KR101919154B1 - System for traveling of electric energy - Google Patents

Abstract

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a system for transferring electric energy, and more particularly, to a system for transferring electric energy without electric power supply cable or capable of transferring electric energy without a power supply cable .
A system for transferring electric energy according to the present invention is a system for transferring electric energy, comprising: an electric input device having an input-side N and an S-pole to be rotated when power is supplied; And an electromagnetic induction action which is arranged in a magnetic field range of the input side N and S magnetic poles and which is driven by a magnetic force of the input side N and S magnetic poles and an accommodating space for accommodating the non-axle turning device, And at least one electric output device having a case wound with an induction coil for generating an electromotive force.
According to the system for transferring electric energy according to the present invention, it is possible to transmit electric energy without a power supply cable, so that it is difficult to supply power such as a medical device built in a human body and a device installed in water, It is possible to stably supply electric energy to a device or a device which can not install a power supply cable, thereby securing stability of operation. If the power output lines of the plurality of electric output devices are connected in a parallel structure or a series structure or in a connection structure in which a parallel and a serial structure are combined, the electric energy can be transmitted without a power supply cable. The electric energy can be conveniently used according to the capacity of the battery.
In addition, since the system for transferring electric energy according to the present invention does not require a power supply cable, it can be widely used as a power supply device requiring portability, mobility, and activity. In addition, it can be used in various fields such as a device such as a lamp formed in an electric output device, which can be used as an induction lamp, an advertisement, an emergency light, a play device, or the like.

Description

SYSTEM FOR TRAVELING OF ELECTRIC ENERGY [0002]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a system for transferring electric energy, and more particularly, to a system for transferring electric energy without electric power supply cable or capable of transferring electric energy without a power supply cable .

Generally, electric energy is an indispensable energy source as an essential energy source of modern industrial society. However, due to exhaustion of fossil energy resources, investment and development are rapidly developing in various alternative power generation facilities such as solar power generation, wind power generation and tidal power generation .

Such electricity is supplied to a power supply site via an electric cable, and is used as an energy source for household and industrial devices or products. However, the electric power can not be supplied to a place or device where an electric cable can not be installed.

Accordingly, a battery such as a primary battery or a secondary battery is disposed in a place or apparatus where an electric cable can not be installed to receive electric energy. However, since the use time of the battery is limited, if the charging power source is completely discharged, the operation of the corresponding device may become inconvenient, and the power supply of the device which directly affects human life or safety such as the medical device or the protection device may be interrupted This will cause serious problems.

In addition, when the battery installed in the water or the water tank or the battery installed in the moving machine and used as the energy source of the device is discharged, the battery can not be easily accessed and dangerous. Therefore, There is a problem in that it is necessary to carry out a replacement operation after draining or stopping the operation of the mechanical device.

Accordingly, in various industrial fields such as the medical field, the machine field, the industrial safety field, and the leisure field, there is a desperate need for a device capable of stably supplying electricity even if there is no electric cable for supplying power.

Since the electricity has various rated voltages according to the characteristics and the type of the use site or the usage apparatus, it is necessary to amplify the voltage. However, since the supply voltage is determined by the voltage, there are various inconveniences in use. Accordingly, there is an urgent need for a device capable of amplifying and using a predetermined voltage of the power supply as necessary or charging the power supply.

It is an object of the present invention to provide a system for transferring electric energy without electric power supply cable.

It is another object of the present invention to provide a system for transferring electrical energy such that electrical energy can be transferred without a power supply cable.

In order to achieve the above object, a system for transferring electric energy according to the present invention is a system for transferring electric energy, comprising: an electric input device having an input side N and an S-pole to be rotated when power is supplied; And an electromagnetic induction action which is arranged in a magnetic field range of the input side N and S magnetic poles and which is driven by a magnetic force of the input side N and S magnetic poles and an accommodating space for accommodating the non-axle turning device, And at least one electric output device having a case wound with an induction coil for generating an electromotive force.

The electric input device may include an electric motor in which electric energy is converted into dynamic energy such as linear motion or rotational motion of the output shaft when the external power is supplied, and the output shaft is provided with the input side N and S magnetic poles.

The output unit closing cover may include an input unit closing cover installed to cover the electrical input unit so as to be hermetically closed, and an output unit closing cover installed to cover the electrical output unit to be hermetically closed.

