TWM467246U - Power generation and electrical device formed using reciprocating type magnet plate - Google Patents

Description

Power generation and electric device formed by reciprocating magnet plate

The present invention relates to a power generation and electric device, and more particularly to a power generation and electric device formed by using a coil plate having a separation coil and a reciprocating magnet plate having a separation magnet; in particular, by utilizing inertial force to sufficiently reduce the motion force In the case of loss, it is possible to obtain strong reciprocating motion and instantaneous power generation.

Conventionally, a motor is a device that converts electrical energy into mechanical energy by the force of a conductor in which a current flows in a magnetic field, usually referred to as a motor. According to the type of power supply, it is divided into DC motor and AC motor. Among them, AC motor is divided into three-phase AC motor and single-phase AC motor. Today, three-phase AC motor is mainly used.

The vast majority of motors use the force of current in a magnetic field to convert electrical energy into mechanical energy, which in turn produces the power of rotational motion.

The motor was introduced in 1831 by Faraday when the electromagnetic induction period was discovered, and the initial motor was a method in which the gravitational force and the repulsive force of the permanent magnet were used to oscillate the operating portion, and the motor was not rotated. In the 1930s, the conventional DC motor type was first introduced using an electromagnet and a DC-magnetized electromagnet, but it was in the research stage and the output was not good.

Later, Faraday and Tesla discovered that the rotating magnetic field was generated from the alternating current, and each of them exclusively introduced a two-phase AC motor. Since the German Dobro Walsky first produced a three-phase AC motor with a output of 100 watts (W) in 1889, the three-phase AC motor has become the mainstream of today's AC motors.

Further, both the direct current motor and the alternating current motor operate on the same principle, and when the current flowing through the conductor is placed in the magnetic field, an electromagnetic force (Laurz force) perpendicular to the direction of the magnetic field is generated. When a magnet is built into the motor to generate a magnetic field, and the wire connected to the shaft is energized, an electromagnetic force is generated, and the rotation is made by the left-hand rule of the Fleming to create power. The electromagnetic force acting on the wire is proportional to the strength of the magnetic field, the strength of the current, and the length of the wire.

On the other hand, the products that have been commercialized around us are mainly developed with industrial equipment that focuses on the functions of conventional power motors. However, because they cannot meet the energy efficiency policies advocated by various circles recently, they are Bicycles, electric motorcycles, and electric vehicles are limited in their application, and thus have become one of the important issues to be overcome.

In the past, in the equipment that strongly urged (torque) force, the conventional drum motor generally tried to meet the necessary conditions by using a reduction gear box or a phase current control 巅 peak (load force), but the inertia force was weakened and initially Since the overcurrent is generated at the time of starting, the power supplied by the battery cannot be effectively used, and at the same time, there are multiple defects such as excessive battery weight and increased cost.

In view of this, the applicant of the present application has disclosed an electric device, such as the Korean Patent Registration No. 0988667 and the Korean Patent Registration No. 1025387, which mainly separate the coils from the radiation form by non-magnetic. a circular plate made of a body, and a rotating magnet circular plate which is separately arranged in a radiation form is disposed above the separation coil fixing plate, and the magnet plate of the rotating circular plate and the coil plate are horizontally crossed. Magnetic force, while giving repulsion and power.

However, the electric device using the circular plate is somewhat limited in application, such as having to be mounted on equipment for imparting rotational motion, and the like, in particular, since the structure is in the form of a circular plate, when the circular plate becomes large, The characteristics of the radiation pattern arrangement, which leads to the decline of the tightness of the circumferential coil and the magnet, or the loss of the movement force, resulting in the defect of strength, speed and power generation.

In order to solve the above problems, the main object of the present invention is to provide a power generation and electric device formed by using a coil plate having a split coil and a reciprocating magnet plate having a separate magnet, which are mainly arranged by the coil body in sequence. The coil plate is composed of a moving magnet plate arranged in order with the magnet, but is not affected by the setting range of the linear motion or the rotary motion equipment, and can be closely arranged when the coil and the magnet are arranged on the coil plate and the magnet plate. , without spacing, and can minimize the loss of athletic power caused thereby.

Moreover, another object of the present invention is to provide a power generation and electric device formed by using a coil plate having a separate coil and a reciprocating magnet plate having a separate magnet, and when performing a reciprocating motion of a strong inertial force, The instantaneous cut-off current and the switching power supply mode sensed by the sensor are performed, and the magnet plate is also accelerated by the compression of the spring to bring about a strong reciprocating motion and thereby increase the power generation.

