KR20240019719A - Generator using the gyroscope - Google Patents

Abstract

The present invention relates to a power generation device using a gyroscope, which includes a rotating body equipped with a support shaft that protrudes in both directions and capable of rotating around the support shaft, and a rotating body in which the support shaft is coupled to form a ring shape surrounding the rotating body. A ring, a coil that surrounds the rotating body in a direction perpendicular to the rotating ring and is integrated with the rotating ring, and the rotating body and the coil are accommodated inside and the rotating ring is rotated in a direction perpendicular to the rotating direction of the rotating body. A gyro module that generates an induced current through electromagnetic induction when the rotating body rotates at a certain speed or higher due to rotational inertia during precession, including a case that does so; An interlocking module including a ring motion axis extending from the case along the axis around which the rotary ring rotates in the opposite direction to which the rotating body is accommodated, and a disc in the shape of a plate, one end of the ring motion axis spaced apart from the case coupled to an edge; A power module capable of rotating the disk through external power; and an electrical supply means capable of supplying the induced current to the outside. Including, as the disk is rotated through the power module in a state where the rotating body is initially rotated at a predetermined speed around the support shaft, the gyro module precesses the car. It relates to a power generation device using a gyroscope, which is characterized in that when an induced current is generated through movement, the generated induced current can be supplied to the outside through an electrical supply means.

Description

Generator using the gyroscope}

The present invention relates to a power generation device using a gyroscope, and particularly to a power generation device using a gyroscope that can produce electrical energy in an environmentally friendly manner.

In general, the gyroball changes the initial direction of rotation when the user rotates the rotating body while holding a case with a rotating body inside and then shakes the case to change the rotation direction of the rotating body in a random direction. The rotational inertia of the rotating body that is being maintained causes the rotating body to undergo precession.

Among these gyroballs, when the rotating body rotates above a certain speed, an induced current is generated through electromagnetic induction to operate the light emitting element provided on the rotating body, and the rotating body continues to rotate above a certain speed. As long as possible, induced current is also continuously generated.

Electric energy can be produced in an environmentally friendly manner by using the principle of a gyroscope that generates an induced current as described above, but related technology has not been developed.

Republic of Korea Patent No. 10-1811958 ‘Gyroball type generator’

The purpose of the present invention is to solve the above problems and to provide a power generation device using a gyroscope that can produce electrical energy in an environmentally friendly manner by continuously rotating the rotating body by precessing the gyro module through external power. there is.

In order to achieve the above object, the present invention, a power generation device using a gyroscope, includes a rotating body that is provided with a support shaft protruding in both directions and can rotate around the support shaft, and a ring shape surrounding the rotating body, This combined rotating ring, a coil that surrounds the rotating body in a direction perpendicular to the rotating ring and is integrated with the rotating ring, and the rotating body and coil are accommodated inside, and the rotating ring is perpendicular to the rotating direction of the rotating body. A gyro module that includes a case that rotates in one direction and generates an induced current through electromagnetic induction when the rotating body rotates at a certain speed or higher due to rotational inertia during precession; An interlocking module including a ring motion axis extending from the case along the axis around which the rotary ring rotates in the opposite direction to which the rotating body is accommodated, and a disc in the shape of a plate, one end of the ring motion axis spaced apart from the case coupled to an edge; A power module capable of rotating the disk through external power; and an electricity supply means capable of supplying the induced current to the outside.

In addition, it further includes a chamber module that has a cylindrical shape and has at least a gyro module and an interlocking module provided therein, wherein the chamber module includes an elastic support member disposed radially while elastically connecting the inner surface of the case and the chamber module. may be provided.

Additionally, the chamber module has a sealed structure and may be in a vacuum state inside.

In addition, the gyro module and the interlocking module are provided symmetrically on both sides with respect to the power module, and the power module can simultaneously rotate the disks included in each of the two interlocking modules.

In addition, the case has a 'ㄷ' shape open toward the inside, and a guide rail that accommodates the edge of the rotating ring so as to be rotatable on the inside is formed along the upper circumference, and the electric supply means is centered around the rotating ring. It may include a brush provided in a direction facing the guide rail, a commutator provided along an edge of a rotating ring adjacent to the brush, and an electric wire whose one end is connected to the brush and the other end is located outside.

According to the present invention, when the gyro module precesses and generates an induced current as the disk is rotated through the power module while the rotating body is initially rotated at a predetermined speed around the support axis, the generated induced current is converted into electricity. It can be supplied externally through a supply means, and it can be used in various fields because it produces environmentally friendly electric energy while the rotor continues to rotate at a certain speed or higher.

