KR20130099773A

KR20130099773A - Magnetic prime mover

Info

Publication number: KR20130099773A
Application number: KR1020120022079A
Authority: KR
Inventors: 장권득
Original assignee: 장권득
Priority date: 2012-02-29
Filing date: 2012-02-29
Publication date: 2013-09-06

Abstract

PURPOSE: A magnetic motor is provided to save energy for operating a sliding unit using magnetic force of a permanent magnet. CONSTITUTION: As to a magnetic motor, a plurality of rotators (8) is attached to a rotary plate at constant distances. The rotary plate comprises left and right demagnetized support plates (4, 5) and a rotary board (7) as a rotary shaft (2). Stators (9, 9') are placed on an inner circumference of the left and right support plates, and gap units (13, 13') maintain effective distances between the rotators and stators. A plurality of sliding units is installed to be slide back and forth at an inlet (12) by a magnetic force supplied to a sliding unit bunch(20) connected to both sides of an electromagnet (6). The rotators continuously rotate around a rotary shaft by the magnetic force generated by the sliding unit.

Description

Magnetic prime mover {omitted}

The present invention is a magnetic prime mover using a permanent magnet and an electromagnet, and fixed to a plurality of rotors of a predetermined standard on a circular rotary plate fixed to a rotating shaft inside the body consisting of a non-magnetic body left and right support plate and a cylindrical wall And by accessing the rotor and stator at effective intervals, and by moving a plurality of slides of a certain size in front of the square shaft shaft so as to move forward and backward between the stators, It is related to the magnetic prime mover, in which the rider makes the rider entrance forward and backward so that the rotor is continuously rotated to generate the rotational force.

In other words, in powering the magnetic force of the permanent magnet, the magnetic motor of the maximal saving of the operator's operating energy, the rotor and stator combined with a plurality of pieces of the magnetic force is increased than the one magnet,

Both poles of the rotor act on both left and right stators, repulsion and attraction at the same time to achieve more than 70% of the effect. One electromagnet actuates two activators, saving more than 40% of energy and separating activators by a bunch of chucks. Saves more than 60% energy,

The ratio of the number of rotor poles to the number of stator poles is 8: 5, which is the method of generating the maximum rotational force by the repulsion and attraction between the rotor and the stator. The first method is to save the operator's operating force, and the noise is minimized by matching the rotor with the cylindrical surface and the circumferential surface.

The pre-reverse action of the slider converts the resistance, which is the magnetic field between the stators, into a rotational force, and increases the rotational force by more than 60% .In general, it is a magnetic motor driven by 70% or more of the magnetic force of the rotor and stator. In addition, the present invention is simple and simple in construction, and the mechanical friction part is a square shaft shaft, a shaft support plate, and a cylindrical tube (wall) in the bearing and the swivels of the rotating shaft, so that there is no mechanical noise. There is little characteristic of failure

One commonly known magnet prime mover (10-2010-0040793) has been filed as a source, and its constituent point is' a magnetic prime mover using permanent magnets,

The top plate is a non-magnetic material (4) and the wall (7) of the body (2) comprising the stop base plate 3, a plurality of stator permanent magnets with the same polarity to the predetermined size to the upper peripheral surface (S② ~ N

) Is fixed on the radiograph, and the space (P1, P2, P3, P4) constitutes a space for forward and backward flow between a certain number of stators, and the hem (5) A plurality of connecting rods 9 are fixed, and the rotors R1, R2, and R3 are attached to the connecting rods, respectively, so that the actuator moves the rotor forward and backward by the operation of the upper chem 5. And, the supporter (P1, P2, P3, P4) is attached to each support plate and the upper and lower ends of the guide support pins (14, 14 '), respectively, so as to be able to flow, the other side is fixed to support the cylindrical wall, A spring 15, 15 'is inserted into the guide support pin between the support plate and the wall, and the fluid is actuated by the holding action of the

tack plates

12, 12', 12 ", 12"'operated by the chem operation. Magnetic prime mover using a magnetic material characterized by the configuration to move forward. ' As the fluid is slid by the operation of the upper chem, it is pointed out that the rotation itself does not violate the law of energy conservation because it violates the problem of accuracy and the law of rotation and energy conservation. Become,