In order to achieve the above object, the present invention provides an electric device in which a coil plate and a magnet plate maintain a horizontal cross magnetic force while imparting electric power by repulsive force, and the main structure thereof includes:

An upper and lower open type body, which is composed of a rail plate which is opposite to each other in the longitudinal direction, and an end plate which is connected to both side ends of the two side rails and has internal springs formed therein. ;

a fixing plate unit which is fixed in the fuselage plate on both sides of the body, and is composed of a coil plate in which a plurality of coil bodies are arranged in sequence on the upper and lower faces;

a moving plate unit that slides inside the fuselage, but is positioned in an isolated manner from the coil plate at an upper portion and a lower portion of the coil plate, and is arranged on a plurality of magnets in a sequence opposite to the coil plate a member of the lower magnet plate;

a first and second stop sensing sensor, which is disposed on both sides of any coil plate inside the fuselage for sensing the movement of the moving plate unit to reach the destination; and

A first and second activation signal sensors are respectively disposed in the fuselage body at the end panel for sensing the movement of the mobile panel unit to reach the destination.

As described above, the power generation and electric device formed by the coil plate having the split coil and the reciprocating magnet plate having the split magnet has the following functions:

The reciprocating motion is realized, but the equipment for linear motion or rotary motion can be used as needed, and in particular, the loss of the motion force can be minimized by the coil body and the magnet arranged in sequence.

In the interval of reciprocating motion, the instantaneous current cut-off and switching power supply mode can be realized by the induction of the inductor, in particular, the current generated by the cutoff of the current and the compression of the spring can reduce the load generated when the current is not cut off. And accelerate the push of the magnet plate, which in turn gives a strong reciprocating motion while increasing the power generation.

The detailed description of the drawings and the preferred embodiments are set forth in the accompanying drawings.

1‧‧‧Electrical device
100‧‧‧ body
110, 110'‧‧‧ rail plate
111‧‧‧ Guide slot
120, 120'‧‧‧ end board
121, 121'‧‧‧ Spring
200‧‧‧Fixed plate unit
210‧‧‧ coil plate
211, 211'‧‧‧ coil body
220‧‧‧ coil plate bracket
230‧‧‧guides
240‧‧‧Fixed bracket
300‧‧‧Mobile board unit
310, 310'‧‧‧ upper and lower magnet plates
311, 311 '‧‧‧ magnet
320‧‧‧Magnetic plate bracket
321‧‧‧ Guide hole
330‧‧‧ bearing
350‧‧‧Equipment mounting holes
351, 351'‧‧‧ first and second rack
360, 360'‧‧‧ first and second clutch gears
361, 361'‧‧‧ external gear
362, 362'‧‧‧ internal gear
370‧‧‧ shaft gear
400, 400'‧‧‧ first and second stop sensing sensors
500, 500'‧‧‧ first and second start signal sensors
600‧‧‧Control Department
620‧‧‧ phase switching unit
621, 621'‧‧‧ phase switching sensor
631, 632‧‧‧ field effect transistor
700‧‧‧ crankshaft
710‧‧‧ Connecting rod
800‧‧‧Rotary axis
S‧‧‧Virtual Magnetic
H‧‧‧ interval

Fig. 1 is an exploded perspective view showing a power generation and electric device formed by a reciprocating magnet plate.

Fig. 2 is a schematic view showing the combination of a power generation and an electric device formed by a reciprocating magnet plate.

Fig. 3 is a side view showing the power generation and electric device formed by the reciprocating magnet plate of the present invention.

Fig. 4 is a front elevational view showing the power generation and electric device formed by the reciprocating magnet plate of the present invention.

Fig. 5 is a schematic view showing the arrangement state of the coil body and the magnet of the power generation and electric device formed by the reciprocating magnet plate.

Fig. 6 is a schematic view showing a control unit of a power generation and electric device formed by a reciprocating magnet plate.

Fig. 7 is a view showing another embodiment of the power generation and electric device formed by the reciprocating magnet plate of the present invention.

Fig. 8 is a view showing the operation of the reciprocating state of the moving plate unit of the power generation and electric device formed by the reciprocating type magnet plate.

Fig. 9 is a schematic view showing the phase switching of the power generation and electric device formed by the reciprocating magnet plate of the present invention.

