KR20130061610A - System for traveling and amplifying of electric energy - Google Patents

Abstract

PURPOSE: A system for electric power transmission and amplification is provided to deliver electric energy without a power supply cable. CONSTITUTION: A system for electric power transmission and amplification comprises an electricity input device(100) and an electricity output device(200). The electricity input device converts the electrical energy into dynamic energy which moves input side N and S magnetic poles(110,120). The electrical output device is arranged within a range of magnetic field of input side N and S magnetic poles and comprises no shaft rotating field(210) and a case(220). The no shaft rotating field includes output side N and S magnetic poles(211,212) and is formed to be moved by applying repulsive force and gravitation according to movement of the input side N and S magnetic poles. An induction coil(230) is reeled around the case and generates electromotive force by induced electromotive operation according to the movement of the no shaft rotating field.

Description

SYSTEM FOR TRAVELING AND AMPLIFYING OF ELECTRIC ENERGY}

The present invention relates to a system for transmitting and amplifying electrical energy, and more particularly, to transfer electrical energy without a power supply cable, or to transfer electrical energy without a power supply cable and to amplify electrical energy. It relates to a system for amplification.

In general, electric energy is an indispensable energy source in modern industrial society, but due to the depletion of fossil energy resources, investment and development in various alternative power generation facilities such as solar power, wind power, tidal power, etc. have recently been rapidly developed. Is going on.

Such electricity is supplied to a power supply site through an electric cable and used as an energy source for home and industrial devices or products, but has inconveniences in that it cannot supply power to places or devices where electric cables cannot be installed.

Accordingly, a battery such as a primary battery or a secondary battery is disposed in a place or a device where an electric cable cannot be installed so that electric energy is supplied. However, since the battery has a limited use time, discharging of all the charging power may cause inconvenience to the device. If so, serious problems will occur.

In addition, when the battery installed in the water or the tank or inside the moving mechanism is used as the energy source of the device, the battery is not easily accessible and dangerous and the battery cannot be replaced. There is a problem in that replacement work should be carried out after draining or stopping the operation of the machine.

Accordingly, in various industries, such as the medical field, the mechanical field, the industrial safety field, and the leisure field, there is an urgent need for a device capable of stably supplying electricity even without an electric cable for supplying power.

In addition, since electricity has various rated voltages according to the use point, the characteristics and the type of the use device, it is necessary to amplify the voltage. However, since the power supply is fixed, the electric power has various inconveniences in use. Accordingly, there is an urgent need for a device capable of amplifying and using or charging a predetermined voltage of a power supply as needed.

The present invention has been proposed in view of the above contents, and an object thereof is to provide a system for electric energy transmission and amplification that can transmit electric energy without a power supply cable.

Another object of the present invention is to provide a system for transmitting and amplifying electrical energy, which enables the transmission and amplification of electrical energy without a power supply cable.

In order to achieve the above object, a system for electric energy transmission and amplification according to the present invention, the system for electric energy transmission and amplification, comprising: an electrical input device having an input side N and S magnetic poles rotated at the time of supply of power; And an accommodation space for accommodating the axisless rotational field and the axisless rotational field disposed by the magnetic force of the input side N and S magnetic poles, and the electromagnetic induction action according to the movement of the axisless rotational field. It characterized in that it comprises at least one electric output device having a case in which the induction coil for generating an electromotive force is wound.

The electrical input device may be configured by a motor having electrical energy converted into mechanical energy such as linear motion or rotational motion of the output shaft when the external power is supplied, and provided with the input N and S magnetic poles on the output shaft.

In addition, an input unit sealing cover may be provided to cover the electrical input device so as to be received and sealed therein, and an output unit sealing cover may be provided to cover and install the electrical output device to be received and sealed therein.

The axisless rotation meter may be formed in any one of a circular ball, a disc shape, and a cylindrical shape.

In addition, the shaftless rotation meter may have a guide protrusion or a guide groove symmetrically formed at both sides, and the case may have a case groove into which the guide protrusion is inserted or a case protrusion inserted into the guide groove.

