KR101837038B1 - Magnet generator and generating method - Google Patents

Abstract

The present invention relates to a magnet generator, and more particularly, to a magnet generator including a stator having coils wound around the core; A rotor rotatably installed in the stator and provided with a permanent magnet capable of generating a current in the coils using magnetic energy during rotation; And in the control mode, the core becomes an electromagnet and a magnetization control signal is applied to the coil so that the rotor can be forcibly rotated by the force of a magnetic force, and in the power generation mode, the electric energy And at least one of the coils corresponding to the permanent magnets may be arranged to be shifted from the magnetic axis of the permanent magnet.

Description

[0001] Magnet generator and generating method [0002]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a magnet generator and a power generation method using the magnet generator. More particularly, the present invention relates to a magnet generator capable of producing electric energy using magnetic energy and a power generation method using the same.

Electricity is used as a major energy source in the industrial society, but due to the depletion of fossil energy, investment and development are rapidly progressing in various alternative power generation facilities such as solar power generation, wind power generation, and tidal power generation.

Electricity generated from a power generation facility is supplied to household and industrial devices or products requiring a relatively large amount of electric power through a power cable, and is used as an energy source. However, electric appliances such as small-sized household appliances and household goods, Most of the products required are equipped with a secondary battery such as a primary battery or a lithium ion battery and are used as a power source.

However, since the battery is limited to the use time, the battery must be recharged when the power is discharged. However, since the battery can not be charged while it is in motion or outdoors, the battery can not be used at the time of discharging. In order to solve these problems, various self-generating devices have recently been developed so as to be able to charge the necessary power source in an emergency.

Generally, a generator is a device that receives mechanical energy from an external power source to convert it into electric energy. As well known as the external power source, a turbine turbine, an electric motor, a gasoline engine, or the like can be used. As a method of generating electric energy using the external power source, there are a hydroelectric power generation using a difference in potential energy of water and a power generation using natural power such as wind power using wind power. In addition, And thermal power generation and nuclear power generation that utilize natural resources such as natural gas and electricity to generate electricity by artificial methods. In addition, solar power generation using solar heat has been actively studied recently.

In the generator using the external power source as described above, the basic principle of power generation is based on the relative relationship between the electrons and the magnetic field in the conductor. That is, when the conductor breaks the magnetic flux, a voltage is induced across the conductor, Current flows through the voltage. At this time, the magnitude of the induced voltage E is given by E = Blv, which is the product of the magnetic flux density B, the length l of the conductor continuing its magnetization and the moving speed v of the conductor.

However, the above-described power generation mechanism necessarily requires an external power source, and power generation can not be continued unless mechanical energy is continuously supplied from an external power source. In addition, there is a problem that energy conversion efficiency of power generation is deteriorated due to energy loss due to friction generated when mechanical energy of an external power source used for power generation is converted into electrical energy through a generator.

Published Patent Publication No. 10-2005-0086346 (Aug. 30, 2005)

Disclosure of Invention Technical Problem [8] Accordingly, the present invention has been made keeping in mind the above problems occurring in the prior art, and it is an object of the present invention to provide a control method of an internal combustion engine, And to provide a magnet generator capable of self-power generation even without the power generator. However, these problems are exemplary and do not limit the scope of the present invention.

According to an aspect of the present invention, there is provided a magnet generator including: a stator having coils wound around the core; A rotor rotatably installed in the stator and provided with a permanent magnet capable of generating a current in the coils using magnetic energy during rotation; And in the control mode, the core becomes an electromagnet and a magnetization control signal is applied to the coil so that the rotor can be forcibly rotated by the force of a magnetic force, and in the power generation mode, the electric energy And at least one of the coils corresponding to the permanent magnets may be arranged to be shifted from the magnetic axis of the permanent magnet.

Further, according to the present invention, the core may be carbon steel containing a carbon component.

According to another aspect of the present invention, there is provided a stator comprising: a cylindrical fixed body made of an insulating resin material, the stator having an opening formed in a front side and a rear side, and a plurality of holes formed in an outer side; A coil module detachably installed in the hole of the fixed body, the coil module including the core, a coil base of an insulating resin material surrounding the core, and a coil wound around the coil base; And a shaft support plate installed in the opening of the fixed body and rotatably supporting the rotation shaft of the rotor using a bearing.