In addition, Japanese Laid-open Patent Publication magnetic force and spring prime mover (Japanese Patent Application Laid-Open No. 2006-141189) have been disclosed, and its constituent elements are '(A) N-pole S-poles of fixed permanent magnets combined in a cylindrical shape, and a rotating magnet is inserted therein. When inserted, the surface magnet rotates with strong force from the center of the stationary magnet N and S poles. The side magnet rotates with strong force from the axis of the n or S pole of the stationary magnet to the end (X). Dividing it into non-metal and inserting magnet in it rotates with strong force, but closing the gap of non-metal with soft iron, the magnetic circuit comes out and the rotation force becomes infinite. Also, it is a two-stage stator magnet. C) Pass through the main shaft (Q) Rotate with strong force even if it is pulled up to the upper end of the cam or down to the lower end. It is the limit of the surface of the stationary magnet from 5mm to 30mm. ,

In the spring prime mover (motor), the spring's net speed exceeds the motion compared to the falling speed of 9.6m, and the cam is attached to the power of the rotor (H) and the spring is also contracted by the cam and (J) flat bar. (V) When the porch is struck, the rotor performs centrifugal movement with strong force and high speed. The sum of these devices is within the scope of the claims. ' , The invention is not composed of the composition of the fluid, generating the magnetic induction, and is not the principle of equilibrium and balance

The magnetic prime mover according to the present invention fundamentally solves the problems of the prior art and progresses progress, and is filed as a circularly arranged stator with a certain interval, which stably combines a plurality of permanent magnets of a constant distance. Fixed, so that a plurality of rotors combined with a single permanent magnet of a predetermined size are fixed to the circular rotating plate, and the stator is moved to the left and right of the rotor. It is configured so that the rotor can pass the resistance of the magnetic field between the stators without resistance. The external energy causes the stirrer to move forward and backward to the magnetic field between the stators, such as the operation of the piston of the engine. Its purpose is to configure it to occur

In addition, the rider moving forward and backward with external energy is composed of a power source, a timing magnet switch, an electromagnet, and a swarm of chucks.The timing magnet switch, which is turned on by the magnetic force of the rotor, is a switch immediately before the rotor receives the resistance of the magnetic field between the stators. Is fixed at the position on the cylindrical tube where ON is turned on, and the electromagnet is fixed to the cylindrical tube, respectively.

Magnetic force prime mover using a magnetic body according to the present invention for solving the above problems and the axis of rotation in the center of the body. A rotating plate (rotator) having eight rotors fixed to the outer circumference is fixedly installed on the rotating shaft, and five stators are fixed to the peripheral surfaces of the inward surfaces of the left and right rotating shafts at fixed intervals (R space part). The magnetic force of the electromagnet is used to install the swarm of swivels that are moved backward and backward between the stators, and the timing magnet switch operated by the rotor is fixed to the cylindrical tube wall between the rotor and the resistance.

The stirrer is fixed to the front end of the square shaft shaft, the buffer plate is fitted, and the magnetic pole of the ring-shaped magnet on the square shaft shaft guide plate is bonded to the S pole for the left side and the N pole for the right side, and to the left and right support plates. The guide plate is fixed to the cylindrical tube by inserting it inside the cylindrical tube fixed to the support plate where the entrance door is configured, and spaced apart by a certain distance.The guide plate is fixed to the rear end of the square push shaft, and then the floating magnet and the spacer The operator magnet is fixed to the guide plate and the buffer plate is attached to the both ends of the electromagnet, and the device is fixed to the cylindrical body closely with the left and right operator magnets.

The forward and backward operation of the activator causes a magnetic induction effect to change the position of the magnetic field between the stators and to increase or decrease the magnetic force at both ends of the stator (electromagnetic operation is operated by a timing magnet switch).

