KR102554068B1 - Rotational Energy Conversion - Google Patents

Abstract

The present invention relates to a rotational energy conversion device, and more particularly, is installed in all machines and structures that require rotational force, and converts the outputted rotational force in a logarithmic manner using a repulsive force generated from a rotating magnetic field to achieve high rotational power. It relates to a rotational energy converter that provides.

Description

Rotational Energy Conversion Device {Rotational Energy Conversion}

The present invention relates to a rotational energy conversion device, and more particularly, is installed in all machines and structures that require rotational force, and converts the outputted rotational force in a logarithmic manner using a repulsive force generated from a rotating magnetic field to provide efficient rotational power. It relates to a rotational energy converter that provides.

In general, various rotating devices including generators transmit the power required for rotational operation through fuel and energy such as electricity, hydroelectric power, wind power, fossil fuel, and nuclear power, and generate and produce energy through the generated rotational force or power of vehicles and aircraft. It is used as a necessity in accordance with various environmental factors.

In recent years, carbon neutrality policies have been implemented worldwide to prevent global warming, thereby regulating carbon emissions.

Accordingly, various technologies that can be applied to transportation and energy-related fields such as transportation means using eco-friendly energy, flight means and drones, ships and aerospace are required.

In order to generate energy and power in these related fields, a rotating device is essentially installed to generate and transmit power or produce energy through rotational force.

Therefore, technologies capable of efficiently using the rotational force through various methods are being developed when transmitting the rotational force.

As such technologies, technologies such as self-power generation and regenerative braking that can efficiently use energy wasted during transmission of rotational force and technologies such as amplification devices that save energy by amplifying rotational force have been developed.

At this time, the amplification device is made to generate electricity through a permanent magnet and an electromagnet to be used as driving energy.

As such a prior art, a Korean registered patent "power amplification device using magnetic force" has been proposed.

The prior art is for transferring rotational force transmitted from a power source to a specific external device, and by using force due to magnetic force multiple times to improve output output to the outside and at the same time reduce energy consumption of the power source. It relates to a power amplifier using magnetic force, which has a characteristic that enables

That is, in the prior art, the power output to the output shaft can be amplified by greatly increasing the rotational force of the output rotational body by magnetic force due to the frequent approach and distance between magnetic bodies due to eccentric rotation.

However, in the prior art, there is a limit to the energy amplified as the drive rotating body rotates eccentrically through the power source to rotate the output rotating body, and smooth rotation is difficult when the friction and load applied to the output rotating body are large.

In addition, since the direction of rotation cannot be changed, the use of various mechanical devices, power devices, and transportation devices is limited.

In addition, since the power of the power source is transmitted to a plurality of driving rotating bodies, the volume is increased, resulting in a lot of installation restrictions, and there is a problem in that energy loss occurs when the power of the power source is transmitted to the driving rotating body.

Korean Patent Registration No. 10-1809640 (2017.12.11.)

The present invention has been made to solve the above problems, to provide a rotational energy conversion device capable of converting the output generated by installing in various devices such as industrial machines, vehicles, drones, etc. that generate output through rotational force there is

Another object of the present invention is to provide a rotational energy converter that can efficiently maintain rotational speed through converted output or store converted energy and use it in various ways.

Another object of the present invention is to convert the output to maintain an efficient output to save energy used, power source output The aim is to provide a rotational energy converter that can be widely used through a variety of efficient designs.

Another object of the present invention is to provide a rotary energy converter capable of controlling and adjusting the converted output by designing various diameters, numbers, etc. according to the purpose of use.

Another object of the present invention is to provide a rotational energy converter that can convert output in a narrow space and efficiently apply it to various mechanical elements.

The present invention for achieving the above object is a rotational energy conversion device coupled to a rotational shaft generating rotational force and converting rotational force through a repulsive force, a center magnet formed on the rotational shaft, and a magnet opposite to the center magnet It is characterized in that it is made of a sub-magnet that is in close contact with the outer circumferential surface of the central magnet and converts the rotational force through a repulsive force generated by rotation by the rotational force of the central magnet.

A plurality of sub-magnets are arranged at regular intervals on the outer circumferential surface of the central magnet so that the repulsive force generated by the rotational force It is preferable to reduce losses due to normal drag and rolling friction by converting the rotational force of the central magnet and repulsive force generated between the adjacent sub-magnets and the sub-magnets.

The sub-magnet,

It is preferable to have the same diameter as the central magnet or a smaller diameter.