According to the present invention, there is provided a stator comprising: a stator, which is inserted into the fixed body of the stator, rotatably rotatably supported on the shaft support plate, and has a plurality of grooves formed on an outer surface thereof; A rotating body of the form; And a permanent magnet inserted into the groove of the rotating body.

According to the present invention, when the number of the permanent magnets installed on the outer diameter surface of the rotor relative to one point of the rotating shaft is divided by the number of the coils of the stator, the number of the permanent magnets is irrational or infinite .

According to the present invention, the controller sequentially supplies electric power using lines connected to the coils, rotates the rotor by sensing the rotation of the rotor as a Hall IC, When the reference rotation speed is reached, the electric energy generated in the coil can be collected by the battery.

According to another aspect of the present invention, the control unit may include a main circuit unit that controls at least the control mode and the power generation mode at least as a whole, a decoder circuit unit that receives a data signal and transfers each output signal to the transistor, An on-off circuit part for performing an on-off function for switching the alternating current to direct current or direct current to alternating current by using a bridge rectifying circuit, a voltage measuring circuit for measuring the applied voltage, A temperature / voltage measurement circuit section for measuring temperature and voltage with an applied signal, a current measurement circuit section for measuring an applied current, a communication circuit section for communicating each signal at a predetermined time interval, and combinations thereof As shown in FIG.

According to an aspect of the present invention, there is provided a method of generating electricity using a magnet generator, including: a stator having coils wound around the core; A rotor rotatably installed in the stator and provided with a permanent magnet capable of generating a current in the coils using magnetic energy during rotation; And in the control mode, the core becomes an electromagnet and a magnetization control signal is applied to the coil so that the rotor can be forcibly rotated by the force of a magnetic force, and in the power generation mode, the electric energy Wherein at least one of the coils corresponding to the permanent magnets is disposed so as to be shifted from a magnetic axis of the permanent magnet, the method comprising the steps of: An initial rotating step of rotating the rotor at first; An initial power generation step of producing initial power from the rotor being rotated; Performing a control mode to increase the rotational speed of the rotor by performing the control mode with the initial power; And a power generation step in which the controller performs the power generation mode to produce electric energy.

According to another aspect of the present invention, there is also provided a method for controlling an electric power generating apparatus, comprising the steps of: performing the control mode and repeating the power generation step alternately to increase the number of rotations of the rotor at a reference rotation speed.

Also, according to the present invention, in the step of amplifying the number of revolutions, the reference revolving speed may be 3000 RPM to 9000 RPM.

Further, according to the present invention, the power generation step may include: a DC conversion step of converting the produced primary AC into DC; And an AC converting step of converting the converted DC into a desired secondary AC.

According to some embodiments of the present invention as described above, self-power can be generated without consuming external power for a long time while consuming magnetic energy. Of course, the scope of the present invention is not limited by these effects.

1 to 3 are conceptual diagrams showing a magnet generator according to some embodiments of the present invention.
4 is a cross-sectional view illustrating a magnet generator according to some other embodiments of the present invention.
5 is a conceptual diagram showing the basic principle of the control unit of the magnet generator of FIG.
6 is a block diagram showing an example of a control unit of the magnet generator of FIG.
7 is a circuit diagram showing an example of an entire circuit diagram of the control unit of Fig.
8 is a circuit diagram showing an example of a main circuit unit of the control unit of Fig.
9 is a circuit diagram showing an example of a decoder circuit portion of the control unit of Fig.
10 is a circuit diagram showing an example of a relay circuit portion of the control unit of Fig.
11 is a circuit diagram showing an example of the on-off circuit portion of the control unit in Fig.
12 is a circuit diagram showing an example of a voltage measuring circuit unit of the control unit of Fig.
13 is a circuit diagram showing an example of the temperature / voltage measurement circuit unit of the control unit of Fig.
14 is a circuit diagram showing an example of a current measuring circuit unit of the control unit of Fig.
15 is a circuit diagram showing an example of a communication circuit unit of the control unit of Fig.
16 is a flowchart showing a control method using a magnet generator according to some embodiments of the present invention.