1 is a schematic diagram showing a power generation device using a gyroscope according to the present invention according to a first embodiment;
Figure 2 is a plan view showing the gyro module applied to the power generation device using the gyroscope of the present invention;
Figure 3 is a cross-sectional view showing part of the AA cross-section in Figure 2;
Figure 4 is a cross-sectional view showing part of the BB cross-section in Figure 2;
Figure 5 is an enlarged view showing part C in Figure 4;
Figure 6 is a schematic diagram showing a power generation device using a gyroscope according to the present invention according to a second embodiment.

In the present invention, the support shaft is provided so that it protrudes in both directions so that the rotating body can continuously rotate and produce electric energy in an environmentally friendly manner by precessing the gyro module through external power, so that it can rotate around the support shaft. A rotating ring to which a support shaft is coupled while forming a ring shape surrounding the entire rotating body, a coil surrounding the rotating body in a direction perpendicular to the rotating ring and integral with the rotating ring, and the rotating body and the coil inside Including a case that allows the rotating ring to rotate in a direction perpendicular to the rotation direction of the rotating body while being accommodated in the rotating body, when the rotating body rotates above a certain speed due to rotational inertia during precession, an induced current through electromagnetic induction is generated. Gyro module generated; An interlocking module including a ring motion axis extending from the case along the axis around which the rotary ring rotates in the opposite direction to which the rotating body is accommodated, and a disc in the shape of a plate, one end of the ring motion axis spaced apart from the case coupled to an edge; A power module capable of rotating the disk through external power; and an electrical supply means capable of supplying the induced current to the outside. Including, as the disk is rotated through the power module in a state where the rotating body is initially rotated at a predetermined speed around the support shaft, the gyro module precesses the car. We propose a power generation device using a gyroscope, which is characterized in that when an induced current is generated through exercise, the generated induced current can be supplied to the outside through an electrical supply means.

The scope of the present invention is not limited to the embodiments described below, and various modifications may be made by those skilled in the art without departing from the technical gist of the present invention.

Hereinafter, the power generation device using the gyroscope of the present invention will be described in detail with reference to the attached FIGS. 1 to 6.

The power generation device using the gyroscope of the present invention includes a gyro module 100, an interlocking module 200, a power module 300, and an electricity supply means 400, as shown in FIGS. 1 to 6, and the gyro module It is configured to supply the induced current generated in (100) to the outside.

The gyro module 100 includes a support shaft 110, a rotating body 120, a rotating ring 130, a case 140, and a coil 150, as shown in FIGS. 1 and 2. For example, the rotating body 120 may be formed in the shape of a wheel having a predetermined width, and magnets 121 are provided along the circumference of the inner surface. The support shaft 110 is provided to protrude in both directions of the rotating body 120, as shown in FIGS. 2 to 4, and may be provided to penetrate the center of the rotating body 120. Accordingly, the rotating body 120 can rotate around the support shaft 110.

As shown in FIGS. 2 to 4, the rotating ring 130 has a ring shape larger than the maximum radius of the rotating body 120, and both ends of the support shaft 110 protruding in both directions from the rotating body 120 are are combined. Accordingly, the rotating body 120 can be rotated around the support shaft 110 inside the rotating ring 130 without interfering with the rotating ring 130. As shown in FIGS. 2 to 4, the coil 150 is formed in the form of a ring that is larger than the maximum radius of the rotating body 120 and has the same or slightly smaller width, and is installed in a direction perpendicular to the rotating ring 130. 120) and can be integrated with the rotating ring 130. That is, when the rotary ring 130 is rotated, the coil 150 integrated with the rotary ring 130 is also rotated.

The case 140 accommodates the rotating body 120 and the coil 150 inside and allows the rotating ring 130 surrounding the rotating body 120 to rotate in a direction perpendicular to the rotation direction of the rotating body 120. are combined. As an example, the case 140 may be formed in various shapes, but may be formed in a hemispherical shape or a similar shape for convenience of assembly and cost reduction, and will be described below based on this assumption. As shown in FIG. 1, the case 140, which has a hemispherical shape open upward, can be rotatably coupled with a rotating ring 120 at the upper end, and for this purpose, the case 140 is shown in FIGS. 3 to 5. As shown, a guide rail 141 that accommodates the edge of the rotating ring 130 so as to be rotatable on the inside while forming a 'L' shape open toward the inside may be formed along the upper circumference.

As described above, the gyro module 100 is precessed in a state in which the rotating body 120 is initially rotated at a predetermined speed around the support shaft 110, so that the rotating body 120 moves due to rotational inertia. When rotating at a certain speed or higher, an induced current is generated through electromagnetic induction in the coil 150. At this time, the initial rotation of the rotating body 120 can be achieved not only by the user applying external force to the rotating body 120, but also by applying power to the coil 150 by reversely using the electricity supply means 400, which will be described later. You can. When the initial rotation of the rotating body 120 is performed by applying power to the coil 150, the gyro module 100 can be considered to perform the function as a motor while the rotating body 120 is initializing, and the gyro module ( When the rotor 120 rotates at a certain speed or higher while the precession motion 100 is in motion, the power applied to the coil 150 is cut off, and from this point on, the gyro module 100 performs the function of a generator.