The non-rotating rotary device may be formed in any one of a circular ball shape, a circular plate shape, and a cylindrical shape.

The unrotated rotation device may be formed with a guide protrusion or guide groove symmetrically on both sides thereof, and the case may be formed with a case protrusion inserted into the guide groove or a case protrusion inserted into the guide groove.

Wherein the electric input device comprises: an electromagnet in which an input side N and an S-pole are formed in the magnetic core when a field coil is wound on the magnetic core and a current flows in the field coil; And electromagnet control means for controlling the driving of the electromagnet to operate the permanent magnet.

The electromagnet control means may comprise an electromagnetic transducer for controlling the current flowing through the field coil to alternately invert the input side N and S magnetic poles formed on the magnetic core.

The electric input device may further include: a magnetic core including a magnetic core and a field coil wound around the magnetic core, the electromagnet forming the input side N and S magnetic poles of the magnetic core when a current flows through the field coil; And an electromagnet driving means for alternately inverting positions of the input side N and S magnetic poles, wherein the electromagnet driving means is constituted by an electric motor in which a driving shaft is connected to the electromagnet so as to periodically and repeatedly change the polarity of the electromagnet .

In addition, the electrical output device may include a lamp connected to the (+) and (-) terminals of the induction coil to emit light.

And a circuit unit for smoothing the AC power outputted from the electrical output device and forming the DC power into a DC level. And a rechargeable battery electrically connected to the circuit unit and capable of charging an applied power supply.

The induction coil may be formed of a superconducting material to improve the output efficiency of electricity. Preferably, the induction coil may be composed of a graphene formed in a plane or a line.

The non-axis rotation device incorporated in each of the electric output devices is connected to the movement of the non-axis rotation device built in the electric output device at a vertex in contact with the electric input device It is important that they are spaced apart from each other at such a distance that a magnetic field is formed between them so that they can move in a chain-like manner.

Further, only one another non-axle rotation system may be disposed in one non-axle rotation field magnetic field range so that the plurality of the non-axle rotation axis systems are not overlapped with each other at the time of arrangement.

In this case, the layout of the plurality of electric output apparatuses may be a logarithmic spiral layout (curved line forming a constant angle? With all oblique lines departing from the center vertex), a concentric circle (two or more circles having different radii from the center vertex) , And a curved configuration in a radial direction (a configuration that extends in all directions from the center vertex and extends in a curved line).

In addition, the induction coils of the plurality of electric output apparatuses may be connected to each other in series or in parallel, or a part of the induction coils of the plurality of electric output apparatuses may be connected in a series structure, and some of them may be connected in a parallel structure.

In order to achieve the above object, a system for transferring electrical energy according to the present invention is a system for transferring electric energy, which is disposed between the electric output apparatuses and transfers a magnetic force from a transfer side electric output apparatus of magnetic force to a transfer side electric output apparatus of a magnetic force, A clutching member having N and S magnetic poles inside the case so as to perform an intermittent operation for shutting off the magnetic force of the magnetic force; Can be configured.

An installation base may be provided so that the electric input device and the plurality of electric output devices are installed while maintaining the arrangement interval.

According to the system for transferring electric energy according to the present invention, it is possible to transmit electric energy without a power supply cable, so that it is difficult to supply power such as a medical device built in a human body and a device installed in water, It is possible to stably supply electric energy to a device or a device which can not install a power supply cable, thereby securing stability of operation.

If the power output lines of the plurality of electric output devices are connected in a parallel structure or a series structure or in a connection structure in which a parallel and a serial structure are combined, the electric energy can be transmitted without a power supply cable. The electric energy can be conveniently used according to the capacity of the battery.

In addition, since the system for transferring electric energy according to the present invention does not require a power supply cable, it can be widely used as a power supply device requiring portability, mobility, and activity. In addition, it can be used in various fields such as a device such as a lamp formed in an electric output device, which can be used as an induction lamp, an advertisement, an emergency light, a play device, or the like.