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

The embodiments of the present invention are described in order to more fully explain the present invention to those skilled in the art, and the following embodiments may be modified into various other forms, It is not limited to the embodiment. Rather, these embodiments are provided so that this disclosure will be more thorough and complete, and will fully convey the concept of the invention to those skilled in the art. In the drawings, the thickness and size of each layer are exaggerated for convenience and clarity of explanation.

1 to 3 are conceptual diagrams showing a magnet generator 100 according to some embodiments of the present invention.

1 to 3, a magnet generator 100 according to some embodiments of the present invention may largely include a stator 10, a rotor 20, and a control unit 30.

For example, the stator 10 may be a generally cylindrical structure in which coils 12 wound around the core 11 are installed.

For example, the rotor 20 may include a permanent magnet (not shown) which is rotatably installed in the stator 10 and is capable of generating current in the coils 12 by using magnetic energy during rotation 21 may be provided.

In the control mode, for example, the control unit 30 applies a magnetization control signal to the coil 12 so that the core 11 becomes an electromagnet and the rotor 20 can be forcibly rotated by the force of a magnetic force A circuit board, a processor, a microprocessor, a central processing unit, an arithmetic unit, a program form, and the like, capable of collecting electric energy generated in the coils 12 by rotation of the rotor 20 in a power generation mode The storage device may be an electronic device including one or more of the storage devices recorded with the recording device.

Here, the magnetic force of the permanent magnet 21 is not permanently preserved. The present invention converts magnetic force energy into electric energy. For example, the magnetic force may be lost after 5 to 10 years.

Although not shown in the drawings, a cooling device for retaining magnetic force, such as a blower, a blowing hole, and a flow path, is provided in order to prevent the temperature of the permanent magnet 21 from rising excessively to maintain the magnetic force of the permanent magnet 21 as much as possible Can be installed.

More specifically, for example, as shown in FIGS. 1 to 3, the number of the permanent magnets 21 mounted on the outer surface of the rotor 20 on the basis of one point of the rotation axis S And the number of the coils 12 of the stator 10 corresponding thereto. The term irrational number refers to an infinite prime number that does not circulate when expressed as a prime number, and an infinite prime number can be a cyclic prime number as a prime number.

Therefore, at least one of the coils 12 corresponding to the permanent magnets 21 may be disposed to be shifted from the magnetic axis of the permanent magnets 21.

For example, as shown in FIGS. 1 to 3, the number of the permanent magnets 21 mounted on the outer surface of the rotor 20 is 12, , And the number of the coils of the stator 10 corresponding thereto may be eleven.

If the number of the permanent magnets 21 is divided by the number of the coils 12 of the stator 10 corresponding to the number of the permanent magnets 21, the number of the permanent magnets 21 may be 12/11.

2, in the control mode of the coil 12, the coil 12 of the stator 10 is connected to the corresponding surface of the rotor 20 corresponding to the permanent magnet 21, The polarities of the electromagnets formed are alternately arranged at N and S poles at specific times, and at least a part of the electromagnets may be formed such that N poles and N poles or S poles and S poles are adjacent to each other.

Therefore, as shown in FIG. 2, since the permanent magnets 21 do not correspond exactly to the positions of the coils 12 of the stator 10, the rotational forces are abruptly changed by attraction by the corresponding positions The rotation loss can be prevented, and the change in torque can be continuously increased little by little while rotating very smoothly. As a result, the number of revolutions can be greatly increased even with a small force.

Therefore, as shown in FIG. 1, when the rotor 20 is initially driven with a small force using the attraction force or the power of the motor, the control unit 30 The control unit 30 amplifies the rotation speed of the rotor 20 while performing the control mode so that the control unit 30 performs the power generation mode as shown in FIG. To collect the power of the coil 12 that is induced in accordance with the control signal. This control mode and the power generation mode can be continuously collected while repeating a very short time.

As a result, self-power generation can be achieved without consuming external power over a long period of time while consuming the magnetic energy of the permanent magnets 21. However, since the magnetic force of the permanent magnet 21 is not permanent as the name suggests, it has been confirmed from repeated experiments that the magnetic force of the permanent magnet 21 is consumed and the electric power production is decreased after a long period of time. Therefore, the present invention is not a permanent organ.

 4 is a cross-sectional view illustrating a magnet generator 200 according to some other embodiments of the present invention.