The timing magnet switch operated by the rotor magnetic force is fixed at the position of the cylindrical tube which is turned on just before the rotor passes the resistance.

As described above, the ratio between the number of rotors and the number of stators between the rotor, the stator, and the sliders is 8: 5, and the two sliders are separated by the sliders, the forward reversing method, the rotor bipolar rotation method, and one electromagnet. The mechanical configuration of the operating method, the magnetic induction effect of the slider, the ratio of magnetic force between the rotor and the stator, etc. makes the magnetic force inherent in the permanent magnet more than 70%, and the input-to-output more than 10 times more efficient. Not only can it be obtained, but it is economical because it is a power that transcends time and space such as quasi-noise, semi-permanent, underwater, underground, and all-weather weather conditions.

Hereinafter, described in detail with reference to the accompanying drawings the magnetic force prime mover using a magnetic material according to the present invention.

1 is an external perspective view of a magnetic prime mover according to the present invention, Figure 2 is an illustration of the arrangement of the fixed magnet attached to the left and right inward peripheral surface of the magnetic prime mover according to the present invention, Figure 3 is a magnetic force prime mover according to the present invention Exemplary state in which the rotor is placed on the stator magnet attached to the left and right inward peripheral surface of the operation,

Figure 4 is an illustration of the operation of the rotor, stator, slider of the magnetic prime mover according to the present invention, Figure 5 is an illustration of the relationship between the rotor, stator, slider of the magnetic prime mover according to the present invention, Figure 6 Fig. 7 is a view illustrating the position of the installed state of the activator bundle of the magnetic prime mover according to the invention, Figure 7 is a partial enlarged cross-sectional view of the synchronous bundle of the magnetic prime mover according to the present invention.

Figure 8 is an illustration of the forward and backward operating state of the magnetic prime mover activator according to the present invention, Figure 9 is an exploded perspective view of the magnetic prime mover right chuck bundle according to the present invention.

The magnetic force prime mover according to the present invention constitutes a body 1 made of a non-magnetic body, and is composed of left and right support plates 4 and 5 and cylindrical tubular bodies 10 and 10 ', and includes a rotating plate inside the body 1. 7) The left and right support plates 4 and 5 are attached to the rotating shaft 2 to which the bearing shaft 3 is coupled to facilitate the rotation of the rotating shaft 2, and each of the left and right support plates 4 and 5 has five wet ends. Punching the entrance of the pupil 12 (12 ') inwards, respectively, and inwardly attached to both sides of the swunger entrances (20, 20'), the electromagnet (6) (6) ') Electrically connecting device

To make the permanent magnets of a single floating body of a certain standard vertical

5 stators (9) (9 ') joined together with a space of about 7: 1 so that the magnetic poles of the stator (9) (9') are clockwise on the inward surface of the left support plate (4) from the N pole to the S pole. To the right support plate (5) so that only the pole is S → N pole

To make the permanent magnets with a single floating shape of a certain standard vertical

The eight rotors (8) and (8 '), which are combined with each other, are fixed to the circular rotor plate (7) and (7') so that the left side is the N pole and the right side is the S pole.

The activator bundle 20, 20 'is made of a certain standard and data of the modern components, and the support plates 16, 16' are fixed to the middle of the cylindrical tube 10, 10 'and the buffer plate (front) of the support plate ( 15) (15 '), and attach the polarity of the spaced magnets (17) and (17') to the S pole for the left side and the N pole for the right side, and to the front end of the square shaft (21) (21 '). The slides 14 and 14 'are fixed and pushed into the support plates 16 and 16' and flow with the flow plates 18 and 18 'at the rear end so that the spaced apart magnets 17 and 17' and the repulsive force are applied. It is constructed by fixing magnets 19 and 19 '

The shock absorbing plates 15 and 15 'are attached to both ends of the electromagnets 6 and 6' and fixed to the cylindrical tubular bodies 10 and 10 'with polarities such that the repulsive force is applied to the moving magnets 19 and 19'. And the timing magnet switch is fixed to a point of the cylindrical tube body 10 (10 ') operated by the magnetic force of the rotor immediately before the rotor (8) (8') receives resistance,

Wiring between power supply → back panel → main switch → timing magnet switch → electromagnet

Main switch 23 is OFF: Left, one timing magnet switch 24 is ON, and 14 of the 16 rotors ((8) (8 ') are rotating.