The electric input device may include: an electromagnet having the input side N and S magnetic poles formed on the magnetic core when a field coil is wound around a magnetic core so that a current flows through the field coil; And electromagnet control means for controlling the driving of the electromagnet to operate the permanent magnet.

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

In addition, the electrical input device includes a magnetic core and a field coil wound around the magnetic core, the electromagnet to form the input side N and S magnetic poles of the magnetic core when a current flows through the field coil; And 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 whose drive shaft is connected to the electromagnet so as to periodically and repeatedly convert the polarity to the electromagnet. Can be.

In addition, the electric output device may be provided with a lamp which is connected to the (+) and (-) terminals of the induction coil to emit light.

It may include a circuit unit for smoothing the AC power output from the electrical output device to form a DC level. In addition, the battery unit may be provided with a rechargeable battery which is electrically connected to the circuit unit for charging the applied power.

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 graphene (graphene) formed in the plane or linear.

On the other hand, the electric output device is composed of a plurality of arranged adjacent to each other, the axisless rotation meter embedded in each of the electrical output device is interlocked with the movement of the axisless rotation meter embedded in the electrical output device of the vertex in contact with the electrical input device. It is important to be spaced apart from each other so as to form a magnetic field so that they can move in series.

In addition, only the other axisless rotation field may be disposed within the range of one axisless rotation field so that the plurality of axisless rotation fields do not overlap each other when arranged.

At this time, the arrangement form of the plurality of electrical output device is a log spiral arrangement (curve forming a constant angle φ with all the oblique line from the center vertex) curved configuration structure, concentric circles (two or more circles different in radius from the center vertex) arrangement structure , And can be arranged in any one of the radial arrangement (shape extending in all directions from the center vertex but curved).

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

In order to achieve the above object, a system for electric energy transmission and amplification according to the present invention is disposed between the electric output device and transfer or transmit magnetic force from the transmission-side electrical output device of the magnetic force to the transfer-side electrical output device of the magnetic force A clutching member provided with N and S magnetic poles inside the case to interrupt the transmission of the clutch, and a clutching member for detaching or returning the clutching member from the magnetic field range of the transmission-side electric output device of the magnetic force. A clutching device having a moving means can be constructed.

In addition, the installation base may be provided such that the electrical input device and the plurality of electrical output devices are installed while maintaining the arrangement interval.

According to the system for electric energy transmission and amplification according to the present invention, since electric energy can be transmitted without a power supply cable, power supplies such as medical devices and artificial kidneys, devices installed underwater, devices installed inside moving objects, etc. There is an effect that can secure the stability of the operation by supplying the electric energy stably to this difficult device or the device that can not be installed the power supply cable.

In addition, when the power output lines of a plurality of electrical output devices are connected in a parallel structure or a series structure, or connected in a combination structure of parallel and series structures, voltage, current, etc. are amplified while transferring electric energy without a power supply cable. It can be used conveniently by amplifying the electric energy according to the location of the power supply or the capacity of the device.

In addition, the system for transmitting and amplifying electric energy according to the present invention can be widely used as a power supply device that requires portability, mobility, and activity since no power supply cable is required. In addition, it can be used in a variety of fields, such as by configuring an element such as a lamp in the electrical output device can be used as an induction light, advertising light, emergency light or the like as a play device.