The interlocking module 200 and power module 300 in the present invention are configured to automatically precess the gyro module 100 so that the rotating body 120 can continuously rotate at a certain speed or higher.

The interlocking module 200 includes a ring movement axis 210 and a disk 220, as shown in FIG. 1, and the ring movement axis 210 rotates from the case 140 along the axis along which the rotation ring 130 rotates. The entire 120 extends in the opposite direction to which it is accommodated. That is, when the case 140 is in the form of a hemisphere with an open top, the ring movement axis 210 is coupled so that the upper end is integral with the bottom center of the case 140, and is formed along the axis around which the rotating ring 130 rotates. You can. At this time, the ring motion axis 210 is preferably formed to have a length of about twice or more than the maximum diameter of the rotating body 120 to reduce vibration of the gyro module 100 due to precession.

The disk 220 has a plate shape, and one end of the ring motion axis 210 spaced apart from the case 140 (i.e., the lower end of the ring motion axis 210) is coupled to the edge. As an example, the disk 220 is formed in the shape of a disk and is rotatable about the center, and one end of the ring movement shaft 210 may be coupled to the edge of the disk 220 in a ball joint manner. Therefore, when the disk 220 is rotated, the ring motion axis 210, one end of which is coupled to the edge of the disk 220, rotates around an imaginary axis perpendicular to the disk 220 from the center of the disk 220, and the other end The gyro module 100 coupled to is precessed.

The rotating body 120 of the gyro module 100, which performs precession according to the rotation of the disk 220, gradually increases in speed and rotates above a certain speed. At this time, the rotating body 120 rotates above a certain speed. The number means a value greater than the number of rotations of the external power. In addition, on the side of the disk 220 opposite to the point where the ring motion shaft 210 is coupled, a weight 230 is provided to offset the center of gravity and vibration of the rotating body 120 during precession, thereby balancing the force. can be matched.

The power module 300 is configured to rotate the disk 220 through external power. As an example, as shown in FIG. 1, the power module 300 may include a motor 310 that provides rotational force to the disk 220, and the motor 310 is directly coupled to the disk 220 to drive the disk ( 220) can be rotated. As another example, as shown in FIG. 6, the power module 300 includes a motor 310 that provides rotational force to be transmitted to the disk 220, and power that transmits the rotational force generated from the motor 310 to the disk 220. It may include a transmission member 320, and the power transmission member 320 may include various means for transmitting power, such as a bevel gear, a crankshaft, etc.

The electricity supply means 400 is configured to rotate the disk 220 through the power module 300 to supply to the outside the induced current generated as the gyro module 100 precesses. As an example, see Figure 5. As shown, it may include brushes 410, commutators 420, and wires 430. The brush 410 is provided in a direction facing the guide rail 141 with the rotating ring 130 as the center, and the commutator 420 is provided along the edge of the rotating ring 130 adjacent to the brush 410. One end of the wire 430 is connected to the brush 410 and the other end is located outside, and the other end located outside may be connected to a device that consumes or stores electrical energy. Therefore, when the gyro module 100 performs precession and an induced current is generated in the coil 150, the generated induced current flows through the commutator 420, brush 410, and wire 430 of the rotating ring 130. Can be supplied externally.

Meanwhile, the power generation device using the gyroscope of the present invention may further include a chamber module 500 that has a cylindrical shape as shown in FIG. 1 and has at least a gyro module 100 and an interlocking module 200 provided therein. there is. The chamber module 500 is configured so that the components provided therein are as unaffected by external factors (for example, air resistance, etc.) as possible. Additionally, the chamber module 500 may be provided with an elastic support member 510 to allow the gyro module 100 to stably precess within it. As an example, the elastic support member 510 may be composed of an elastic spring, and a plurality of elastic support members 510 may be arranged radially while elastically connecting the inner surface of the case 140 and the chamber module 500. In particular, the elastic support member 510 prevents the gyro module 100 from deviating from a certain orbit during the process of precession by the ring motion axis 210 when the ring motion axis 210 and the disk 220 are coupled to each other using a ball joint. It can play a role of elastic support to prevent damage. In addition, the wire 430 constituting the electric supply means 400 is provided to pass through the inside of the elastic support member 510 when connected to the outside, so that the wire 430 interferes with the precession of the gyro module 100. It is desirable to avoid this.

In addition, the chamber module 500 may be configured to have a sealed structure and a vacuum state inside. As a result, the precession of the gyro module 100 and the rotational movement of the rotating body 120 and the rotating ring 130 within the chamber module 500 can be achieved without air resistance, thereby improving the configuration within the chamber module 500. The energy consumed during this operation can be significantly reduced.