1 is a schematic diagram for explaining a technical concept of a system for transferring electrical energy according to a first embodiment of the present invention;
FIGS. 2A and 2B are exploded perspective views illustrating a system for transferring electrical energy according to a first embodiment of the present invention;
3 is a cross-sectional view of an electrical input device applied to a system for transferring electrical energy according to a first embodiment of the present invention,
4 is a view for explaining a first modification of the system for transferring electrical energy according to the first embodiment of the present invention;
5 is a view for explaining a second modification of the system for transferring electrical energy according to the first embodiment of the present invention;
6 is a view for explaining a third modification of the system for transferring electric energy according to the first embodiment of the present invention;
7A to 7D are views for explaining a layout of an electrical output device in a system for transferring electrical energy according to the present invention,
FIGS. 8A and 8B are schematic cross-sectional views of an enlarged portion C of FIG. 7B for explaining a fourth modification of the system for transferring electric energy according to the first embodiment of the present invention;
FIG. 9 is a schematic diagram for explaining a technical concept of a system for transferring electrical energy according to a second embodiment of the present invention; FIG.
FIG. 10 is a schematic diagram for explaining a technical concept of a system for transferring electrical energy according to a third embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings 1 to 10, and the same reference numerals are given to the same constituent elements in FIG. 1 to FIG. It is to be understood that both the foregoing general description and the following detailed description are exemplary and explanatory and are intended to provide further explanation of the invention as claimed.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a schematic configuration diagram and a main configuration for illustrating a technical concept of a system for transferring electric energy according to a first embodiment of the present invention; FIG.

Referring to FIG. 1, a system for transferring electric energy according to an embodiment of the present invention includes an electric input device 100 having input side N and S magnetic poles that are rotated when power is supplied, (Not shown) for supplying power without a power cable and outputting the power.

The electric power input apparatus 100 is a device for converting electric energy into kinetic energy that can move the input side N and the S side magnetic poles 110 and 120 when the external power is supplied and includes an output shaft 130 having the input side N and S magnetic poles, Or an electric motor for rotating the motor. In this motor, a form in which the output shaft 130 linearly moves when power is supplied is called a solenoid, and a form in which the output shaft rotates when power is supplied is called a normal motor, but the present invention is collectively referred to as an electric motor 100a.

The electric output device 200 is disposed within the magnetic field range of the input side N and S-poles 110 and 120 and includes an uniaxial rotating machine 210 driven by the magnetic forces of the input N and S magnetic poles of the electric input device 100, And a case 220 in which a magnet 210 is accommodated. The case 220 has a structure in which a receiving space 221 for receiving the non-rotating rotary device 210 is formed therein and is wound with an induction coil 230 generating an electromotive force by an electromagnetic induction action according to the motion of the non- .

The non-rotating rotation device 210 has a configuration in which there is no separate shaft for receiving power directly from the outside. The output side N and S magnetic poles 211 and 212 are provided to detect the movement of the input side N and S magnetic poles 110 and 120 So that the repulsive force and the attractive force can act. The number of poles of the input side N and S poles 110 and 120 and the output side N and S poles 211 and 212 may be a multipolar structure that is increased by two poles in order of 4 poles, 6 poles, and 8 poles depending on various conditions such as power generation capacity .

The induction coil 230 may be formed of a superconducting material to improve the output efficiency of electricity. For example, a superconducting material that is formed in a plane or line shape using graphene, which has an electric conductivity 100 times or more superior to copper (Cu), is applied.

The operating state of the system for transferring electric energy constituted as described above will be briefly described. When power is supplied to the electric power input device 100 and the output shaft 230 is rotated, the input side N and S-poles 110 and 120 coupled to the output shaft are rotated, and the electric output device 200 The N and S magnetic poles 211 and 212 of the output side N and the S poles 211 and 212 alternately repetitively act on the output side N and the S poles 211 and 212, respectively. The induction coil 230 generates electromotive force due to the electromagnetic induction action caused by the rotational motion of the aft rotation device 210, thereby generating electricity.

2 is a perspective view illustrating a system for transferring electrical energy according to a first embodiment of the present invention. FIG. 3 is a perspective view of a system for transferring electric energy according to the first embodiment of the present invention. FIG. 2A is an exploded perspective view of the electrical output device, and FIG. 2B is an exploded perspective view of the electrical input device.

The system for transferring electric energy according to the first embodiment of the present invention includes an electric input device 100 having input side N and S magnetic poles that are rotated when power is supplied, An electric output apparatus 200 including a case 220 in which an induction coil 230 is wound to generate an electromotive force due to an electromagnetic induction action caused by the movement of an axle rotation device and an accommodation space for accommodating the rotation device 210 and the non- The output device 200 includes an output hermetic cover 240 installed inside the electric output device 200 to be hermetically sealed so that the electric output device 200 can be safely protected even if the device is exposed to bad weather such as under water or outdoors. .