1 is a schematic configuration diagram illustrating a technical concept of a system for electric energy transmission and amplification according to a first embodiment of the present invention;
2A and 2B are exploded perspective views illustrating a system for electric energy transfer and amplification 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 electrical energy transfer and amplification according to a first embodiment of the present invention;
4 is a view for explaining a first modification of the system for electric energy transfer and amplification according to the first embodiment of the present invention;
5 is a view for explaining a second modification of the system for electric energy transfer and amplification according to the first embodiment of the present invention;
6 is a view for explaining a third modification of the system for electric energy transfer and amplification according to the first embodiment of the present invention;
7a to 7d are views for explaining the arrangement of the electrical output device in the system for the transmission and amplification of electrical energy according to the present invention;
8A and 8B are schematic cross-sectional views showing part C of FIG. 7B for explaining a fourth modification of the system for electric energy transfer and amplification according to the first embodiment of the present invention;
FIG. 9 is a schematic configuration diagram illustrating a technical concept of a system for electric energy transmission and amplification according to a second embodiment of the present invention; FIG.
FIG. 10 is a schematic diagram illustrating a technical concept of a system for transmitting and amplifying electric energy according to a third embodiment of the present invention.

Best Mode for Carrying Out the Invention Preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, Figs. 1 to 10, and like reference numerals designate like elements in Figs. 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.

FIG. 1 is a schematic diagram illustrating the technical idea of a system for transmitting and amplifying electric energy according to a first embodiment of the present invention.

Referring to FIG. 1, a system for transmitting and amplifying electrical energy according to an embodiment of the present invention includes an electrical input device 100 having an input side N and S magnetic poles rotated upon supply of power, and the electrical input device. It is provided with at least one or more electrical output device 200 for receiving and outputting power without a power cable from the (100).

The electrical input device 100 is a device for converting electrical energy into mechanical energy capable of moving the input N and S magnetic poles 110 and 120 when external power is supplied, and linearly moving the output shaft 130 provided with the input N and S magnetic poles. Or it consists of an electric motor to rotate. The motor is generally referred to as a solenoid in which the output shaft 130 is linearly moved when the power is supplied. The motor is generally referred to as a motor in the present invention, but the output shaft 130 is rotated when the power is supplied.

The electrical output device 200 is disposed within the magnetic field range of the input side N and S magnetic poles 110 and 120, and the axisless rotation meter 210 and the shaftless rotation system which are moved by the magnetic force of the input side N and S magnetic poles of the electrical input device 100. The chair 210 includes a case 220 accommodated therein. The case 220 has a structure in which an accommodating space 221 for accommodating the axisless rotation field 210 is formed therein, and an induction coil 230 in which electromotive force is generated by electromagnetic induction according to the movement of the axisless rotation field is wound. .

Shaftless rotation field 210 is a configuration that means that there is no separate axis of rotation power directly transmitted from the outside, the output side N and S magnetic poles (211,212) is provided to the movement of the input side N and S magnetic poles (110, 120) According to the repulsive force and manpower is to be moved. 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 configured in a multipole structure in which two poles are increased in the order of four poles, six poles, and eight poles according to 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, the superconducting material is formed by using a graphene (graphene) excellent in electrical conductivity 100 times or more compared to copper (Cu) is applied in the plane or linear form.

The operating state of the system for electric energy transfer and amplification configured as described above will be briefly described. First, when power is supplied to the electrical input device 100 and the output shaft 230 rotates, the input N and S magnetic poles 110 and 120 coupled to the output shaft are rotated, and the electrical output apparatus 200 installed within the magnetic field range of the input N and S magnetic poles. Since the attraction force and the repulsive force are alternately applied to the output side N and S magnetic poles 211 and 212, the axisless rotation meter 210 provided with the output side N and S magnetic poles undergoes a rotational movement. Electromagnetic force is generated in the induction coil 230 by the electromagnetic induction according to the rotational motion of the axisless rotation field 210 to generate electricity.

2A and 2B are exploded perspective views illustrating a system for electric energy transmission and amplification according to a first embodiment of the present invention, and FIG. 3 is an electric energy transmission and amplification according to a first embodiment of the present invention. Figure 2a is an exploded perspective view of the electrical output device, Figure 2b is an exploded perspective view of the electrical input device applied to the system for the.