4, the magnet generator 200 according to some other embodiments of the present invention includes a fixed casing, a front cover, a rear cover, a stator 10, a rotor 20, And a control unit 30.

For example, the fixed case has a housing space that can protect the stator 10 and the rotor 20 from external foreign matter or external force, and the stator 10 and the rotor 20 are accommodated in the housing space. And then the front cover and the rear cover are covered on the front and rear sides of the fixing case to manufacture a product.

More specifically, for example, as shown in FIG. 4, the stator 10 is a generally cylindrical structure capable of accommodating the rotor 20 therein, A cylindrical fixed body 13 made of an insulating resin material and provided with coils 12 wound in a wrapping shape and having openings formed in the front and rear sides respectively and having a plurality of holes formed in an outer diameter face thereof, A coil base 15 of an insulating resin material surrounding the core 11 and a coil 12 wound around the coil base 15 so as to be detachably installed in the hole of the coil base 13, And a shaft support plate provided on the opening of the fixed body and rotatably supporting the rotary shaft of the rotor using a bearing, . ≪ / RTI > Here, the core 11 may include carbon steel or iron oxide containing a carbon component so as to be easily electropolished. Particularly, the core 11 may be made of carbon steel of various materials so as to minimize the eddy current and facilitate the magnetization.

Therefore, a plurality of the coil modules 14 can be inserted into the holes H1 of the fixed body 13 to form a fixed structure, and the rotor 20, which will be described later, It is possible to support the rotation freely.

More specifically, for example, as shown in FIG. 4, the rotor 20 is rotatably installed in the stator 10, and the coil 12 is rotated using magnetic force energy during rotation. And a permanent magnet (21) capable of generating an electric current in the fixed body (13), wherein the rotary body (S) is inserted into the fixed body (13) of the stator And a permanent magnet 21 inserted into the groove H2 of the rotating body 22. The permanent magnet 21 is inserted into the groove H2 of the rotating body 22, . ≪ / RTI >

More specifically, for example, the coil-facing surface of the permanent magnet 21 may be formed with a spherical surface to further narrow the distance from the coil 12. [

The number of the permanent magnets 21 installed on the outer circumferential surface of the rotor 20 relative to one point of the rotation axis S is set to be larger than the number of the permanent magnets 21 of the coils 12 of the stator 10, Divide by number can be irrational or infinite prime.

For example, the number of the permanent magnets 21 equally mounted on the outer surface of the rotor 20 is 12, and the number of the permanent magnets 21 of the coils of the stator 10 The number may be eleven.

The coil 12 of the stator 10 is arranged such that the polarities of the electromagnets formed on the corresponding surfaces of the rotor 20 corresponding to the permanent magnets 21 alternate between N poles and S poles And at least a part of them may be arranged so that the N pole and the N pole or the S pole and the S pole are adjacent to each other. This arrangement can smoothly and continuously amplify the change in the rotation torque.

At least a part of the stator 10 or at least a part of the rotor 20 may be made of an insulating resin material so as to prevent the eddy current.

Particularly, in order to minimize the eddy current, for example, the fixed body 13 of the stator 10, the rotating body 22 of the rotor 20, the coil base 15 and the like are made of an insulating resin material As shown in FIG. For example, various poly-series synthetic resins such as acrylic and plastic can be applied.

Therefore, as shown in FIG. 4, since the permanent magnets 21 do not correspond exactly to the positions of the coils 12 of the stator 10, the rotational forces are abruptly varied The rotation loss can be prevented, and the change in torque can be continuously increased little by little while rotating very smoothly. As a result, the number of revolutions can be greatly increased even with a small force.

5 is a conceptual diagram showing the basic principle of the control unit 30 of the magnet generator 100 of FIG.

5, the stator 10 has a plurality of cores, and one of the permanent magnets on the rotor 20 can be positioned near the core, and the rotor 20 And can be pulled by the core which is a magnetic body and rotated in a red arrow direction.

 Then, when the permanent magnet becomes closer to the core, the center core begins to be magnetized, which may generate a small current in the core flowing in the designation circuit of the green arrow.

At this time, the current "direction" of the core does not send current in a direction in which the transistor can be opened, and the transistor may remain in a closed state.