Fig. 10 is a view showing an embodiment of a linear motion applicable state of a power generation and electric device formed by a reciprocating magnet plate.

Fig. 11 is a view showing an embodiment of a state in which the rotary motion of the power generation and electric device formed by the reciprocating magnet plate is applied.

The preferred embodiment of the present invention will be described in detail with reference to the drawings.

Fig. 1 is an exploded perspective view showing a power generation and electric device formed by using a reciprocating magnet plate; Fig. 2 is a schematic view showing a combination of a power generation and an electric device formed by using a reciprocating magnet plate; Fig. 3 is a side view showing the power generation and electric device formed by the reciprocating magnet plate of the present invention; and Fig. 4 is a front view showing the power generation and electric device formed by the reciprocating magnet plate.

As shown in FIGS. 1 to 4, the power generation and electric device 1 formed by the reciprocating magnet plate of the present invention comprises a body 100, a fixed plate unit 200, a moving plate unit 300, and a first And stopping the sensing sensor 400, 400' and the first and second activation signal sensors 500, 500'. among them:

The body 100 is composed of two side rail plates 110, 110' having a certain length and in an opposite manner, and an end plate 120 for connecting the two side ends of the two side rail plates 110, 110' and ending the same. The structure of 120' constitutes a rectangular annular shape; and the combination of the rail plates 110, 110' and the end plates 120, 120' can be combined by a normal bolt.

At this time, the rail plates 110, 110' have their upper and lower ends bent to the inside to form the guide grooves 111, thereby allowing the moving plate unit 300 to slide along the guide grooves 111.

Further, the end plates 120, 120' are respectively formed with two springs 121, 121' which are composed of two sets of inner side faces; the springs 121, 121' impart initial thrust to the compression, cushioning and reciprocating movement.

The fixing plate unit 200 has two sides fixed to the rail plate 110, 110', and the upper surface and the lower surface thereof are provided with a coil plate 210, which is a non-magnetic body, and is composed of a coil body 211 having a flat coil shape. The 211' is arranged in the order of the length of the coil plate 210.

At this time, a coil plate bracket 220 for fixing the coil plate 210 is formed on both sides in the width direction of the coil plate 210, and the coil plate bracket 220 is formed with a guide rod 230 extending according to a certain length, and the guide rod 230 is At the end, a fixing bracket 240 for fixing the coil plate 210 to the rail plates 110, 110' is formed, and the fixing bracket 240 is fixed to the rail plate 110, 110' by bolts or the like.

The moving plate unit 300 has two ends connected to the inside of the body 100 in contact with the springs 121, 121', and can be slidably reciprocated along the track plates 110, 110', and is respectively provided with non- The magnetic body is formed on the upper and lower magnet plates 310, 310' so as to maintain a fixed distance from the coil plate 210 at the upper and lower portions of the coil plate 210, and the upper and lower magnet plates 310, 310' are located opposite each other. The coil bodies 211 and 211' on the upper and lower sides of the coil plate 210 are opposed to each other, and a plurality of magnets 311 and 311' are formed in the longitudinal direction of the upper and lower magnet plates 310 and 310'.

Moreover, the upper and lower magnet plates 310, 310' are combined on both sides by a magnet plate holder 320 to maintain the separation degree of the upper and lower magnet plates 310, 310', and the side of the magnet plate holder 320 Then, the guide bar 230 of the fixing plate unit 200 is penetrated, and a horizontal long hole-shaped guide hole 321 is provided to prevent the moving plate unit 300 from being disturbed when moving.

Further, a plate-shaped bearing 330 is formed on the upper and lower ends of the magnet plate holder 320 for receiving the guide groove 111 of the body 100, thereby imparting the track plate 110, 110' and the magnet plate holder 320. The rolling plate unit 300 reciprocates in a state where the coil plate 210 is interposed between the upper and lower magnet plates 310 and 310'.

On the other hand, as shown in Fig. 5, the coil body 211 arranged on the coil plate 210 is in a crossed state so as to be wound in a different direction from the adjacent coil body 211'.

Further, the magnets 311, 311' are continuously formed, and the coil bodies 211, 211' of the coil plate 210 arranged in the opposite position are skipped one by one, and arranged in an asymmetrical manner so that the magnets 311, 311' The magnet 311 of the upper magnet plate 310 and the magnet 311' of the lower magnet plate 310' have a position perpendicular to each other; and the magnets 311, 311' adjacent to each other are formed invisible to the naked eye. Virtual magnetic (S) to maintain the relationship between the top and bottom.