The system for transmitting and amplifying electrical energy according to the first embodiment of the present invention is characterized by the electrical input device 100 having an input side N and S magnetic poles rotated at the time of supply of power, and by the magnetic force of the input side N and S magnetic poles. An electric output device having a housing 220 in which an induction coil 230 in which electromotive force is generated by an electromagnetic induction action according to the movement of the axisless rotational field 210 and the axisless rotational field is received. It is provided with a 200, the electrical output device 200 is an output cover closed cover 240 is installed to be overlaid so that the electrical output device 200 is accommodated inside and sealed so that even if exposed to bad weather underwater or outdoors Is provided.

The output part sealing cover 240 may be configured in various ways without any limitations in form or structure as long as it receives the electric output device 200 therein and is watertightly protected. The present embodiment is illustrated in FIG. 2A. As described above, the cover cover 241 is formed of a cylindrical cover body 241 and a cover cover 242 which is fitted to the upper portion of the cover body 241 to be watertightly coupled. At this time, the cover lid 242 has an airtight member 243, such as an o-ring, is embedded therein.

On the other hand, the electrical input device 100, like the electrical output device 200 is provided with an input part sealing cover 140 which is installed to cover the outside. The input part sealing cover 140 may also be configured in various ways without any limitations in shape or structure as long as the electrical input device 100 is accommodated therein to be watertightly protected. It is composed of a main body 141 and the cover cover 142 is fitted to the upper portion of the cover body 141 to be watertightly coupled. At this time, the cover lid 142 has an airtight member 143 such as an O-ring.

In addition, the output shaft 130 of the electric motor 100a constituted by the electrical input device 100 is coupled to the magnetic pole case 150 into which the input side N and S magnetic poles 110 and 120 are inserted and coupled.

The axisless rotation meter 210 may be formed in a circular ball shape as shown in FIG. 1, a cylinder shape as shown in FIG. 2B, or a disk shape.

The case 220 is composed of a case body 222 and the cover 223 for the installation of the axisless rotation meter 210 shown in Figures 2b and 3, it is possible to be separated, the axisless rotation meter 210 The guide protrusions 213 are symmetrically formed on both sides so as to stably perform the rotational movement, and the case grooves in which the guide protrusions 213 are inserted into the case 210 at positions corresponding to the guide protrusions 213 are provided. 224 is formed.

4 is a cross-sectional view of an electrical input device for explaining a first modified example of a system for transmitting and amplifying electrical energy according to a first embodiment of the present invention.

As shown in FIG. 4, the shaftless rotation field 210 has guide grooves 214 symmetrically formed at both sides of the shaftless rotation field 210 so as to stably perform the rotational movement. The case 220 of the corresponding position is formed in a structure in which a case protrusion 225 is inserted into the guide groove 214 is formed.

5 is a view for explaining a second modified example of the system for transmitting and amplifying electric energy according to the first embodiment of the present invention, wherein the electric output device 200 is provided inside the transparent output sealing cover. It is a perspective view which shows the state inserted and projected.

Referring to FIG. 5, the electric output device 200 further includes a lamp 250 connected to the positive and negative terminals of the induction coil 230 to emit light. In this case, the lamp 250 is configured by arranging a light emitting diode (LED) having a small size and low power consumption.

The output part sealing cover 240 of the electric output device 200 is made of a transparent material such as acrylic, and the light emitting diode is disposed and configured as a lamp 250 inside the output part sealing cover 240. .

When the electromotive force is formed in the induction coil 230 of the electrical output device 200 by the operation of the electrical input device 100, the electrical output device 200 according to the second modified example is electrically connected to the lamp 250 Since light is radiated to the outside through the transparent output part sealing cover 240 while being emitted, it may be used as an induction light, an advertisement light, an emergency light, or for play.

In particular, since the lamp 250 is accommodated in the transparent output part sealing cover 240 to ensure watertightness, the lamp 250 may be safely used even in places requiring watertightness such as underwater.

6 is a view for explaining a third modification of the system for transmitting and amplifying electric energy according to the first embodiment of the present invention. The figure briefly illustrates an electric output device, a circuit unit, and a rechargeable battery.

Referring to FIG. 6, the system for delivering and amplifying electric energy is configured to easily utilize or store electric energy output from the electric output device 200.