A first accelerating magnet having the same magnetism as that of the central magnet, disposed in a ring shape in close contact with the outer circumferential surface of the sub-magnet, receiving rotational force of the sub-magnet and generating a repulsive force by rotating about the center of the central magnet; It is preferable to include a second acceleration magnet that has the same magnetism as the sub-magnet and is placed in close contact with the outer circumferential surface of the first acceleration magnet to generate a repulsive force by receiving rotational force of the first acceleration magnet and rotating.

A support case in which a power source for transmitting rotational force to the rotating shaft is installed, and a plurality of first insertion grooves arranged in a ring shape on the outer circumferential surface of the central magnet and spaced apart at regular intervals therein, into which the sub-magnets are rotatably installed, are formed. A first rotating case and a second insertion groove are formed on the outer circumferential surface of the first rotating case in a ring shape so as to be rotatable, and the first accelerating magnet is installed therein, forming a ring shape on the outer circumferential surface of the first rotating case. A rotating second rotating case, and a plurality of third insertion grooves arranged in a ring shape to be rotatable on an outer circumferential surface of the second rotating case, spaced apart at regular intervals, and into which the second acceleration magnets are rotatably installed. It is preferable to consist of a formed third rotation case.

According to the rotational energy converter according to the present invention, the rotational force is converted through the repulsive force generated when the central magnet and the sub-magnet receiving the rotational force rotate, efficiently maintaining the rotational speed and storing the energy of the converted rotational force to be used in various ways. There are possible effects.

According to the present invention, since rotational force can be converted, it has the advantage of maintaining high efficiency with little energy by easily applying it to various devices and machines such as industrial machines, vehicles, and drones that generate output through efficient maintenance of rotational force. there is.

According to the present invention, there is an advantage in that the installation space can be efficiently used through the volume and design by efficiently using the space through a configuration that is easily installed on the outer circumferential surface of the rotating shaft.

According to the present invention, there is an effect of having an efficient conversion effect according to the use and purpose by controlling and adjusting the energy converted through the diameter ratio and number of the central magnet and the sub-magnet.

According to the present invention, There is an advantage in that energy can be saved by efficiently maintaining the output by converting the output generated from the power source, and cost can be reduced by using a power source lower than the required output.

According to the present invention, It has the advantage of being able to convert the output, which saves energy, and can be used for a long time when power is supplied through a battery that supplies a limited capacity.

Another object of the present invention is to have an effect of efficiently maintaining energy by converting a repulsive force transmitted to a central magnet through a structural arrangement such as first and second accelerating magnets.

1 is a conceptual diagram showing a rotational energy converter according to the present invention;
2 is a conceptual diagram showing the force acting between the central magnet and the sub-magnet in a stationary state according to the present invention;
3 is a conceptual diagram showing the force acting between the central magnet and the sub-magnet in a rotating state according to the present invention;
4 is a graph showing the conversion state of the rotation speed according to the number of rotations according to the present invention;
5 is a conceptual diagram showing a state in which a plurality of sub-magnets are arranged according to the present invention;
6 is a conceptual diagram showing normal force and rolling friction between sub-magnets according to the present invention;
7 is a conceptual diagram showing a state in which a plurality of sub-magnets are arranged according to the size of the present invention;
8 is a graph showing the speed and energy ratio according to the diameter ratio between the central magnet and the sub-magnet according to the present invention;
9 is a graph showing the energy ratio according to the diameter ratio and number of the center magnet and the sub-magnet according to the present invention;
10 is a conceptual diagram showing first and second accelerating magnets according to the present invention;
11 is a perspective view showing a case according to the present invention;
12 is a cross-sectional view showing a state in which each magnet is installed in a case according to the present invention;
13 is a photograph showing a seal product according to the present invention;
14 is an operation diagram showing a rotational state of a magnet installed in a case according to the present invention.

Hereinafter, a rotational energy converter according to the present invention will be described in detail along with the accompanying drawings.

1 is a conceptual diagram showing a rotational energy conversion device according to the present invention, FIG. 2 is a conceptual diagram showing a force acting between a central magnet and a sub-magnet in a stationary state according to the present invention, and FIG. 3 is a rotation according to the present invention It is a conceptual diagram showing the force acting between the central magnet and the sub-magnet in the state, Figure 4 is a graph showing the conversion state of the rotational speed according to the number of rotations according to the present invention, Figure 5 is a plurality of sub-magnets according to the present invention 6 is a conceptual diagram showing the normal drag and rolling friction between the sub-magnets according to the present invention, and FIG. 7 is a conceptual diagram showing the arrangement of a plurality of sub-magnets according to the size of the 8 is a graph showing the speed and energy ratio according to the diameter ratio between the center magnet and the sub-magnet according to the present invention, and FIG. 9 is the diameter ratio between the center magnet and the sub-magnet according to the present invention. It is a graph showing the energy ratio according to the number, Figure 10 is a conceptual diagram showing the first and second accelerating magnets according to the present invention, Figure 11 is a perspective view showing a case according to the present invention, Figure 12 is the present invention 13 is a photograph showing a seal product according to the present invention, and FIG. 14 is an operating diagram showing the rotation state of the magnet installed in the case according to the present invention. .