The output hermetic cover 240 can be variously configured in any form and structure as long as the hermetically sealed cover 240 is capable of receiving the electric output device 200 and watertightly protecting the electric output device 200. In this embodiment, Shaped cover body 241 and a cover cover 242 which is fitted on the upper portion of the cover body 241 and is coupled to the cover body 24 in a watertight manner. At this time, a hermetic member 243 such as an o-ring is installed in the cover lid 242.

The electrical input device 100 includes an input unit enclosure cover 140 which is installed over the electrical input device 100 in the same manner as the electrical output device 200. The input unit closing cover 140 can be variously configured in any form and structure as long as it is capable of receiving the electric input apparatus 100 and watertightly protecting the inside of the input unit closing cover 140. In this embodiment, And a cover cover 142 which is fitted on the upper portion of the cover body 141 and is coupled to the cover body in a watertight manner. At this time, a hermetic member 143 such as an o-ring is installed in the cover lid 142.

A magnetic pole case 150 in which input side N and S magnetic poles 110 and 120 are inserted and coupled is coupled to an output shaft 130 of an electric motor 100a constituted by the electric input device 100. [

The uniaxial rotation device 210 may have a circular ball shape as shown in FIG. 1, a circular column shape as shown in FIG. 2B, or a circular plate shape.

The case 220 is separated from the case body 222 and the cover 223 for the installation of the unflexion rotary machine 210 shown in FIG. 2B and FIG. 3, A guide protrusion 213 is formed symmetrically with respect to both sides so as to stably perform rotational movement and a case 210 having a position corresponding to the guide protrusion 213 is provided with a case groove (224) are formed.

FIG. 4 is a sectional view of an electrical input device for explaining a first modification of the system for transferring electrical energy according to the first embodiment of the present invention. FIG.

4, a guide groove 214 is formed symmetrically on both sides of the non-axis turn table 210 so as to stably perform rotational movement, and the guide groove 214 And a case protrusion 225 inserted into the guide groove 214 is formed in the case 220 at the corresponding position.

FIG. 5 is a view for explaining a second modification of the system for transferring electric energy according to the first embodiment of the present invention, in which an electric output device 200 is inserted into a transparent output hermetic cover And FIG. 6 is a perspective view showing a projected state.

5, the electric output apparatus 200 further includes a lamp 250 connected to the (+) and (-) terminals of the induction coil 230 to emit light. At this time, the lamp 250 is configured by disposing a light emitting diode (LED) having a small size and low power consumption.

The output portion sealing cover 240 of the electric output apparatus 200 is formed of a transparent material such as acrylic or the like and a light emitting diode is disposed as a lamp 250 inside the output portion sealing cover 240 .

When the electromotive force is formed in the induction coil 230 of the electric output apparatus 200 by the operation of the electric input apparatus 100, the electric output apparatus 200 according to the second modified example may include a lamp 250 electrically connected thereto Since light is radiated to the outside through the transparent output-hermetic cover 240 while being lighted, it can be used as a guide lamp, an advertisement lamp, an emergency lamp, or a playground.

In particular, since the lamp 250 is housed inside the transparent output-side hermetic cover 240 to ensure water tightness, the lamp 250 can be used safely in a place requiring water tightness such as under water.

FIG. 6 is a view for explaining a third modification of the system for transferring electric energy according to the first embodiment of the present invention, in which the electric output device, the circuit part, and the rechargeable battery are shown in a simplified form.

Referring to FIG. 6, a system for transferring electrical energy is configured to easily utilize or store electrical energy output from the electrical output device 200.

To this end, a circuit unit 260 for rectifying the power output from the electric output apparatus 200 and a rechargeable battery 270 electrically connected to the circuit unit 260 and capable of charging a power source are provided.

6, the circuit unit 260 forms a bridge diode 261 to rectify the voltage of the unshaved motor-generator 210 and supplies the DC-DC voltage to the battery 270 But is not limited to, a delay circuit using a resistor and a capacitor 262 for charging.