To this end, it includes a circuit unit 260 for rectifying the power output from the electrical output device 200, and a rechargeable battery 270 that is electrically connected to the circuit unit 260 to charge the applied power.

The circuit unit 260 smoothes the output AC power to form a DC level. As shown in FIG. 6, the circuit unit 260 configures the bridge diode 261 to rectify the voltage of the axisless rotational field 210 and supplies the battery 270 to the storage battery 270. It may be configured to have a delay circuit using a resistor and a capacitor 262 to charge, but is not limited thereto.

In addition, the circuit unit 260 is further provided with a power supply line (power supply cable, not shown) for supplying the power smoothed to the DC level, or a lamp (not shown) that is electrically connected to the circuit unit 260 to emit light. C) may be further provided.

Figures 7a to 7d is a view for explaining the arrangement of the electrical output device in the system for electrical energy transmission and amplification according to the present invention, Figures 7a to 7c is a simplified view of the layout of the electrical output device shown in plan As illustrated, a line connecting reference numeral 200 is an imaginary line, and FIG. 7D is a cutaway perspective view of a portion BB of FIG. 7A.

The system for transmitting and amplifying electric energy according to the present invention is configured by arranging a plurality of electric output devices 200 adjacent to each other, and the shaftless rotating field 210 embedded in each electric output device 200 has an electric input. In order to move in conjunction with the axisless rotation meter 210 movement of the electric output device 200 located at the vertex in contact with the device 100 are spaced apart, spaced enough to form a magnetic field therebetween.

In this case, the electrical input device 100 and the plurality of electrical output devices 200 are installed and fixed to the installation base 300 so that the arrangement interval is kept constant.

For example, the mounting base 300 is formed of a plate-like member, as shown in Figure 7d, the electrical input device 100 is installed in the center of the mounting base 300, the fastening hole formed in the mounting base 300 ( The fastening bar 243 provided in the electrical output device 100 may be installed to the 310 to be fastened. In addition, the installation form of the electric input device 100 and the electric output device 200 can be variously changed and applied to the installation base 300, the input cover sealing cover 140 and the electrical input device of the electric input device 100 The output unit of the output unit sealing cover 240 may be installed by inserting into the installation hole by drilling the installation hole at a predetermined interval to be inserted.

Meanwhile, referring to FIGS. 7A to 7C, the plurality of electric output devices 200 may have another shaftless axis within one shaftless rotation field so that magnetic fields do not overlap each other. It is important to keep the spacing so that only the rotating meter is placed. The reason is that when two or more trailing axisless rotational meters are disposed in the range of one preceding axisless rotational field 210, the magnetic force is canceled while the repulsive force and the force which interfere with each other's movement are acted between two trailing axisless rotational fields. The operation becomes impossible, and thus, the chain movement of the shaftless rotation field is weakened, thereby lowering the power generation efficiency.

To this end, only one axisless rotational field 210 is disposed within the magnetic field range of one axisless rotational field 210, and the other remaining axisless rotational field is disposed to be spaced farther apart to be positioned outside the magnetic field range.

For example, in the system for electric energy transmission and amplification according to the present invention, as shown in FIG. 7A, a plurality of electric output devices 200 are discharged from a log spiral (center vertex) from an electric input device 100 at a peak (center). All diagonal lines and curved lines forming a constant angle φ) are configured to have a curved arrangement structure.

In addition, in the system for electric energy transmission and amplification according to the present invention, as shown in FIG. 7B, a plurality of electrical output devices 200 are concentric circles (two having different radii at the center vertex) from the electrical input device 10 at the vertex. It is configured to have the above-described circle arrangement structure.

In addition, the system for transmitting and amplifying the electric energy according to the present invention, as shown in Figure 7c a plurality of electrical output device 200 from the apex of the electrical input device 10 is radially curved (extended in all directions from the center apex It can be configured to have a configuration that extends to the curved curved structure.