The main male position (23) is ON: one electromagnet (6) (6 ') is operated, two left and right swingers operate one by one → instantaneous rotation → one electromagnet is operated, swinger (14) (14') 2 1 operation → 1 instantaneous switch OFF, 1 ON, 1 instantaneous electromagnets ON → OFF → ON → OFF consecutively Therefore, all 16 rotors are operated simultaneously with repulsive force and attraction force, resulting in more than 70% rotational efficiency.

The prime mover body (1) is a support cylindrical wall (22) for supporting left and right support plates (4) and (5) made of a non-magnetic material, and the rotor (8) (8 ') at the left and right support plates and a stop portion supported by the cylindrical support wall. ) The ratio of the number of magnetic poles to the number of stators (9) and (9 ') is 8: 5, the ratio of length is about 1: 4.2, the magnetic force is about 6: 1, and the stator (9) (9') and the stool ( 14) (14 ') length ratio should be about 7: 1, and the rotors 8, 8' combined with several permanent magnets of a certain standard will be attached to the rotor plate 7 and fixed. Is fixed to the surface of the rotating plate 7 so that the N pole and the right side become the S pole, and are fitted to the left and right support plates 4 and 5 to display the support cylindrical wall 22 and the position reference point, and the left support plate 4 is inward. The stator (9) (9 '), which combines a plurality of permanent magnets on the surface, is attached and fixed at regular intervals (13, 13') so that the N pole-S pole is clockwise, and the right support plate ( 5) Just attach it to be S-pole-N-pole And, to close-up the rotor 8, the stator with the effective spacing to the left and right of (9) (9, 8 ') is fixed to be the reference point matches

The rotor 8, 8 'resists the stirrer 14, 14' spaced by external energy (electromagnet: 6 ') just before the stator 9, 9' receives a resistance of the magnetic field. By moving the rotor 8, 8 'by rotating the resistance by the magnetic induction effect, and moving the rotor 14, immediately after the rotor 8, 8' passes the resistance. 14 ') is reversed so that the rotor continues to rotate

That is, the resistance of the rotor is moved back and forth to the slider entrance (12, 12 ') by the external energy to the activator (14, 14'), so that the resistance is converted to rotational force, the input output is more than 20 times.

7, 8, and 9, as shown in Fig. 7, the activator 14 on the left and right support plates 4, 5 in the forward and backward movement of the activator 14, 14 'by the external energy of the electromagnet. (14 ') Abutment bundle 20, 20' is connected to the position through which the entrances 12 and 12 'are made to pass.

The mover bundles 20, 20 'are fixed to the mover 14, 14' at the tip of the square shaft 21, 21 'in a non-magnetic cylindrical tube (10, 10') and Insert the buffer plate 15, 15 'and the support plate 16, 16' and the spaced magnets 17 and 17 ', and the left side of the spaced magnet is S pole and the right side is N pole. The supporting plates 16, 16 'are fixed to the cylindrical pipe body at predetermined positions, and the flow plates 18, 18' and the moving magnets 19 are provided so that the spaced magnets 17, 17 'and the repulsive force are applied. 19 '), and then the buffer plates 15 and 15' are attached to each side so that the repulsive force is applied between the polarities of the ring-shaped electromagnets 6 and 6 'and the moving magnets 19 and 19'. It is installed on both sides of the magnets 19 and 19 'and fixed to the cylindrical tubes 10 and 10', and the timing magnet switch is applied to the magnetic force of the rotor just before the rotors 8 and 8 'receive resistance. To the cylindrical wall position where the switch

Power supply → distribution board → main switch → timing magnet switch → electromagnet gun. That is, mover 14, 14 'between stator 9, 9' by magnetic force, timing magnet switch, rotor 8 (8 ') ON by magnetic force → Electromagnet operation → Operation magnet operation → Square push shaft forward → Slider is rotated and rotor 8 and 8' are rotated.