The first and second stop sensing sensors 400, 400' are formed on the body 100, and are disposed at a position away from the moving plate unit 300 on either side of any of the rail plates 110 (or 110'), thereby The moving board unit 300 performs prediction and sensing.

The first and second activation signal sensors 500, 500' are formed inside the body 100, and are disposed inside the end plates 120, 120' at both ends by being built in between the springs 121, 121'. And then the mobile board unit 300 is perceived when it reaches the end point.

On the other hand, as shown in FIG. 6, further comprising a control unit 600 composed of a printed circuit board for applying power to the coil body 211 and receiving the first and second stop sensing sensors 400, 400' The signal, in turn, cuts off the power supply equivalent to the current direction, and receives the signals of the first and second start signal sensors 500, 500' to supply the power in the opposite direction.

Further, on one side of the coil plate 210, the phase switching inductors 621, 621' are further continuously formed so as to be equivalent to the coil body 211 at the end, and the coil body 211 adjacent to the coil body 211 at the end thereof The position of the control unit 600 further includes a phase switching unit 620.

The phase switching inductors 621 and 621' impart the same phase to the virtual magnetic (S) formed between the magnets 311 and 311' and the adjacent magnets 311 and 311'.

On the other hand, as shown in Fig. 7, in the center of any of the upper and lower magnet plates 310, 310', a rectangular mounting hole 350 is formed, but on both sides of the inner circumferential surface in the longitudinal direction of the equipment mounting hole 350. Forming first and second racks 351, 351', respectively, and coupling first and second clutch gears 360, 360' to the first and second racks 351, 351', respectively, and the respective The first and second clutch gears 360, 360' can be coupled by the intermediate shaft gear 370; wherein the respective first and second clutch gears 360, 360' are made up of large diameter external gears 361, 361' and small The inner diameter gears 362, 362' are coupled to the first and second racks 351, 351' by the respective outer gears 361, 361', and by the respective inner gears 362, 362' Connected to the shaft gear 370.

The following is a description of the power generation and electric device formed by the coil plate having the split coil and the reciprocating magnet plate having the split magnet, and the following description will be given in detail as follows:

First, as shown in Fig. 8, first, the control unit 600 applies a current to the coil bodies 211 and 211' of the coil plate 210, and further loads the electric charges guided by the coil bodies 211 and 211' with the magnet. The attraction, repulsive force, and inertial force caused by the magnetism of the magnets 311, 311' of the plates 310, 310' act, so that the moving plate unit 300 moves to one side along the rail plates 110, 110'.

On the other hand, as described above, during the moving of the moving board unit 300, when the end of the moving board unit 300 reaches the first stop sensing sensor 400, the first stop sensing sensor 400 can sense the The end of the moving plate unit 300 is about to reach the end point. At this time, the first stop sensing sensor 400 transmits the sensing signal to the control unit 600. Therefore, the control unit 600 cuts off the current supply equivalent to the moving direction.

Here, the purpose of cutting off the current as described above is to cause a load due to the current direction transition in order to prevent the moving plate unit 300 from suddenly changing direction.

On the other hand, the moving plate unit 300 which is moved to one side by the gravitational force, the repulsion force, and the inertial force as described above generates a cushioning action in the H section by the compression of the spring 121, so that the inertial force is weakened.

Then, the first activation signal sensor 500 formed on the end panel 120 senses the movement of the moving plate unit 300 along with the spring 121 to the end portion, and the sensed signal is sent to the The control unit 600 supplies the current in the reverse direction by the control unit 600.

In other words, the current opposite to the initial start is conducted to the coil bodies 211, 211', and the load of the electric charge guided by the coil bodies 211, 211' is again applied to the magnets 311, 311' of the magnet plates 310, 310'. The attraction, repulsive force and inertial force caused by the magnetic force may be moved to the opposite direction of the moving plate unit 300, and the reciprocating motion is repeatedly performed in the opposite direction, such as reaching the second stop sensing sensor 400', and the second starting signal Sensing and direction conversion of the sensor 500'.

Here, as shown in FIG. 9, when the moving plate unit 300 performs the reciprocating movement, magnets are disposed on both surfaces of the coil body 211, whereby the inertial force is added, and the side portions of the magnet are used to maintain the mutual tension. Further, another virtual magnetic (S) is generated, and the magnets 311, 311' of the upper and lower magnet plates 310, 310' are arranged asymmetrically with each other to obtain a reduction in the gravitational pull, a consistent electronic/physical property, and sufficient Apply the characteristics of the magnet.