7A to 7C, the plurality of electrical output devices 200 arranged as shown in FIG. 7A and 7C are drawn out from each induction coil 230 to adjust the degree of amplification of the voltage or current of the output power. All of the (-) terminal lines may be connected to each other in series or in parallel, or some of the induction coils 230 of each electric output device 200 may be connected to each other in a series structure, and some may be connected in a parallel structure.

On the other hand, when the plurality of electrical output device 200 is arranged as shown in Figures 7a to 7c it is possible to output electricity while the magnetic force applied from the electrical input device 100 is transferred in series similar to the phenomenon of the domino Since the energy applied from the electrical input device 100 can be converted or amplified into electrical energy without waste, it can be implemented as a system for high efficiency electrical energy transmission and amplification.

8A and 8B are schematic cross-sectional views showing part C of FIG. 7B for explaining a fourth modification of the system for electric energy transfer and amplification according to the first embodiment of the present invention, and FIG. 8A is manual clutching. The clutching apparatus provided with the member moving means is shown, and FIG. 8B shows the clutching apparatus provided with the automatic clutching member moving means.

Referring to FIG. 7B, a system for transmitting and amplifying electric energy includes an electric input device 100, a plurality of electric output devices 200, an installation base on which the electric input device 100 and the electric output device 200 are installed. It is provided with a 300, disposed between the plurality of electrical output device 200 and the rear (magnetic force) from the front (transmission side of the magnetic force) electrical output device 200, the electrical output device installed in a position close to the electrical input device of the apex It is further provided with a clutching device 400 for transmitting the magnetic force to the electric output device of the to-be-transmitted side or performing an intermittent action to block the transmission of the magnetic force.

As shown in FIGS. 8A and 8B, the clutching device 400 includes a clutching member 410 having N and S magnetic poles 412 and 413 in the case 411, and the clutching member 410 in front of the clutching device 400. It is provided with a clutching member moving means 420 for leaving or returning in the magnetic field range of the electrical output device 100.

If the clutching member moving means 420 is a device capable of moving the clutching member 410 can be configured in various ways without limitation, manual clutching member moving means for leaving the clutching member 410 by manual operation 420a or automatic clutching member moving means 420b for automatically leaving the clutching member 410 upon input of a switching signal.

For example, the manual clutching member moving means 420a is protruded to the clutching member 410 as shown in FIG. 8A and is moved and inserted through the through hole of the installation base 300, and the moving shaft 421 and the moving shaft. Shaft fixing member 422 for fixing the 421 to the mounting base 300, the fixing bracket 423 is installed on the mounting base so that the shaft fixing member 422 is inserted and detached, and the clutching member 410 and the installation It is provided between the upper surface of the base 300 is provided with an elastic member 424 for moving the clutching member out of the magnetic field range of the electrical output device 200 when the shaft fixing member 422 is separated.

In addition, the moving shaft 421 protrudes and is formed at the lower end of the moving part 421a. The locking part 421a has the elastic force of the elastic member 424 when the shaft fixing member 422 is detached from the clutching member 410. Even when acting on the fixing bracket 423, the clutching member 410 serves to prevent it from being separated from the installation base 300.

On the other hand, the automatic clutching member moving means 420b is composed of a solenoid 426 to which the rod 426a is connected to the bottom of the clutching member 410 as shown in FIG. 8B. In addition, the rod 426a includes an elastic member for applying an elastic force to the clutching member 410 during the operation of the solenoid (operation in the no-load state in which the pull force of the rod is released) to move out of the magnetic field range of the electric output device 200 ( 427).

FIG. 9 is a schematic diagram illustrating a technical concept of a system for transmitting and amplifying electric energy according to a second embodiment of the present invention. In the system for electric energy transmission and amplification according to the second and third embodiments of the present invention described below, the same or similar components as those of the first embodiment described above are denoted by the same reference numerals, and detailed description thereof will be omitted. .