The circuit unit 260 may further include a power supply line (power supply cable, not shown) for supplying a DC level-smoothed power supply to the use site, or a lamp (not shown) that is electrically connected to the circuit unit 260 Quot;). ≪ / RTI >

7A to 7D are diagrams for explaining a layout of an electric output apparatus in a system for transferring electric energy according to the present invention, wherein Figs. 7A to 7C schematically show a layout of an electric output apparatus, And the line connecting the reference numeral 200 is a virtual line, and Fig. 7D is an incision oblique view of the line BB in Fig. 7A.

The system for transferring electric energy according to the present invention is configured by arranging a plurality of electric output devices 200 adjacent to each other, wherein the non-rotating rotary device 210 built in each electric output device 200 is connected to the electric input device 100 are spaced apart from each other by a distance such that a magnetic field is formed between them so as to be interlocked with the motion of the non-rotating rotary device 210 of the electric output device 200 located at the vertex tangent to the non-rotating rotary device 210.

At this time, the electric input device 100 and the plurality of electric output devices 200 are installed and fixed on the installation base 300 so that the arrangement interval is kept constant.

7D, the electrical input device 100 is installed at the center of the installation base 300, and the connection hole 300 formed in the installation base 300 310 may be fastened to a coupling rod 243 provided on the electric output apparatus 100. In addition, the installation of the electric input device 100 and the electric output device 200 can be variously modified and applied to the installation base 300, The installation holes may be formed at predetermined intervals so that the output portion sealing cover 240 of the output device is inserted and inserted into the installation holes.

7A to 7C, the plurality of electric power output apparatuses 200 are arranged such that the non-rotating rotary elements 210 inside the rotary electric machine 200 are arranged such that the magnetic fields do not overlap with each other, It is important to maintain the spacing so that only the rotating machine is placed. This is because, when two or more trailing anchor rotary elements are arranged in a magnetic field range of a preceding anchor rotary machine 210, the repulsive force and attractive force that interfere with each other are canceled out between the two trailing anchor rotary machines, The operation becomes impossible, which causes the chain movement of the non-rotating rotary machine to weaken and the power generation efficiency is lowered.

For this purpose, only one non-rotating rotary element 210 is disposed within the magnetic field range of one non-rotating rotary element 210, and the adjacent remaining non-rotary rotary element is arranged so that the spacing distance is further apart so as to be located outside the magnetic field range.

For example, as shown in FIG. 7A, a system for transferring electrical energy according to the present invention includes a plurality of electrical output devices 200 from a vertex (central) electrical input device 100 to a log spiral And a curve having a constant angle ϕ).

7B, a plurality of electrical output devices 200 are connected to a concentric circle (two or more circles having different radii from the center vertex) ) Arrangement structure.

7C, a plurality of electric power output devices 200 are radially extended from a vertex electric power input device 10 (a curve extending from a central vertex to all directions), as shown in FIG. 7C, But may be configured to have a curved arrangement structure in a curved shape.

The plurality of electric output apparatuses 200 arranged as shown in FIGS. 7A to 7C are connected to (+) and (-) pulled out from each induction coil 230 so as to adjust the voltage or current of the output power source. Some of the induction coils 230 of the electric power output apparatuses 200 may be connected to each other in a series structure and some of the induction coils 230 may be connected in a parallel structure.

On the other hand, when the plurality of electric power output devices 200 are arranged as shown in FIGS. 7A to 7C, the electric power can be outputted while the magnetic force applied from the electric power input device 100 is sequentially transmitted in a similar manner to the domino phenomenon It is possible to convert the energy applied from the electric power input device 100 into electric energy without waste and to realize a system for transferring high efficiency electric energy.

FIGS. 8A and 8B are schematic cross-sectional views of an enlarged portion C of FIG. 7B for explaining a fourth modification of the system for transferring electric energy according to the first embodiment of the present invention, Figure 8b shows a clutching device with an automatic clutching member moving means.

7B, a system for transferring electrical energy includes an electrical input device 100, a plurality of electrical output devices 200, and an installation base 300 (see FIG. 7B) in which the electrical input device 100 and the electrical output device 200 are installed. ), And is disposed between the plurality of electric output apparatuses 200 and is disposed at the rear side of the electric output apparatus 200 (the electric output apparatus installed close to the vertex electric input apparatus) And a clutching device 400 for performing an intermittent action of transmitting a magnetic force to the electric output device or blocking transmission of a magnetic force.