As shown in FIGS. 1 to 14, the present invention relates to a rotational energy converter, and more particularly, to a rotational energy converter installed in all machines and structures requiring rotational force to generate rotational force output using a repulsive force generated from a rotating magnetic field. It relates to a rotational energy converter that maintains an efficient rotational force by converting it in a logarithmic manner.

To this end, the present invention is composed of a central magnet 10 and a sub-magnet 20 so that the rotational force can be converted through a repulsive force by being coupled to the rotational shaft 1 generating rotational force.

The central magnet 10 is formed on the rotating shaft 1.

The sub-magnet 20 is adhered to the outer circumferential surface of the central magnet 10 by a magnet opposite to that of the central magnet 10, and rotates by the rotational force of the central magnet 10 to generate rotational force through a repulsive force. keep it efficient

Therefore, the central magnet 10 is coupled to the circumference of the rotating shaft 1 in a cylindrical shape.

The sub-magnet 20 is formed in a cylindrical shape that is in close contact with the outer circumferential surface of the central magnet 10 by magnetism, and the central axis of the central magnet 10 and the central axis of the sub-magnet are disposed parallel to each other.

In addition, when the central magnet 10 has N-pole magnetism, it is preferable that the sub-magnet 20 is composed of S-pole magnetism and has mutually different poles.

Through this, the center magnet 10 rotates together with the rotation shaft 1 and rotates the closely attached sub-magnet 20 by manpower.

At this time, when the sub-magnet 20 rotates in the opposite direction of the central magnet 10 and increases at a constant speed, a repulsive force may be generated to convert the rotational speed of the central magnet 10 .

Accordingly, the action of the force on the magnetic dipoles of the central magnet 10 and the sub-magnet 20 will be examined through mathematical principles.

Therefore, as shown in FIG. 2, a force acting between magnetic dipoles in a stationary state is generated.

, 쌍극자 m₁의 각도를 α, 쌍극자 m₂의 각도를 β라고 할 때, 이 둘 사이에 작용하는 힘은 일반적으로,That is, if two magnetic dipoles are raised above the space, the distance r between the two dipoles and the angle between them based on the x-axis are

, when the angle of dipole m ₁ is α and the angle of dipole m ₂ is β, the force acting between the two is generally

It is expressed as [Equation 1] and [Equation 2].

방향으로 돌리는 힘(

)이 작용한다. Therefore, in the direction of the distance between these two dipoles, the same force (F _r ) as in [Equation 1] acts, and the dipole m ₁ as in [Equation 2]

force turning in the direction (

) works.

Through this, it is possible to confirm the action of the force between the dipoles that occurs in the state of being placed on the space in the stationary state.

And, as shown in FIG. 3, when the center magnet 10 and the sub-magnet 20 rotate in the dipole direction, a force acting between the dipoles is generated.

Therefore, the center magnet 10 has N-pole magnetism on the outer surface of the radius R, and the sub-magnet 20 has S-pole magnetism on the outer surface of the radius R', so that the center magnet 10 and the sub-magnet ( 20), they come into contact with each other due to the action of attraction.

로 회전시키면, 상기 서브자석(20)은 반대방향의 각속도

로 회전한다.At this time, the angular velocity of the central magnet 10

When rotated as , the sub-magnet 20 has an angular velocity in the opposite direction

rotate with

방향 힘)을 분석하였다.In this way, when the central magnet 10 and the sub-magnet 20 rotate in opposite directions, the distribution of the magnetic field created around the central magnet 10 is analyzed, and the sub-magnet existing in the magnetic field space is analyzed. (20) The rotational force received by the magnetic dipole for each position in the magnet (spherical coordinate system

directional force) was analyzed.

Prior to this, the vectors as shown in FIG. 3 to describe the analysis are made as follows.

의 위치벡터를

로 표시하고 구면좌표계를 사용하여 표현하였다.[Equation 3] is a magnetic dipole placed at a specific position of a magnet having a radius R of the central magnet 10

the position vector of

, and expressed using a spherical coordinate system.