Referring to FIG. 9, a system for transmitting and amplifying electrical energy according to a second embodiment of the present invention includes an electrical input device 100 having an input side N and S magnetic poles rotated when power is supplied, and this electrical input. At least one electric output device 200 for receiving and outputting power from the device 100 without a power cable, the electric input device 100 is an electromagnet control for controlling the driving of the electromagnet 163, the electromagnet 163 Means 164 are provided.

As shown in FIG. 9, the electromagnet 163 includes a magnetic core 163a such as an iron core, and a field coil 163b wound around the magnetic core 163a to supply current to the field coil 163b. In this case, the input side N and S magnetic poles are formed in the magnetic core 163a.

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

The polarity transducer periodically and repeatedly converts the polarity of the electromagnet 163 so that the magnetic poles generated at the front and rear ends of the electromagnet 163 in contact with the axisless rotation field 210 of the electrical input device 100 are continuously inverted. Perform the function. As a result, the axisless rotation field 210 disposed in contact with the electromagnet 163 is moved by the repulsive force and the attraction force to generate electricity by the electromagnetic induction action.

FIG. 10 is a schematic diagram illustrating a technical concept of a system for transmitting and amplifying electric energy according to a third embodiment of the present invention.

Referring to FIG. 10, a system for transmitting and amplifying electrical energy according to a third embodiment of the present invention includes an electrical input device 100 having an input side N and S magnetic poles rotated upon supply of power, and this electrical input. At least one electrical output device 200 for receiving and outputting power from the device 100 without a power cable, the electrical input device 100 is an electromagnet 171, the input side N formed on the electromagnet 171 and Electromagnet drive means 172 is configured to alternately reverse the position of the S magnetic poles (161,162), the electromagnet drive means 172 is physically connected to rotate the electromagnet 171 to periodically polarize the electromagnet 171 The drive shaft 172a is comprised by the electric motor connected to the electromagnet 171 so that it may convert repeatedly.

As shown in FIG. 10, the electromagnet 171 includes a magnetic core 171a such as an iron core, and a field coil 171b wound around the magnetic core 171a to supply current to the field coil 171b. In this case, N and S magnetic poles of the magnetic core 171a are formed.

When the electric motor is configured as the electromagnet driving means 172 as described above, when electric power is supplied to the electromagnet 171 and the electric motor, the input side N and S magnetic poles are formed on the electromagnet 171, and at the same time, the drive shaft 172a of the motor is rotated so that the input side N and S magnetic poles are rotated, and the magnetic force moves the axisless rotation field 210 of the electrical output device 200 to generate electricity.

What has been described above is only one embodiment for implementing a system for electric energy transmission and amplification according to the present invention, the present invention is not limited to the above embodiment, as claimed in the following claims Those skilled in the art to which the present invention pertains without departing from the gist of the present invention will have the technical idea of the present invention to the extent that various modifications can be made.

100: electrical input device 110: input side N magnetic pole
120: input side S stimulus 130: output shaft
140: airtight cover 163,171: electromagnet
164: electromagnet control means 172: electromagnet driving means
200: electric output device 210: shaftless rotation meter
211: output side S magnetic pole 212: output side S magnetic pole
220: case 230: induction coil
240: Sealed output cover 250: Lamp
300: mounting base 400: clutching device
410: clutching member 420: clutching member moving means

Claims (19)

