WO2011132907A2

WO2011132907A2 - Disk-type module for both electric generation and electromotion using anode magnetization point

Info

Publication number: WO2011132907A2
Application number: PCT/KR2011/002779
Authority: WO
Inventors: 장석호
Original assignee: 주식회사런에너지
Priority date: 2010-04-19
Filing date: 2011-04-19
Publication date: 2011-10-27
Also published as: WO2011132907A3; KR20110116371A

Abstract

The present invention relates to a module for achieving electric generation or electromotion using an anode magnetization point of a permanent magnet. More specifically, divided magnet bodies each of which is made of at least two permanent magnets overlapped on one another are radially spaced from each other on a first disk, induction coils which correspond to or are twice as many as the divided magnet bodies are dividedly disposed on a second disk distanced from the first disk, and the first disk or the second disk is selectively connected to and fixed on a rotation axis, wherein the divided magnet bodies are fixedly disposed such that the anode magnetization point thereof faces the induction coils. Accordingly, the divided magnet bodies net-matched with the area of the induction coils, and another magnet group created between the divided magnet bodies generate two times as much efficiency than the prior art during one rotation; since the induction coil is disposed at a portion to which the strongest magnetic power is induced by the magnet having an anode magnetization point, a structure of forming symmetrical states at both side of a coil or the upper and lower sides thereof, which is required in the prior art, is unnecessary; and since a high electric generation or electromotion efficiency is provided although divided magnet bodies are disposed only at one side with respect to the induction coils, the manufacturing and production costs are reduced, and also the thickness or area of an entire module is remarkably reduced, which enables production in a slimmer and more compact shape. In addition, the module for both electric generation and electromotion according to the present invention can be used as an electric power generator capable of generating electric power from rotation power which acts on a rotation axis, or can be applied to an electric motor in which alternating power is directly supplied to an induction coil to rotate the rotation axis with high efficiency.

Description

Disc-driven combined electric module using anode magnetization point

The present invention relates to a module for generating power or electric power by using a positive electrode contact point of a permanent magnet, and more specifically, to form a disk of rotation and non-rotation on the axis of rotation, and the induction coil in the spaced disk And a split magnet is disposed radially, wherein the split magnet is formed so that the anodic bonding point of one or more overlapping permanent magnets is directed toward the induction coil, and thus the induction coil due to the anodic bonding point having the maximum amount of magnetic force. Efficient power generation from the or by applying an alternating power from the induction coil to enable high-efficiency transmission due to the attraction and repulsive force with the divided magnet.

A generator is a device that converts mechanical energy into electrical energy. When a cylindrical magnetic body is rotated by rotating power from hydraulic, wave, or steam or diesel engines, it is located near the magnetic body. It is a device that generates electric current by inducing charge in a coil wound on an iron core. That is, in the general power generation apparatus, when a rotor made of a magnetic material rotates inside a stator core in a state in which a coil is wound, electricity is generated and flows in the coil of the stator.

Power generators that can be easily seen around us include generators for bicycle lights, and generators for cars are the same principle. The only difference from the bicycle generator is that the permanent magnet is built into the coil of the bicycle, but the electromagnetic generator is wound with an electromagnet (rotor coil) rather than a permanent magnet. Since the magnetic material having a heavy weight should be rotated, there is a problem in that excessive maneuverability or rotational force is required.

In addition, since the core core for inductive activation of the conventional method is attracted to each other and the rotational magnetic material in the center, excessive rotational kinetic force is required to exceed the attraction force, so the energy consumption is extremely high. In addition, the attraction force acts as a rotational resistance of the magnetic body, resulting in unnecessary consumption of the rotational power for rotating the magnetic body.

In particular, the conventional cylindrical magnetic material and the core core has only a four-pole induction due to the limitation of space, so the high-speed rotation is required to produce the required electricity has a problem of extremely low economic efficiency. In addition, when the magnetic material is forcibly rotated by using the rotational force of a separate drive motor, and the electricity produced from the power generation device is to be converted and used through a transformer, the electricity lost from the drive motor and the power generation device. As energy is enormous, power generation systems of this type are typically known to have an energy efficiency of about 35%, making them extremely inefficient and uneconomical.

In addition, an electric motor is a device that converts electrical energy into mechanical energy by using a force received by a current-carrying conductor in a magnetic field and generally refers to a motor. According to the type of power, it is classified into DC motor and AC motor. AC motor is divided into three phase AC and single phase AC. Today, three phase AC motor is mainly used. A device that converts electrical energy into mechanical work by using the force that electric currents receive in a magnetic field. Most electric motors produce rotational power, but also produce linear motion.

The motor started to be made when Faraday discovered electromagnetic induction in 1831. Early motors were made to swing the moving part without rotating by using the attraction force and repulsive force of the permanent magnet. In the 1830s, today's DC motor types were first created using armatures and DC-excited electromagnets, but with low output and only a research stage. Later, when Ferraris and Tesla discovered a rotating magnetic field created by alternating current, each independently invented a two-phase alternating current motor. Three-phase AC motors have become the mainstream of today's AC motors since Dobrowalski, Germany, first made a three-phase three-phase AC motor in 1889.