의 위치벡터를

로 표현하였다.[Equation 4] is a magnetic dipole placed at a specific position of a magnet having a radius R 'of the sub-magnet 20 through the same method as [Equation 3].

the position vector of

expressed as

이라고 가정하였고, 상기 중심자석(10)과 상기 서브자석(20)의 중심까지의 위치벡터

를 표현하였다.[Equation 5] calculates the distance between the central positions of the central magnet 10 and the sub-magnet 20.

It was assumed that the position vector to the center of the central magnet 10 and the sub-magnet 20

expressed.

,

,

를 바탕으로 각각의 자석 위에서 회전하고 있는 상기 중심자석(10)과 상기 서브자석(20)의 자기쌍극자

과

사이의 변위

로 표현된다.[Equation 6] is a vector set through Equations 3 to 5 described above.

,

,

The magnetic dipoles of the central magnet 10 and the sub-magnet 20 rotating on each magnet based on

class

displacement between

is expressed as

가 만드는 자기장

로 표현된다.[Equation 7] is the magnetic dipole in the space of the central magnet 10

magnetic field created by

is expressed as

At this time, since it means a point away from the dipole as shown in s of FIG. 3 in [Equation 7],

이 상기 서브자석(20)의 쌍극자

의 위치에 만든 자기장

을 기술된다.As shown in [Equation 8], the dipole of the central magnet 10

The dipole of the sub-magnet 20

magnetic field created at the location of

is described

의 위치에 만든 [수학식 8]의 자기장

에 공간적분을 통해 도출할 수 있다.[Equation 9] shows that the central magnet 10 is a dipole

The magnetic field of [Equation 8] made at the position of

can be derived through spatial integration.

의 자기장으로 표현할 수 있으며, 이때, 상기 중심자석(10)과 상기 서브자석(20)이 서로 어긋나 결합되지 않으면, Br은 0이므로,

와 같이 도출된다.Through this, the center magnet 10 and the sub magnet 20

It can be expressed as a magnetic field of . At this time, if the central magnet 10 and the sub-magnet 20 are not displaced and coupled, Br is 0, so

is derived as

In addition, the magnetic field acts only on the θ direction component. Approximating this situation, it can be calculated by setting θ = 90° and θ’ = 90°.

Therefore, in order to solve the triple integral equation of [Equation 9], by using Taylor expansion variables and approximation equations such as cubic approximation several times,

A magnetic field such as [Equation 10] can be obtained.

At this time, the magnetic field of the center magnet 10 can check the force applied to the dipole of the center magnet 10 through volume integration.

은 [수학식 11]과 같이 표현되며,and

is expressed as in [Equation 11],

가 받는 자기력

의

방향 성분 힘, 즉 상기 중심자석(10)의 회전방향으로 작용하는 힘을

라고 하고 상기 중심자석(10)과 상기 서브자석(20)의 중심위치가 하나의 평면 위에 있을 때,[Equation 12] is the dipole from the magnetic field

magnetic force received by

of

The directional component force, that is, the force acting in the rotational direction of the central magnet 10

And when the central positions of the central magnet 10 and the sub-magnet 20 are on one plane,

가 기술된다.As in [Equation 13]

is described

는

에 대한 미분을 의미한다.In addition, [Equation 13] calculates various variables such as the pie direction,

Is

means the derivative of

Through this, the angular velocity of the central magnet 10 and the sub-magnet 20 continuously rises while the force applying the rotational force of the rotating shaft 1 is applied, and thus the rotational output of the rotating central magnet 10 are maintained efficiently.

는 시간에 따라 증가하는 위상으로,

의 함수로 나타나게 하는 변수이다.[Equation 14]

is the phase that increases with time,

It is a variable that appears as a function of .

는 점차 감소하여 회전속도가 증가량이 점차 줄어들게 된다.Therefore, as the time when the rotation of the rotating shaft is stopped passes and as time continues,

is gradually reduced, so that the rotational speed increases gradually.

가 거의 0인 상황에서 상기 회전축(1)에 추가적인 에너지 공급이 중단되면, 상기 중심자석(10)은 구름마찰력으로 인한 에너지 손실로 속도가 천천히 줄어들다가 멈추게 된다.In addition, as time passes, the rotation of the central magnet 10

If the supply of additional energy to the rotating shaft 1 is stopped in a situation where is almost 0, the center magnet 10 slows down slowly due to energy loss due to rolling friction and then stops.

Therefore, as shown in FIG. 4, the rotational speed according to the angular velocity of the central magnet 10 and the sub-magnet 20 was measured as follows.

First, the center magnet 10 is formed in a circular shape with a radius of 3 cm, and the sub-magnet 20 is formed in a radius of 2 cm. The rotational force and rotational speed of the center magnet 10 were confirmed.