Moreover, when a DC power source is applied to the coil bodies 211, 211', a repulsive force is generated, and by the left hand rule of the Fleming, the coil bodies 211, 211' are respectively wound in the other direction to impart the same magnet. The phase of the repulsive force of the 311, 311' and the virtual magnetic (S); it can be seen that when the magnets 311, 311' reach the position of the coil 2, phase switching is also required to maintain the repulsive force in the same direction.

In other words, the phase switching unit 620 can be a circuit including a field-effect transistor (FET).

In other words, the +-phase conversion first senses the actual magnet by the first phase switching inductor 621 formed on the coil plate 210, and the output + power source causes the + electrode to appear on the FET-1 (631) side, and then arrives when the magnet moves. When the second phase switching sensor 621 is generated, the + output is generated and converted from the FET-2 (632) side to the positive electrode, thereby supplying a positive potential corresponding to the magnet transformation to the coil side to generate a repulsive force in a certain direction. Control the movement.

Here, if the outputs of the first and second phase switching sensors 621, 621' are changed, the moving direction of the moving plate unit 300 is also changed by 180 degrees due to the influence of the Fleming left-hand rule, but the circulation is 1 mmA. The change in current can be achieved, so that the function of controlling the speed and switching direction can be easily achieved.

On the other hand, the electric device 1 that performs the above-described functions performs a basic linear reciprocating motion, so that the linear motion can be converted into the rotational motion to drive the crankshaft 700 to rotate.

In other words, as shown in FIG. 10, it is only necessary to connect the connecting rod 710 connected to the crankshaft 700 to the moving plate unit 300 of the electric device 1; when the electric device 1 is reciprocally driven, the connecting rod 710 A vertical linear reciprocating motion can be performed, whereby the rotational force can be imparted to the crankshaft 700.

At this time, the end plate 120' of the rail plates 110, 110' for terminating the fuselage 100 of the electric device 1 can be used in the dismounting state; at this time, the moving plate unit 300 can expand the reciprocating distance.

Further, the rotational driving of the first and second clutch gears 360, 360' using the preferred embodiment of the present invention can be achieved.

In other words, as shown in FIG. 11, the shaft gear 370 is for connecting the rotating shaft; in this embodiment, when the moving plate unit 300 of the electric device 1 reciprocates, it moves to one side. When the first clutch gear 360 coupled to the first rack 351 imparts a rotational force, the opposite rotational force of the shaft gear 370 coupled to the inner gear 362 of the first clutch gear 360 is imparted, whereby the rotary shaft 800 can be driven to rotate. At this time, even if a rotational force is applied to the internal gear 362' of the second clutch gear 360', the external gear 361' is free to rotate, thereby being unaffected by the movement of the moving plate unit 300.

Conversely, when the moving plate unit 300 is moved to the side direction thereof, and thus the second clutch gear 360' coupled to the second rack 351' is given a rotational force, it is within the second clutch gear 360'. The shaft gear 370 coupled to the gear 362' imparts a rotational force, and thereby the rotary shaft 800 can be driven to rotate; at this time, the first clutch gear 360 is freely rotated and thus is not disturbed by the movement of the moving plate unit 300.

On the other hand, the electric device 1 can be used as a power generating device, which branches the coil bodies 211, 211' and connects them to an additional transformer (not shown), and thus can also serve as an additional The battery (not shown) is used for charging. Further, since the electric device is mounted to the additional linear motion equipment or the rotary motion equipment as described above, the moving plate unit 300 is reciprocated, whereby the coil body 211, 211' generates a current, and the current is generated. By converting the transformer to a DC power source and charging the additionally prepared battery, it can also double as a generator.

Further, when the battery is charged by the action of the above-described generator, since the DC power source of the battery can be used as the power of the equipment, the effect of effectively using the energy can be achieved.

As described above, the power generation and electric device formed by the reciprocating magnet plate is excellent in reciprocating linear motion by repulsive force and inertial force, and is applicable to linear motion equipment or rotary motion equipment. Application.

The disclosure of the present invention is a preferred embodiment. Any change or modification of the present invention originating from the technical idea of the present invention and being easily inferred by those skilled in the art will not deviate from the scope of patent rights of the present invention.