In addition, the left and right swivels (20, 20 ') of the magnetic force prime mover according to the present invention is installed in the sliding doors (12, 12') of the left and right support plates (4) (5) and the mover (14) (14 ') is a certain standard combined (combined) structure in which the back of the stator (9) (9') advances back to the space (13) (13 ') to generate a magnetic induction effect. 10 ') Slider plate-Square plate shaft-Buffer plate-Support plate-Spacer magnet-Flow plate-Swivel magnet in the center of the center, Buffer plate (15) (15'), Support plate (16) (16 '), Spacer magnet (17) and (17 ') are fixed to the center of the cylindrical tube body (10, 10'), and the slide plate (14) (14 ') is fixed to the front end of the square shaft (21) (21') to support the plate ( 16) (16 ') into the passage and fix the flow plates (18) and (18') and the magnets (19) and (19 ') at the rear end.

For the left side, the S pole of the spacer magnet 17 is bonded to the support plate 16, and the right side spacer 17 'causes the N pole to be in contact with the support plate 16', and the floating magnets 19 (19) ') Causes the spaced magnet (17') and the repulsive force to act

Electromagnets 6 and 6 'are provided with buffer plates 15 and 15' at both ends thereof, and connected to the floating magnets 19 and 19 'and the floating magnets 19 and 19' so that the repulsive force is applied. Fixes to wall (22) on bundle (20, 20 ')

A stirrer 14 immediately before the rotor 8, 8 ′ receives the magnetic field resistance of the spacers 13, 13 ′ by the timing magnet switch 24 operated by the magnetic force of the rotor 8, 8 ′. 14 ') is installed on the body (1)

Simplified calculation (1 place) of 14 (14 ') operating force for the sliders, the separation force is 4kg <4kg + Xkg

In situ force is 4kg + x kg <4kg + x kg + y kg

The magnetic force of the electromagnet is x kg + y kg, based on the principle of x. y value is less than 2kg

If the stator (9) (9 ') anode magnetic force is 2 kg each, the mover (14) (14') separation force consumes more than 4 kg of energy, so the separation magnets (17) (17 ') and the moving magnets (19) (19) ') Spaced apart the activator (14, 14) by the repulsive force between

When the timing magnet switch 24 is turned on, the electromagnets 6 and 6 'are actuated and the repulsive force is applied to the floating magnets 19 and 19' to move the activators 14 and 14 'back to their original positions. When the timing magnet switch 24 is OFF, the regular walker 14 and 14 'are spaced again.

Therefore, when the timing magnet switch 24 is repeatedly turned on and off, the activators 14 and 14 'continue to move forward and backward, and the rotor continues to rotate.

1 is an external perspective view of a magnetic prime mover according to the present invention,

Figure 2 is an illustration of the arrangement of the stator magnet attached to the left and right inward peripheral surface of the magnetic prime mover according to the present invention,

Figure 3 is an exemplary view showing a state in which the rotor is placed on the stator magnet attached to the left and right inward peripheral surface of the magnetic prime mover according to the present invention,

Figure 4 is an illustration of the operation of the rotor, the stator, the activator of the magnetic prime mover according to the present invention,

5 is an exemplary diagram illustrating a relationship between a rotor, a stator, and a sliding element of the magnetic prime mover according to the present invention;

Figure 6 is an exemplary position view of the installation state of the swarm of the magnetic prime mover according to the present invention,

Figure 7 is a partial enlarged cross-sectional view of the activator bundle of the magnetic prime mover according to the present invention,

8 is a front, reverse operation state diagram of the magnetic motor prime mover according to the present invention,

Figure 9 is an exploded perspective view of the magnetic prime mover right slider bundle according to the present invention

10 is a side configuration example of a magnetic prime mover electromagnet according to the present invention

11 is an exemplary wiring diagram of a magnetic motor prime mover according to the present invention.