As a result, it appeared as shown in FIG. 4 .

That is, it can be confirmed that it is driven at the initial speed of 18.85 m/s, 200 Hz, and 12,000 RPM supplied by the power source 2 for a certain period of time, and then operated at about 107.66 m/s, 1,142 Hz, and 68,537 RPM after one minute has elapsed. can

Therefore, it can be seen that the rotational speed of the rotating shaft 1 increases by about 5.7 times for 1 minute, and the rotational speed increases as the duration of the rotational force increases.

This is proportional to the square of the velocity because kinetic energy is mv ² /2.

와 같이 추가적으로 더 얻어지게 된다.Therefore, if the center magnet 10 and the sub-magnet 20 are not used and the additional rotational force is not received, the kinetic energy (mv _c ² /2), and the increased speed by receiving the rotational force is v, the increased kinetic energy is

As such, additionally more are obtained.

Through this, the additionally generated rotational energy can be converted and stored in a battery or the like to be used for various purposes. energy can be produced and utilized.

In addition, a plurality of sub-magnets 20 are arranged at regular intervals on the outer circumferential surface of the center magnet 10 to increase the repulsive force generated by the rotational force to convert the rotational force of the center magnet 10, and the adjacent sub-magnets ( 20) and the repulsive force generated between the sub-magnets 20 can reduce losses due to normal drag and rolling friction.

A plurality of the sub-magnets 20 may be arranged according to the outer circumferential surface of the central magnet 10 .

Therefore, when one center magnet 10 and a plurality of sub-magnets 20 engage and rotate, more rotational force than is converted through one sub-magnet 20 can be converted.

In addition, when the rotational force of the center magnet 10 is converted, the sub-magnets 20 are converted by the converted rotational force, so that the energy conversion effect can additionally increase in proportion to the number of the sub-magnets 20 .

That is, as shown in FIG. 5 , a plurality of sub-magnets 20 are disposed at regular intervals on the outer circumferential surface of the central magnet 10 .

At this time, as shown in (a) and (b) of FIG. 5 , adjacent sub-magnets 20 and 20 are prevented from coming into close contact and rotated by the center magnet 10 .

In addition, various numbers of sub-magnets 20 shown in (a) and (b) of FIG. 5 may be installed.

Through this, the plurality of sub-magnets 20 disposed around the central magnet 10 rotate by the rotational force of the central magnet and convert the rotation of the central magnet through a repulsive force.

At this time, the rotational force of the central magnet 10 can be efficiently converted in proportion to the number of the sub-magnets 20 .

In addition, since the rotational direction and polar direction of each of the sub-magnets 20 are the same, the power and speed can be changed by increasing the upper limit of the mutually rotating force.

Therefore, as shown in (b) of FIG. 5 rather than (a) of FIG. 5, the more sub-magnets 20 are disposed, the more efficiently the speed and rotational output can be converted, and the distance between the sub-magnets 20 decreases to rotate. can receive a large force between the sub-magnets 20.

가 크게 작용한다.That is, as the distance between the sub-magnets 20 narrows, the repulsive force generated from the sub-magnets 20 is strongly acted on, so that the gap between the sub-magnets 20 and the sub-magnets 20

has a big effect

Through this, when the repulsive force between the sub-magnets 20 increases, loss generated during rotation due to magnetic inertia when rotating can be reduced.

That is, the deceleration can be slowed down by pushing each other between the sub-magnets 20, and the time for sustaining high-powered rotation can be improved because the sub-magnets 20 have a large inertia that pushes each other according to the direction of rotation.

Accordingly, as shown in FIG. 6, in a state where a plurality of sub-magnets 20 are disposed, normal drag and rolling friction can be reduced through repulsive force generated between the sub-magnets 20 and the sub-magnets 20. there is.

와 같이 도출되며, 구름마찰력

는

와 같이 도출된다.That is, as shown in FIG. 6, the normal force Fg generated between #1 and #2 and #2 and #3 of the sub-magnets 20 is

It is derived as, rolling friction

Is

is derived as

where k is the coefficient of rolling friction.

Through this, a repulsive force acts between the adjacent sub-magnets 20 to reduce the normal drag force, thereby finally reducing the rolling friction force.

At this time, if the rolling frictional force is reduced, the final terminal speed can be increased by receiving the rotational force of the sub-magnet 20 for a long time, and high output can be maintained continuously by reducing loss due to friction.

And, the sub-magnet 20 has the same diameter as the central magnet 10 or a smaller diameter.