In the system for electric energy transfer and amplification,
An electrical input device having input side N and S magnetic poles rotated upon supply of power; And
The electromotive force is disposed within the magnetic field range of the input side N and S magnetic poles, and the receiving space is accommodated by the magnetic force of the input side N and S magnetic poles. And at least one electrical output device having a case in which the generated induction coil is wound. The method of claim 1,
The electrical input device
When the external power is supplied, the electrical energy is converted into mechanical energy such as a linear motion or a rotational motion of the output shaft and output, and the electric energy transfer and amplification is characterized in that it comprises a motor having the input N and S magnetic poles on the output shaft. System. The method of claim 1,
An input part sealing cover is provided which is overlaid and installed so that the electric input device is accommodated therein and sealed.
System for electric energy transmission and amplification, characterized in that the output unit is provided with a closed cover is installed so that the electrical output device is accommodated inside the sealed. The method of claim 1,
The axisless rotation field is a system for electric energy transmission and amplification, characterized in that formed in any one of a circular ball, disk shape, cylindrical shape. 5. The method of claim 4,
The shaftless rotation meter has a guide protrusion or a guide groove symmetrically formed at both sides, and the case has a case groove into which the guide protrusion is inserted or a case protrusion inserted into the guide groove. system. The method of claim 1,
An electromagnet in which the input side N and S magnetic poles are formed in the magnetic core when the field coil is wound around the magnetic core so that a current flows through the field coil; And
And electromagnet control means for controlling the driving of the electromagnet to operate the permanent magnet. The method according to claim 6,
The electromagnet control means
And an electromagnetic transducer for controlling an electric current flowing through the field coil to alternately invert the input side N and S magnetic poles formed in the magnetic core. The method of claim 1,
The electrical input device
An electromagnet having a magnetic core and a field coil wound around the magnetic core, wherein an electric current flows through the field coil to form the input side N and S magnetic poles of the magnetic core; And
Electromagnet driving means for alternately inverting positions of the input side N and S magnetic poles,
The electromagnet driving means is a system for electric energy transmission and amplification, characterized in that the drive shaft is configured with a motor connected to the electromagnet so as to periodically and repeatedly convert the polarity to the electromagnet. The method of claim 1,
The electrical output device is a system for electric energy transmission and amplification, characterized in that it comprises a lamp which is connected to the (+) and (-) terminals of the induction coil to emit light. The method of claim 1,
And a circuit unit for smoothing the AC power output from the electric output device to form a DC level. The method of claim 10,
And a rechargeable battery that is electrically connected to the circuit unit and can be charged with power applied thereto. The method of claim 1,
The induction coil is a system for electrical energy transfer and amplification, characterized in that formed of a superconducting material to improve the output efficiency of electricity. The method of claim 12,
The induction coil is a system for electric energy transmission and amplification, characterized in that consisting of graphene (graphene) formed in the plane or line. The method according to any one of claims 1 to 13,
The electrical output device is composed of a plurality of arranged adjacent to each other, each of the axisless rotation meter embedded in the electrical output device is linked to the movement of the axisless rotation meter embedded in the electrical output device of the vertex in contact with the electrical input device. System for electric energy transmission and amplification, characterized in that spaced apart, arranged so as to form a magnetic field between each other so as to move independently. 15. The method of claim 14,
The plurality of axisless rotational field is a system for electric energy transmission and amplification, characterized in that only one axisless rotational field is disposed within the range of one axisless rotational field magnetic field so that the magnetic field does not overlap each other when arranged. 16. The method of claim 15,
Arrangements of the plurality of electric output devices include a log spiral (curve that forms a constant angle φ with all oblique lines exiting from the center vertex), a curved arrangement structure, a concentric circle (two or more circles having different radii at the center vertex), and A system for electric energy transmission and amplification, characterized in that arranged in any one of the radial (curved shape extending in all directions from the center vertex, the curved configuration). 17. The method of claim 16,
Induction coils of the plurality of electrical output devices are connected to each other in series or in parallel, or some of the induction coils of the plurality of electrical output devices are connected in series structure, and some of the electrical energy transfer and System for amplification. 17. The method of claim 16,
N and S magnetic poles are provided between the electrical output device and the case so as to perform an intermittent action to transfer the magnetic force or to block the transmission of the magnetic force from the transmission-side electrical output device of the magnetic force to the transmission-side electrical output device of the magnetic force. A clutching device having a clutching member and a clutching member moving means for deviating or returning the clutching member from the magnetic field range of the transmission-side electric output device of the magnetic force is configured. System. 17. The method of claim 16,
And a mounting base is provided such that the electrical input device and the plurality of electrical output devices are installed while maintaining an interval of arrangement.

Images