The clamper 400 includes a clutching member 410 having N and S magnetic poles 412 and 413 inside a case 411 as shown in Figs. 8A and 8B, And clutching member moving means (420) for releasing or returning the electric output device (100) from the magnetic field range.

The clutching member moving means 420 can be variously configured as long as it is capable of moving the clutching member 410. The clutching member moving means 420 may be a manual clutching member moving means And an automatic clutching member moving means 420b for automatically releasing the clutching member 410 when the switching signal is input.

For example, as shown in FIG. 8A, the manual clutching member moving means 420a includes a moving shaft 421 protruding from the clutching member 410 and inserted and installed through the through hole of the mounting base 300, A shaft fixing member 422 for fixing the shaft fixing member 421 to the mounting base 300, a fixing bracket 423 installed on the mounting base so that the shaft fixing member 422 is inserted and removed, And an elastic member 424 disposed between the upper surfaces of the base 300 to move theclutching member out of the magnetic field range of the electric output apparatus 200 when the shaft fixing member 422 is disengaged.

The moving shaft 421 is formed with a locking part 421a protruding from the lower end of the moving shaft 421. The locking part 421a prevents the elastic force of the elastic member 424 when the shaft fixing member 422 is released, So that the clutching member 410 is prevented from being detached from the mounting base 300.

On the other hand, the automatic clutching member moving means 420b is constituted by a solenoid 426 to which a rod 426a is connected to the bottom surface of the clutching member 410, as shown in Fig. 8B. The rod 426a is provided with an elastic member (elastic member) for applying an elastic force to the clutching member 410 and moving it outside the magnetic field range of the electric output device 200 when the solenoid is actuated (in a no-load state in which the pulling- 427).

FIG. 9 is a schematic diagram for explaining a technical concept of a system for transferring electrical energy according to a second embodiment of the present invention. In the system for transferring electrical energy according to the second and third embodiments of the present invention, which are described in detail below, the same reference numerals are assigned to the same components as those of the first embodiment, and a detailed description thereof will be omitted.

Referring to FIG. 9, a system for transferring electric energy according to a second embodiment of the present invention includes an electric input device 100 having input side N and S magnetic poles that are rotated when power is supplied, The electric input device 100 includes an electromagnet 163 and electromagnet control means for controlling the driving of the electromagnet 163. The electromagnet 163 controls the operation of the electromagnet 163, 164.

9, the electromagnet 163 is provided with a magnetic core 163a such as an iron core and a field coil 163b wound around the magnetic core 163a, so that current is supplied to the field coil 163b And the input side N and S magnetic poles are formed in the magnetic core 163a.

The electromagnet control unit 164 includes an electromagnetic transducer for controlling the flow of current supplied to the field coil 163b so that the input side N and the S pole are alternately inverted on the front and rear ends of the electromagnet 163, . The polarity converter is a known device which is also referred to as a current converter in a configuration for controlling the flow of electric current to change the polarity of the electromagnet, and a detailed description thereof will be omitted.

The polarity converter converts the polarity of the electromagnet 163 periodically and repeatedly so that the magnetic poles generated at the front and rear ends of the electromagnet 163 in contact with the non-rotating rotation axis 210 of the electric input device 100 are continuously inverted Function. As a result, the non-rotating rotary device 210 disposed in contact with the electromagnet 163 is moved by the repulsive force and the attractive force, so that the electric power is generated by the electromagnetic induction action.

FIG. 10 is a schematic diagram for explaining a technical concept of a system for transferring electrical energy according to a third embodiment of the present invention.

10, a system for transferring electric energy according to a third embodiment of the present invention includes an electric input device 100 having input side N and S magnetic poles that are rotated when power is supplied, The electric input device 100 includes an electromagnet 171 and an electromagnet 171. The electromagnet 171 includes an input side N and an S pole The electromagnet driving means 172 is physically connected to rotate the electromagnet 171 so that the electromagnet 171 is periodically and repeatedly polarized with respect to the electromagnet 171, And the drive shaft 172a is connected to the electromagnet 171 so as to be converted.

The electromagnet 171 is provided with a magnetic core 171a such as an iron core and a field coil 171b wound around the magnetic core 171a as shown in Fig. 10 so that current is supplied to the field coil 171b The N and S magnetic poles of the magnetic core 171a are formed.