That is, as shown in (a) of FIG. 7, the sub-magnet 20 having the same diameter as the center magnet 10 is disposed, and as shown in (b) to (i) of FIG. 7, the center magnet The sub-magnet 20 having a smaller diameter than (10) is disposed.

At this time, it is preferable that the sub-magnets 20 be arranged in multiples rather than singly to improve conversion energy.

In addition, a plurality of sub-magnets 20 are disposed on the outer circumferential surface of the central magnet according to the diameter, and as the diameter of the sub-magnet 20 decreases, a larger number can be disposed on the outer circumferential surface of the central magnet 10 .

This is because, as the area of the outer circumferential surface of the central magnet 10 is limited, the area occupied by the sub-magnet 20 increases as the diameter of the sub-magnet 20 increases and the number decreases. number can be placed.

Through this, when the diameter of the center magnet 10 is 3 cm, the diameter of the sub magnet 20 can be changed from 3 cm to 3 mm as shown in (b) to (i) of FIG. 7 .

In addition, forming the center magnet 10 and the sub magnet 20 in the same size can have the best conversion effect, and the use and conversion energy can be adjusted and controlled through a change in the diameter of the sub magnet 20. can

In addition, when the energy magnification is calculated in consideration of the sub-magnet 20, more energy can be converted as the radius ratio between the central magnet 10 and the sub-magnet 20 increases.

Through this, it can be confirmed that the more the sub-magnets 20 have the same diameter as the central magnet 10 and are arranged more, the more the energy ratio is converted.

Therefore, the central magnet 10 and the sub-magnet 20 can be designed by deriving them through [Equation 13] so that the desired conversion energy can be generated by adjusting the diameter ratio and the number of the sub-magnets 20. do.

In addition, the rotational speed and the amount of energy conversion can be designed according to the use and purpose in consideration of the physical properties of the central magnet 10 and the sub-magnet 20 and the strength of the magnet.

At this time, the center magnet 10 and the sub-magnet 20 can be properly designed according to constraint conditions such as rotation speed, magnet melting point, abrasion resistance, magnetic retention, and temperature.

In addition, conversion energy can be improved through the first acceleration magnet 30 and the second acceleration magnet 40 so as to have a multi-layered structure on the outer circumferential surface of the sub-magnet 20 .

The first accelerating magnet 30 has the same magnetism as the central magnet 10, is arranged to have a ring shape in close contact with the outer circumferential surface of the sub magnet 20, and receives the rotational force of the sub magnet 20. A repulsive force is generated by rotating about the center of the central magnet.

That is, the first acceleration magnet 30 restrains magnets of various shapes in a ring shape and arranges them on the outer circumferential surface of the first acceleration magnet 30 .

Therefore, when the sub-magnet 20 rotates, the first acceleration magnet 30 can rotate.

The second acceleration magnet 40 has the same magnetism as the sub-magnet 20, and is arranged to be in close contact with the outer circumferential surface of the first acceleration magnet 30 to receive rotational force from the first acceleration magnet 30 and rotate. thereby generating a repulsive force.

The second acceleration magnet 40 is disposed on the outer circumferential surface of the first acceleration magnet 30 and has the same configuration as the sub-magnet 20 .

Therefore, the first and second accelerating magnets 40 have a structure in which more magnets can be placed as the number of sub-magnets 20 that can be placed on the outer circumferential surface of the central magnet 10 is limited.

Here, a ring magnet or a plurality of first accelerating magnets 30 are configured to rotate in a ring shape so that they can rotate in the same configuration as the central magnet 10 through the sub-magnet 20 .

That is, as the first accelerating magnet 30, a single ring-shaped magnet or a plurality of cylindrical magnets may be arranged in a ring shape.

Therefore, the first acceleration magnet 30 rotates by receiving the rotational force of the sub-magnet 20 to rotate the second acceleration magnet 40 .

At this time, the second acceleration magnet 40 converts the rotational force of the first acceleration magnet 30 through the same configuration as the sub-magnet 20, and the converted first acceleration magnet 30 converts the rotational force of the sub-magnet 30. (20) can be converted to efficiently maintain the speed.

In this way, the first acceleration magnet 30 and the second acceleration magnet can be expanded to have a multi-layered structure according to the change in diameter.

Accordingly, the output of the center magnet 10 can be converted by arranging the center magnet 10 and the sub magnet 20 in a multi-layered manner according to the space extending to the outer circumferential surface in consideration of the diameter ratio of the center magnet 10 and the sub magnet 20 .