12 is an enlarged cross-sectional view illustrating a swarm of a magnetic prime mover according to the present invention.

Description of the Related Art [0002]

1 body, 2 rotating shaft, 3, 3 'bearing, 4, 5 left and right support plate,

6, 6 ': electromagnet, 7: rotating plate, 8, 8': rotor, 9, 9 ': stator,

10, 10 ': cylindrical body, 11: fixed medium (bolt, piece, etc.),

12, 12 ': Slider entrance, 13, 13': Spacing, 14, 14 ': Slider,

15, 15 ': buffer plate, 16, 16': support plate, 17, 17 ': spacer magnet,

18, 18 ': fluid plate, 19, 19': floating magnet, 20, 20 ': bundle of activators,

21, 21 ': Square push shaft 22, 22': Support cylindrical wall (cylindrical wall body to support the left and right support plate fixedly) 23: Main switch 24: Timing magnet switch (attached inside the cylindrical wall) 25: Storage battery

Claims

In the magnetic motor using permanent magnets and electromagnets,

A plurality of rotors (8) (8 ') of a certain standard are fixedly spaced on the rotating plate (7) having the left and right support plates (4) (5) and the rotating plate (7) made of non-magnetic material as the rotating shaft (2). And a plurality of stators 9, 9 'of a predetermined size as a pair on each inward peripheral surface of the left and right support plates 4, 5, as a group. 5 pairs are attached and fixed, and then the effective spacing is maintained between the rotors 8, 8 'and the stators 9, 9', and the wet ends connected to both sides of the electromagnets 6, 6 '. By the magnetic force of the electromagnet supplied in the baluster bundle 20, 20 ', a plurality of sliders 14, 14' of a predetermined size configured such that a square thrust axis is moved backwards and forwards between the stators 9, 9 '. The mover entrances (12) and (12 ') formed in the gaps (13) and (13') of the interval is installed to move backward, the mover (14) (14) by an electromagnet (6) (6 ') which is external energy. ') Causes the walker door (12) (12') to move forward and backward A rotor (8) (8 ') is a magnetic motor, it characterized in that a continuous rotation force, the rotation axis to be rotated

2. The rectangular thrust shafts 21 and 21 ′ are provided in the intermediate portion in the non-magnetic cylindrical tubular body 10 and 10 ′, and the support plates 16 and 16 ′ as well as the flow plate. (18) (18 '), and the buffer plates (15) and (15') are adhered to the support plate, and the polarities of the spaced magnets (17) and (17 ') are bonded to the left S pole and the right N pole on the opposite side. and,

The slide holder is fixed to the tip of the square rod shaft 21 (21 ') and flows into the cylindrical tube (10) (10'), and the support plate is fixed to the cylindrical tube, and the floating magnet (19) (19 ') and the spaced apart magnet ((17) (17 ') to fix the polarity so that the repulsive force is applied, and the shock absorbing plate 15, 15' attached to both ends of the electromagnet fixed to the cylindrical tube and the timing magnet switch just before the rotor receives resistance Magnetic motor, characterized in that wiring is made between power supply → distribution board → main switch → timing magnet switch → electromagnet by fixing to the point of cylindrical tube operated by magnetic force of rotor

The number (quantity) ratio of the rotor and stator is 8: 5, the length of the rotor is about 1: stator 4.2, the magnetic force is the ratio of rotor about 6: stator 1: the spacing between rotors is 1: 2, The distance between the stators is about 1: 0.7 times the stator, and the magnetic poles are characterized by the stator installation configuration of the rotor poles left and right, sprinter spacing, electromagnet operation, and stimulator magnetic induction.