Meanwhile, in order to further reduce energy consumption caused by the imbalance in the arrangement of the gyro module 100, the interlocking module 200, and the power module 300, the gyro module 100 and the interlocking module 200 in the present invention are, As shown in FIG. 6, two may be provided symmetrically on both sides of the power module 300, and in this case, the power module 300 uses a disk 220 included in each of the two interlocking modules 220. It can be configured to rotate simultaneously. For example, the power module 300 may include a motor 310 and a power transmission member 320, and the power transmission member 320 includes a first bevel gear and a first bevel coupled to the shaft of the motor 310. The 2-1 bevel gear is provided to engage with the gear and rotate integrally with the disk 220 of one interlocking module 220, and to engage with the first bevel gear to rotate integrally with the disk 220 of the other interlocking module 220. It may include a 2-2 bevel gear provided. At this time, the power transmitted from the motor 310 by the first bevel gear, the 2-1 bevel gear, and the 2-2 bevel gear may have a large torque while the rotation speed is reduced. Therefore, when the motor 310 is driven, the two symmetrically arranged gyro modules 100 perform a balanced precession, and the energy consumed while facing each other cancels out each other, thereby reducing energy consumption.

As described above, the power generation device using the gyroscope of the present invention rotates the disk 220 through the power module 300 in a state in which the rotating body 120 is initially rotated at a predetermined speed around the support shaft 110. When the gyro module 100 performs a precession motion according to the command and generates an induced current in the coil 150, the generated induced current can be supplied to the outside through the electricity supply means 400, and the rotating body 120 It can be used in various fields because it produces environmentally friendly electrical energy while rotating continuously above a certain speed.

100: Gyro module 110: Support axis
120: rotating body 121: magnet
130: Rotating ring 140: Case
141: guide rail 150: coil
200: Link module 210: Ring movement axis
220: Disk 230: Weight
300: Power module 310: Motor
320: Power transmission member
400: Electricity supply means 410: Brush
420: commutator 430: wire
500: Chamber module 510: Elastic support member

Claims (5)

The support shaft 110 is provided to protrude in both directions and includes a rotating body 120 that can be rotated around the supporting shaft 110, and a ring shape surrounding the rotating body 120. A rotating ring 130 that is coupled, a coil 150 that surrounds the rotating body 120 in a direction perpendicular to the rotating ring 130 and is integrated with the rotating ring 130, the rotating body 120, and It includes a case 140 that accommodates the coil 150 inside and allows the rotating ring 130 to rotate in a direction perpendicular to the rotation direction of the rotating body 120, and as the precession occurs, the rotating body is rotated by rotational inertia. A gyro module (100) that generates an induced current through electromagnetic induction when (120) rotates above a certain speed;
A ring motion shaft 210 extending from the case 140 along the axis along which the rotary ring 130 rotates in the opposite direction to which the rotating body 120 is accommodated, and a ring motion axis 210 that forms a plate shape and extends from the case 140 among the ring motion shafts 210. An interlocking module 200 including a disk 220 whose ends are spaced apart and coupled to an edge;
A power module 300 capable of rotating the disk 220 through external power; and
Including an electric supply means 400 capable of supplying the induced current to the outside,
As the rotating body 120 initially rotates at a predetermined speed around the support shaft 110 and the disk 220 is rotated through the power module 300, the gyro module 100 performs a precession motion. A power generation device using a gyroscope, characterized in that when an induced current is generated, the generated induced current can be supplied to the outside through the electricity supply means (400). According to paragraph 1,
It further includes a chamber module 500 that has a barrel shape and has at least a gyro module 100 and an interlocking module 200 therein,
The chamber module 500 is a power generation device using a gyroscope, characterized in that it is provided with an elastic support member 510 arranged radially while elastically connecting the inner surface of the case 140 and the chamber module 500. . According to paragraph 2,
The chamber module 500 is a power generation device using a gyroscope, characterized in that it has a sealed structure and the inside is in a vacuum state. According to paragraph 1,
The gyro module 100 and the interlocking module 200 are provided symmetrically on both sides with respect to the power module 300,
The power module 300 is a power generation device using a gyroscope, characterized in that it can simultaneously rotate the disks 220 included in each of the two interlocking modules 220. According to paragraph 1,
The case 140 forms a 'L' shape open toward the inside, and a guide rail 141 on which the edge of the rotary ring 130 is accommodated so as to be rotatable on the inside is formed along the upper circumference,
The electric supply means 400 includes a brush 410 provided in a direction facing the guide rail 141 around the rotating ring 130, and an edge of the rotating ring 130 adjacent to the brush 410. A power generation device using a gyroscope, comprising a commutator 420 provided along and an electric wire 430, one end of which is connected to the brush 410 and the other end of which is located externally.

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