In summary, this case, regardless of its purpose, means and efficacy, is showing its technical characteristics that are different from the conventional ones, and its first new type is practical and suitable, and it is also in compliance with the new patent requirements. I will be granted a patent at an early date.

100‧‧‧ body

110, 110’‧‧‧ rail plates

111‧‧‧ Guide slot

120, 120’ ‧ ‧ end board

121, 121' ‧ ‧ spring

200‧‧‧Fixed plate unit

210‧‧‧ coil plate

211‧‧‧ coil body

220‧‧‧ coil plate bracket

240‧‧‧Fixed bracket

300‧‧‧Mobile board unit

310, 310'‧‧‧ upper and lower magnet plates

320‧‧‧Magnetic plate bracket

321‧‧‧ Guide hole

330‧‧‧ bearing

350‧‧‧Equipment mounting holes

400, 400' ‧ ‧ first and second stop sensing sensors

Claims (8)

A power generation and electric device formed by using a reciprocating magnet plate includes:
A fuselage, which is in an open upper and lower form, is formed by a rail plate having opposite sides in a longitudinal direction, and a side plate for connecting the side rails of the two side rail plates, and an end plate of each spring is formed inside. Constitute;
a fixing plate unit which is fixed on the rail plate on both sides of the fuselage, and is composed of a coil plate in which a plurality of coil bodies are arranged in sequence on the upper and lower surfaces;
a moving plate unit that slides inside the fuselage, but is positioned in a separated manner from the coil plate at an upper portion and a lower portion of the coil plate, and a plurality of magnets are sequentially arranged on a surface opposite to the coil plate And the lower magnet plate;
a first and second stop sensing sensor disposed on the two sides of the coil plate inside the fuselage for sensing the movement of the moving board unit to reach the destination; and a first and second start signal The sensors are respectively disposed in the fuselage body in the fuselage to sense that the mobile board unit that moves to reach the destination.
For example, in the power generation and electric device described in claim 1, wherein:
The rail plate of the fuselage is bent to the inner side and the lower end to form a guide groove;
The fixed plate unit includes:
a coil plate bracket is located on both sides of the coil plate for fixing the coil plates on both sides;
a guide rod extending outwardly from the coil plate bracket; and a fixing bracket connected to the guide rod for fixing the coil plate to the rail plate on both sides;
The mobile board unit includes:
a magnet plate bracket for fixing the upper and lower magnet plates to be separated, and a long hole-shaped guide hole is formed on a side surface thereof for being movable without being interfered by the guide rod of the fixing plate unit;
A bearing is disposed on the upper and lower ends of the magnet plate bracket and is accommodated in the guide groove of the body, thereby imparting a frictional friction to the rail plate and the magnet plate bracket.
The power generation and electric device according to claim 1, wherein the coil body arranged on the upper portion and the lower portion of the coil plate is in a cross form so as to be wound in different directions with the adjacent coil body. By.
The power generation and electric device according to claim 1, wherein the magnets arranged on the upper and lower magnet plates are continuously formed to jump the coil body of the coil plate arranged in the opposite position. Across the grid.
The power generation and electric device according to claim 1, further comprising a control unit that applies power to the coil body and receives signals of the first and second stop sensing sensors, thereby cutting off the current equivalent The power supply in the direction is performed, and the signals of the first and second start signal sensors are received, and then the power source in the opposite direction is supplied.
The power generation and electric device according to claim 1, wherein the magnets arranged on the upper and lower magnet plates are arranged asymmetrically with each other, whereby the magnet and the lower magnet of the upper magnet plate are arranged. The magnets of the plates are located at positions that intersect each other.
The power generation and electric device according to claim 1 or 6, wherein one side of the coil plate further continuously forms a phase switching inductor so as to be adjacent to the coil body at the end The position of the coil body is only the same phase formed between the magnets adjacent to the phase switching inductor.
The power generation and electric device according to claim 1, wherein a rectangular mounting hole is further formed in a center of any of the upper and lower magnet plates, and both sides of the inner peripheral surface in the longitudinal direction of the mounting hole of the device Forming first and second racks respectively, and coupling the first and second clutch gears to the first and second clutch gears, wherein the first and second clutch gears are coupled to each other by the shaft gears The respective first and second clutch gears are composed of a large-diameter external gear and a small-diameter internal gear, and are coupled to the first and second racks by the respective external gears, and by the respective The internal gear is connected to the shaft gear.