Next, the central magnet 10, the sub-magnet 20, the first acceleration magnet 30, and the second acceleration magnet 40 can be protected and arranged so that they can rotate according to the configuration described above. It consists of a support case 50, a first rotation case 60, a second rotation case 70, and a third rotation case 80.

The support case 50 is provided with a power source 2 that transmits rotational force to the rotary shaft 1 .

Therefore, the support case 50 is provided with the power source 2 therein, and the power source 2 is formed or connected to the rotational shaft 1 to transmit rotational force.

At this time, the central magnet 10 is formed on the rotating shaft 1.

In addition, it is preferable that the support case 50 is stably fixed in various positions according to the purpose of installation to prevent shaking and vibration occurring when the power source 2 and the rotating shaft 1 rotate.

The first rotating case 60 is arranged in a ring shape on the outer circumferential surface of the central magnet 10, and a plurality of first insertion grooves ( 61) is formed.

The first rotating case 60 is arranged to surround the outer circumferential surface of the central magnet 10 through a ring shape, and a plurality of them are formed at regular intervals in the same axial direction as the rotation shaft 1 inside the ring shape. Thus, the first insertion groove 61 into which one or a plurality of the sub-magnets 20 are inserted is formed.

At this time, the first insertion groove 61 opens toward the inner or outer circumferential surface to expose the disposed sub-magnet 20, so that the center magnet 10 and the first acceleration magnet 30 may be in close contact with each other. .

In addition, it is preferable to design the diameter and number of the first insertion grooves 61 according to the diameter ratio of the central magnet 10 and the sub magnet 20 .

In addition, when only the central magnet 10 and the sub-magnet 20 are disposed, only the support case 50 and the first rotating case 60 are provided so that the central magnet 10 and the sub-magnet 20 ) can be protected rotatably.

Further, it is preferable to additionally install a bearing or the like in the first insertion groove 61 to reduce frictional force when the sub-magnet 20 rotates in the first insertion groove 61 .

The second rotating case 70 is disposed in a ring shape so as to be rotatable on the outer circumferential surface of the first rotating case 60, and has a second insertion groove 71 in which the first accelerating magnet 30 is installed. formed and rotates in a ring shape on the outer circumferential surface of the first rotating case 60.

Accordingly, the second rotating case 70 rotates through the sub-magnet 20 and the first accelerating magnet 30, and the rotating ring shape rotates along the central axis of the central magnet 10.

At this time, the plurality of second insertion grooves 71 are arranged at regular intervals, and the first acceleration magnet 30 is fixedly installed to form a ring shape, or the first acceleration magnet 30 having a ring shape is It is made in various shapes so that it can be inserted and fixed.

The third rotation case 80 is arranged in a ring shape to be rotatable on the outer circumferential surface of the second rotation case 70, and is spaced apart at regular intervals on the inside so that the second acceleration magnet 40 is rotatably installed. A plurality of third insertion grooves 81 are formed.

The third rotating case 80 has the same configuration as the first rotating case 60, but is made so that the second acceleration magnet 40 can rotate on the outer circumferential surface of the second rotating case 70. .

In addition, the second rotating case 70 and the third rotating case 80 may be added or removed depending on whether the first and second accelerating magnets 30 and 40 are installed.

Through this, the center magnet 10 and the sub-magnet 20 are formed through the support case 50, the first rotation case 60, the second rotation case 70, and the third rotation case 80. , The first acceleration magnet 30 and the second acceleration magnet 40 are stably supported and rotated to enable energy conversion.

In addition, the first to third insertion grooves 61, 71, and 81 are formed according to the diameter and number of the sub-magnet 20 and the first and second accelerating magnets 30 and 40 and a fixed and rotatable design. it is desirable to be

In addition, the support case 50, the first rotation case 60, the second rotation case 70, and the third rotation case 80 include the center magnet 10, the sub magnet 20, It is made of a hard material such as carbon that withstands the rotational force of the first acceleration magnet 30 and the second acceleration magnet 40, and electricity does not flow, and the thickness, material, etc. that can prevent shock and damage caused by rotational force It is preferable to consist of

Accordingly, as shown in FIG. 13, the central magnet 10 is provided in the support case 50, the first rotation case 60, the second rotation case 70, and the third rotation case 80, After installing the sub-magnet 20, the first accelerating magnet 30, and the second accelerating magnet 40, an experiment was conducted to confirm an actual conversion effect.

At this time, in order to conduct the conversion experiment, the support case 50, the first rotation case 60, the second rotation case 70, and the third rotation case 80 are made of plastic material, and a transformer, Batteries were installed as needed.