That is, if the permanent magnets are closer to the core, the remaining transistors remain in that state and battery energy consumption does not occur.

However, mechanically generated inertia energy is stored in the form of an inertial force in the rotor even when the amount of inertia energy is small, and this can be repeatedly generated until the permanent magnet is positioned directly on the front face of the core.

At this time, the core is magnetized, and the magnetization of the core may gradually increase until the magnet is located closer to the center of the core. This phenomenon can produce a small current in the circuit, and even if the change in magnetic field stops, no current is consumed in the circuit.

That is, when the permanent magnets of the rotor are magnetized in the core of the core, they attract each other, and now the magnetization of the core has the S pole so that the direction of the N pole can be directed downward. Thus, the permanent magnet can be attracted to the core.

However, the rotor has a fixed rotation "time ", so that the permanent magnet can slip the" gravity point " At this time, the magnetic field in the core starts to decrease and the magnetic field change in the core can be used to generate the current in the circuit. At this time, the current may flow in the opposite direction, as shown in the red arrow in the figure, which allows the transistor to open and allow current to flow from the battery through the circuit as shown by the green arrow.

Subsequently, the current in the battery can now magnetize the core to the opposite polarity, and the N polarity of the core is directed toward the rotor. This increases the rotation time of the rotor and allows the rotor to rotate more quickly. This process occurs until the core is magnetized, and the current in the circuit also stops when the change in magnetic field stops.

At this time, the control section can quickly stop the transistor from closing and bear the electron polarity to the main coil. That is, if there is no current remaining, the current begins to decrease and the circuit current can flow like a green arrow that points down.

Here, other permanent magnets can be brought close to other coils, and a current flowing when these permanent magnets slip the coils can be generated.

That is, as the rotor is rotated faster, the current flows more frequently and the current can be generated continuously.

6 is a block diagram showing an example of the control unit 30 of the magnet generator 100 of Fig.

6, the controller 30 sequentially supplies electric power using the lines connected to the coils 12, detects the rotation of the rotor 20 as a Hall IC And various electronic components that can rotate the rotor 20 and collect electrical energy generated from the coil 12 by a battery when the rotor 20 reaches a reference rotation speed.

6, the control unit 30 includes a main circuit unit 31, a decoder circuit unit 32, a relay circuit unit 33, an on-off circuit unit 34, a voltage measuring circuit unit 35, a temperature / The voltage measurement circuit unit 36, the current measurement circuit unit 37, the communication circuit unit 38, and combinations thereof.

7 is a circuit diagram showing an example of an overall circuit diagram of the control section 30 of Fig.

As shown in FIG. 7, for example, when a coil of 11 lines is composed of permanent magnets of 12 lines by using the power of a 5V (volte) battery, And the rotor rotates the rotor at a predetermined time interval by sensing the HALL IC. The back electromotive force energy generated from the coil is supplied to the inverter to generate electric power, and a part of the electric power can be charged to the battery to charge the battery.

8 is a circuit diagram showing an example of the main circuit section 31 of the control section 30 of Fig.

For example, the main circuit unit 31 is capable of controlling the control mode and the power generation mode as a whole. The main circuit unit 31 receives actual data controlled by the MISO (PORTB6) bit by the programmer and outputs the signals S_SIM1 to S_SIM8 to the ICs 7 and ICs 74HC237D (demultiplexer) to generate a generator and to control the temperature sensor screen display.

9 is a circuit diagram showing an example of the decoder circuit section 32 of the control section 30 of Fig.

As shown in FIG. 9, for example, the decoder circuit portion 32 receives the data signals and transmits the respective output signals to the transistors. The decoder circuit portion 32 receives the data signals S_SIM1 to S_SIM8 and transmits the Y0 to Y6 output signals to the respective transistors .

10 is a circuit diagram showing an example of the relay circuit portion 33 of the control unit 30 of Fig.

10, the relay circuit portion 33 distributes the output signal output from the decoder circuit portion 32 to the coils in the transistor and transmits the output signal. For example, the relay circuit portion 33 sequentially outputs signals transmitted from the demultiplexer It can be transferred from the transducer to the coil.

11 is a circuit diagram showing an example of the on-off circuit 34 of the control unit 30 of Fig.