When the electric motor is configured as the electromagnet driving means 172, when the electromagnet 171 and the electric motor are supplied with electricity, the input side N and S magnetic poles are formed in the electromagnet 171. At the same time, the driving shaft 172a of the motor is rotated, The N and S magnetic pole positions are rotated, and the magnetic force moves the non-rotating rotary machine 210 of the electric output device 200 to generate electric power.

As described above, the present invention is not limited to the above-described embodiment, but may be applied to a system for transmitting electric energy according to the present invention, It will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.

100: electric input device 110: input N stimulus
120: input S-pole 130: output shaft
140: input part sealing cover 163,171: electromagnet
164: Electromagnetism control means 172: Electromagnetism drive means
200: electric output device 210:
211: output side N-pole 212: output side S-pole
220: Case 230: Induction coil
240: Output sealing cover 250: Lamp
300: installation base 400: clutching device
410: Clutching member 420: Clutching member moving means

Claims (19)

A system for electrical energy transfer comprising:
An electric input device having an input-side N and an S-pole to be rotated when power is supplied; And
And an electromagnetic induction action which is arranged in a magnetic field range of the input side N and S magnetic poles and which is moved by a magnetic force of the input side N and S magnetic poles, an accommodating space for accommodating the non- And at least one electric output device having a case wound with the induction coil to be produced,
Wherein the non-rotating rotary device incorporated in each of the electric output devices is linked to the movement of the non-rotating rotary device incorporated in the electric output device at a vertex in contact with the electric input device, Wherein the magnetic field is spaced apart from each other such that magnetic fields are formed therebetween so that the magnetic field can be moved. The method according to claim 1,
The electrical input device
Characterized in that electric energy is converted into mechanical energy such as linear motion or rotational motion of the output shaft when the external power is supplied and is output and the output shaft is provided with the input side N and S magnetic poles system. The method according to claim 1,
An input unit hermetically sealed cover which is installed so as to be hermetically received and accommodated in the electric input device,
And an output hermetic cover which is installed to cover the electric output device to be hermetically received therein. delete delete The method according to claim 1,
An electromagnet in which an input side N and an S pole are formed in the magnetic core when a field coil is wound around the magnetic core and a current is caused to flow through the field coil; And
And electromagnet control means for controlling the driving of the electromagnet to operate the permanent magnet. delete The method according to claim 1,
The electrical input device
An electromagnet having a magnetic core and a field coil wound around the magnetic core, wherein the input side N and S magnetic poles of the magnetic core are formed when a current is passed through the field coil; And
And electromagnet driving means for alternately inverting the positions of the input side N and S magnetic poles,
Wherein the electromagnet driving means comprises an electric motor in which a driving shaft is connected to the electromagnet so as to periodically and repeatedly convert the polarity of the electromagnet. The method according to claim 1,
Wherein the electrical output device comprises a lamp connected to the (+) and (-) terminals of the induction coil to emit light. delete delete The method according to claim 1,
Wherein the induction coil is formed of a superconducting material for improving the output efficiency of electricity. 13. The method of claim 12,
Wherein the induction coil is composed of a graphene formed in a plane or a line shape. delete The method according to claim 1,
Wherein a plurality of the non-rotating rotary elements are arranged such that only one another non-rotating rotary element is disposed within one non-axial rotary element magnetic field range so that the magnetic fields do not overlap each other when arranged. 16. The method of claim 15,
The layout of the plurality of electric output devices may be a logarithmic spiral layout (curved line forming a certain angle? With all oblique lines leaving the center vertex), a concentric circle (two or more circles having different radii at the center vertex) And a radial shape (curved line extending from the central vertex in all directions) curved configuration. 17. The method of claim 16,
Wherein the induction coils of the plurality of electric output apparatuses are connected to each other in series or in parallel, or a part of the induction coils of the plurality of electric output apparatuses are connected in a series structure and a part of the induction coils are connected in a parallel structure. For the system. 17. The method of claim 16,
And an electric power output device that is disposed between the electric output devices and transmits a magnetic force to a transfer-side electric output device of a magnetic force from a transfer-side electric output device of a magnetic force, or interrupts transmission of a magnetic force, CLAIMS 1. A clerking device comprising a clutching member and a clutching member moving means for releasing or returning the clutching member from the magnetic field range of the transmission side electric output device of the magnetic force . 17. The method of claim 16,
Wherein the installation base is provided so that the electric input device and the plurality of electric output devices are installed while maintaining the arrangement interval.

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