In accordance with the design conditions, when the center magnet 10 has a radius of 1.25 cm and the sub magnet 20 has a radius of 0.5, the power source 2 has a supply frequency of 200 Hz.

In addition, the number of sub-magnets 20 is 10, the number of first acceleration magnets 30 is 16, and the number of second acceleration magnets 40 is 22.

Here, 16 of the first acceleration magnets 30 are installed to rotate in a ring shape through the second rotating case 70, and the sub-magnets 20 and the second acceleration magnets 40 are installed to rotate in a ring shape. It is rotatably installed in the first and second insertion grooves (61, 71).

In addition, it was confirmed that the power source 2 generated rotational speed and torque above a certain level using a general RC car motor, and no additional acceleration occurred.

As a result of the measurement through this, it was confirmed that a relatively higher rotational speed than the rotational speed provided by the power source 2 occurs after 1 minute.

In addition, during the actual experiment, it was confirmed through sound that a rapid acceleration step in a logarithmic form appeared within time, and an increase in vertical vibration was found at each rapid acceleration.

Through this, since the number of the sub-magnets 20 and the first and second accelerating magnets 30 and 40, which are engaged with each other, are engaged with each other in various ways, the rotating shaft 1 and the center magnet 10 rotate. It can be seen that the speed increases more rapidly step by step.

In addition, it maintains high output with less energy when operating through rotation such as drones and motor propellers. Through the power source of output, it is possible to maintain efficient output and reduce weight.

In addition, it can be used for a long period of time by saving energy consumption or by efficiently using limited batteries by generating power through converted energy.

Finally, it can be easily installed in various devices such as electric vehicles, mobility and hybrid vehicles.

As described above, the rights of the present invention are defined by what is described in the claims, not limited to the embodiments described above, and various modifications and adaptations within the scope of rights described in the claims by those skilled in the art in the field of the present invention It is self-evident that you can do

1: axis of rotation
2: power source
10: center magnet
20: sub magnet
30: first accelerating magnet
40: second accelerating magnet
50: support case
60: first rotation case 61: first insertion groove
70: second rotation case 71: second insertion groove
80: third rotation case 81: third insertion groove

Claims (5)

In the rotational energy conversion device coupled to the rotating shaft 1 generating the rotational force to convert the rotational force through a repulsive force,
A central magnet 10 formed on the rotating shaft 1,
A sub-magnet 20 that is adhered to the outer circumferential surface of the center magnet 10 by a magnet opposite to the center magnet 10 and converts rotational force through a repulsive force generated by rotation by the rotational force of the center magnet 10 made up of,
The sub-magnet 20,
A plurality of them are arranged at regular intervals on the outer circumferential surface of the center magnet 10 to convert the repulsive force generated by the rotational force to convert the rotational force of the center magnet 10, and the adjacent sub-magnet 20 and the sub-magnet 20 ) can reduce losses due to normal drag and rolling friction through the repulsive force generated between the
It has the same magnetism as the center magnet 10 and is arranged in a ring shape in close contact with the outer circumferential surface of the sub magnet 20, receives the rotational force of the sub magnet 20, and is based on the center of the center magnet 10 A first accelerating magnet 30 that rotates to generate a repulsive force;
The second acceleration magnet 40 has the same magnetism as the sub-magnet 20 and rotates by receiving the rotational force of the first acceleration magnet 30 so as to be in close contact with the outer circumferential surface of the first acceleration magnet 30 to generate a repulsive force. ),
A support case 50 in which a power source 2 for transmitting rotational force to the rotation shaft 1 is installed;
The first rotating case is disposed in a ring shape on the outer circumferential surface of the central magnet 10 and has a plurality of first insertion grooves 61 spaced apart at regular intervals and rotatably installed in the sub magnet 20 therein ( 60) and,
It is arranged in a ring shape on the outer circumferential surface of the first rotating case 60 to be rotatable, and a second insertion groove 71 in which the first accelerating magnet 30 is installed is formed therein so that the first rotating case 60 ) And a second rotating case 70 rotating in a ring shape on the outer circumferential surface of the
A plurality of third insertion grooves 81 disposed in a ring shape to be rotatable on the outer circumferential surface of the second rotating case 70 and spaced apart at regular intervals therein, in which the second acceleration magnets 40 are rotatably installed. It consists of a third rotating case 80 formed thereon,
Rotational energy conversion device, characterized in that the bearing for reducing the frictional force when the sub-magnet (20) is rotated in the first insertion groove (61) is installed in the first insertion groove (61). delete According to claim 1,
The sub-magnet 20,
Rotational energy converter, characterized in that made of the same diameter or smaller diameter as the center magnet (10).
delete delete

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