As shown in FIG. 11, the on-off circuit 34 performs an on-off function of switching an alternating current to a direct current or a direct current to an alternating current by using a bridge rectifying circuit. For example, When supplied, the bridge rectifier circuit B6S + generates alternating current and can perform the ON / OFF function through the DC-DC converter.

12 is a circuit diagram showing an example of the voltage measurement circuit unit 35 of the control unit 30 in Fig.

As shown in FIG. 12, the voltage measuring circuit unit 35 measures an applied voltage. For example, the voltage measured through the ADC1 register and the ADC2 from the main IC can be measured and displayed through the inverter.

13 is a circuit diagram showing an example of the temperature / voltage measurement circuit unit 36 of the control unit 30 in Fig.

As shown in FIG. 13, the temperature / voltage measuring circuit unit 36 measures temperature and voltage using an applied signal. For example, the temperature / voltage measuring circuit unit 36 can display temperature and voltage by connecting to a screen using PR1. In other words, the MAX3371 can reduce supply current to <1μA and provide a shutdown mode with I / O pins in a high impedance state. Here, PR2 can be used to transmit data to the temperature sensor. The voltage can be + 5V.

14 is a circuit diagram showing an example of the current measuring circuit unit 37 of the control unit 30 in Fig.

As shown in FIG. 14, the current measuring circuit unit 37 measures an applied current, and can measure the current to the ADC 8 using, for example, the ACS 712.

15 is a circuit diagram showing an example of the communication circuit unit 38 of the control unit 30 of Fig.

As shown in FIG. 15, the communication circuit 38 is capable of communicating each signal at a predetermined time interval, for example, a set value MAX232 CMOS initial set value SETTING and an asynchronous communication RS-232 port Lt; / RTI &gt;

However, the various circuit parts described above are not limited to the drawings, and various types of various circuit parts can be applied.

16 is a flowchart showing a control method using a magnet generator according to some embodiments of the present invention.

1 to 16, a control method using a magnet generator according to some embodiments of the present invention includes an initial rotation (rotation) of rotating the rotor 20 for the first time using an external power such as a start motor or a pulling force, The control unit 30 controls the rotor 20 so that the rotor 20 is rotated by the initial power to generate the initial power from the rotor 20, A power generation step S4 for generating electric energy by performing the power generation mode and a control mode execution step S3 for controlling the power generation mode, And repeating the step S4 repeatedly to increase the number of rotations of the rotor at the reference rotation speed.

Here, if the number of revolutions is too slow, inertial force can not be sufficiently obtained, and if it is too fast, various kinds of heat generation and parts wear may occur mechanically.

Therefore, in the simulation and repetitive experimental results, preferably in the step of amplifying the number of revolutions (S5), the reference rotational speed may be 3000 RPM to 9000 RPM.

16, the power production step S4 includes a DC converting step S41 for converting the produced primary AC into DC, and an AC converting step S41 for converting the converted DC into a desired secondary AC And a conversion step S42.

As a result of experiments with actual products, it was possible to produce electric power of 10 kilowatts or more per hour while consuming magnetic energy using initial driving force. However, the results of these experiments are derived only from limited time and limited goods, and may affect the quality of the permanent magnet, the number of turns of the coil, and the material of the product.

While the present invention has been described with reference to exemplary embodiments, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the invention. Accordingly, the true scope of the present invention should be determined by the technical idea of the appended claims.

1: Fixed case
2: Front cover
3: Rear cover
10: Stator
11: Core
12: Coil
13: Fixing body
14: Coil module
15: Coil base
16:
20: Rotor
21: permanent magnet
22: rotating body
30:
100, 200: Magnet generator

Claims (11)

