and the first region 36 and the second side from the inner side toward the upper surface of the rotating disk 34. A second permanent magnet 62 having the same magnetic pole as that of the first permanent magnet 50 exposed toward the upper surface of the region 38 is installed to protrude and is generated between the first permanent magnet and the second permanent magnet. A plurality of elevating members 60 which are linearly moved upward and downward over a predetermined distance range by the action of the repulsive force and the attractive force; A plurality of link members 70 connected to an upper end of the elevating member 60 in a state in which it is installed on the inner circumferential surface of the first housing 10 corresponding to the elevating height of the elevating member 60; One end is connected to each crank portion 44 formed on the outer end of the shaft 40, the other end is connected to the link member 70 to transfer the moving force of the elevating member 60 to the crank 44 A plurality of crankshafts (72) for transmission so that the shaft (40) rotates in only one direction; A second housing 20 installed below the first housing 10; It is installed inside the second housing 20, the induction coil 82 is wound around the outer peripheral surface for generating induced electromotive force, and the armature 84 is connected to the induction coil 82 at a predetermined position of the inner peripheral surface is provided. A predetermined size bobbin 80; A field piece 86 installed on an outer circumferential surface of the shaft 40 and rotating together with the shaft; A third housing (30) mounted below the second housing (20); A brake plate 90 fixedly coupled to a lower portion of the shaft 40 protruding through the second housing 20; A friction plate 92 installed at a position spaced a predetermined distance from an outer surface of the brake plate 90 to be in close contact with the brake plate 90 by the action of an external force and to control the rotation of the shaft 40; Power storage device, characterized in that it comprises a storage battery 100 for receiving the electric current generated from the induction coil 82 in accordance with the rotation operation of the field piece (86).