A stator on which coils wound in a shape to surround the core are installed;
A rotor rotatably installed in the stator and provided with a permanent magnet capable of generating a current in the coils using magnetic energy during rotation; And
In the control mode, a magnetization control signal is applied to the coil so that the core becomes an electromagnet and the rotor can be forcibly rotated by the force of a magnetic force. In the power generation mode, the electric energy generated in the coils by the rotation of the rotor And a control unit
Wherein at least one of the coils corresponding to the permanent magnet is arranged to be shifted from a magnetic axis of the permanent magnet,
The stator comprises:
A cylindrical fixed body of an insulating resin material having an opening formed at a front side and a rear side thereof and a plurality of holes formed at an outer side;
A coil module detachably installed in the hole of the fixed body, the coil module including the core, a coil base of an insulating resin material surrounding the core, and a coil wound around the coil base; And
A shaft support plate installed in the opening of the fixed body and rotatably supporting the rotary shaft of the rotor using a bearing;
/ RTI &gt;
The rotor
A cylindrical rotating body inserted in the fixed body of the stator and rotatably supported on the shaft support plate and rotatably supported on the shaft support plate and having a plurality of grooves formed on an outer diameter surface thereof; And
A permanent magnet inserted into the groove of the rotating body;
/ RTI &gt;
The number of the permanent magnets provided on the outer surface of the rotor relative to one point of the rotary shaft is divided by the number of the coils of the stator,
Wherein the coil is arranged such that the polarity of an electromagnet formed on a corresponding surface of the rotor corresponding to the permanent magnet alternates between an N pole and an S pole at a specific time and at least part of the N pole and the N pole or the S pole and the S pole The magnet generator being formed adjacent to the magnet generator. The method according to claim 1,
Wherein the core is carbon steel containing a carbon component. delete delete delete The method according to claim 1,
Wherein,
The power is sequentially supplied by using the lines connected to the coils, the rotation of the rotor is sensed by the Hall IC to rotate the rotor, and when the rotor reaches the reference rotation speed, A magnet generator that collects electric energy into a battery. The method according to claim 6,
The control unit includes a main circuit unit controlling at least the control mode and the power generation mode as a whole, a decoder circuit unit receiving a data signal and transmitting each output signal to the transistor, A relay circuit part for distributing and delivering the power to the bridge circuit; an on / off circuit part for performing an on / off function of switching an alternating current to a direct current or a direct current to an alternating current by using a bridge rectifying circuit; a voltage measuring circuit part for measuring an applied voltage; A voltage measuring circuit for measuring a voltage, a current measuring circuit for measuring an applied current, a communication circuit for communicating each signal at a predetermined time interval, and a combination thereof, . A stator on which coils wound in a shape to surround the core are installed; A rotor rotatably installed in the stator and provided with a permanent magnet capable of generating a current in the coils using magnetic energy during rotation; And in the control mode, the core becomes an electromagnet and a magnetization control signal is applied to the coil so that the rotor can be forcibly rotated by the force of a magnetic force, and in the power generation mode, the electric energy Wherein at least one of the coils corresponding to the permanent magnets is disposed to be shifted from a magnetic axis of the permanent magnet, and the stator has openings formed respectively forward and rearward, And a coil base which is made of an insulating resin material and which surrounds the core, and a coil base which is provided on the coil base, A coil module including a coil to be wound and a coil module provided in the opening of the fixed body, Wherein the rotor is inserted into the fixed body of the stator, the rotating shaft is rotatably supported on the shaft supporting plate so as to be rotatable, and a plurality of And a permanent magnet inserted into the groove of the rotating body, wherein the permanent magnet is installed on the outer surface of the rotor with respect to one point of the rotating shaft, The number of turns of the electromagnet formed on the corresponding surface of the rotor corresponding to the number of the coils of the stator corresponding to the number of the permanent magnets of the rotor becomes an irregular or infinite prime number, S poles alternately, and at least a part of which is formed of N poles and N poles, or S poles and S poles are formed adjacent to each other, As a power generation method using a group,
An initial rotation step of initially rotating the rotor using external power;
An initial power generation step of producing initial power from the rotor being rotated;
Performing a control mode to increase the rotational speed of the rotor by performing the control mode with the initial power; And
A power generation step in which the control unit performs electric power generation to produce electric energy;
And a power generator for generating power by using the magnet generator. 9. The method of claim 8,
Performing the control mode execution step and the power generation step alternately and repeatedly to increase the number of rotations of the rotor at a reference rotation speed;
Further comprising the steps of: 10. The method of claim 9,
Wherein the reference rotation speed is 3000 RPM to 9000 RPM in the rotation number amplification step. 9. The method of claim 8,
The power generation step may include:
A DC converting step of converting the produced primary AC into DC; And
An AC converting step of converting the converted DC into a second-order AC of a desired shape;
Further comprising the steps of:

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