In addition, both the DC motor and the AC motor operate on the same principle. When a conductor in which current flows is placed in a magnetic field, electromagnetic force (Lorentz force) is generated in a direction perpendicular to the direction of the magnetic field. A magnet is placed inside the motor to create a magnetic field, and when a current flows through the wire connected to the shaft, an electromagnetic force is generated, which is rotated by Fleming's left-hand law to generate power. The electromagnetic force acting on the conductor is proportional to the strength of the magnetic field, the strength of the current and the length of the conductor.

The most common electric motor according to this principle is a universal basic configuration in which a rotor of permanent magnets or electromagnets is built in a stator of permanent magnets or electromagnets. In particular, when the DC motor has four contacts, the rotor made of electromagnet receives electric power through the contact point, so that continuous rotational motion occurs through attraction and repulsive force by electromagneticization.

However, such a general electric motor is substantially cylindrical and has a permanent magnet or an electromagnet as a component of the rotating core, and in the process of alternately rotating the attractive force and repulsive force of each pole, the mobility or rotational endurance is reduced due to the weight or magnetic attraction of the rotating central shaft. And, the alternating function of 6 polarity or less is that the efficiency is extremely limited due to the limitation of manpower and repulsive force.

In particular, in the case of a DC motor, the initial starting force is excellent, whereas when the load is generated on the rotating side by the power supply method as described above, when the speed is lowered, the DC resistance is lowered, and heat is suddenly generated due to a sudden increase in supply power demand. The problem is a combination. As a result, power consumption of the main power and the rotational power versus the power consumption of the device to be added due to the above problems are not overcome.

Accordingly, in order to overcome various problems of the generator or the motor as described above, the generator or the motor in the form of a disk has been devised. Such a disk-type power generator or motor has a magnet body having different polarities sequentially connected to the disk, such as in Japanese Patent Laid-Open Publication No. 14-153036, to correspond to both sides of a rotating plate in which the induction coil is dividedly arranged. As the rotating plate having the induction coil is rotated, the magnetic force is induced from the magnet body into the induction coil to generate power.

In addition, Korean Patent No. 0683472 discloses a coil wound around a non-magnetic plastic coil frame to be fixedly attached to a coil support plate, and a rotating shaft having a flat plate attached with magnets is fixed left and right close to the coil support plate. The coil support plate to which the coil bundle is coupled is fixed by the support plate fixing member, and the magnet support plate to which the magnets are attached is rotated by the rotating shaft so that the coil is wound on the magnetic plate which is magnetic. It has been devised a disk rotary generator characterized in that the power is obtained with less power than a typical generator.

In the conventional disc-type generator as shown in FIG. 1, the

induction coils

101 and 101 ′ are radially disposed on the coil plate 100, which is a non-rotating body, and the rotating shaft 110 is disposed on both sides of the coil plate 100. The magnetic plates 120 and 120 'which are rotated together with each other are disposed to be spaced apart from each other, and the magnetic bodies 121 and 121' corresponding to each other are separately disposed on the magnetic plates 120 and 120 ', respectively. The opposing magnet bodies 121 and 121 'are configured to have different polarities so that mutual attraction forces act.

However, looking at the arrangement of the magnet body for the conventional disk-type generators as described above, since the state of bonding between the magnet body is made or the center portion of the magnet body arranged radially is bonded, the number of magnets and the exact matching In order to obtain power, a phase shift is necessary. That is, in order to obtain the power of the same phase, the coil ground must be different, and the induction force of the magnetic force is directly proportional to the density intersection force and the crossover speed of the magnetic field, so in the case of the conventional case, the magnetic induction point for generating the power cycle is very wide. The actual power generation efficiency is extremely poor.

In addition, the existing generator using a single pole magnetization point uses an assembly portion for the single pole magnetization points of the magnet bodies arranged opposite to each other. However, due to the low concentration of magnetic force and relatively weak divergence, the inductive force of the magnetic force acting on the coil body is remarkably low.

Therefore, in order to overcome the deterioration of the induction force of the magnetic force as described above, the magnet bodies are symmetrically configured from both sides of the coil body. At the same time, the efficiency of power production is greatly reduced.

In particular, by facing different unipolar poles, it is accompanied by inefficient and inconvenient problems such as the cost of additional magnets and the occupying of the installation space. Therefore, it is also accompanied by the irrationality that the induction coil must be made and placed thick.

Therefore, most of the disk-type generators that have been proposed in the past have a very low practical value and a very low utility value.

The present invention improves the above-described problems, and the radially spaced divided magnet body formed by overlapping at least two permanent magnets is radially spaced on the first disc, and the divided disc is divided on the second disc spaced apart from the first disc. By arranging an induction coil corresponding to or doubled by a magnet body, the first disk or the second disk is selectively fixed to the rotating shaft, and the divided magnet body is fixedly disposed so that the anodic bonding point faces the induction coil. Due to the rotational action between the first disk and the second disk, the magnetic force of the split magnetic body is induced to the induction coil and power is produced, or alternating power is supplied to the induction coil to reduce the attraction force and repulsion between the split magnetic body. To provide a disk-type power generation combined electric module using a positive electrode contact point that is used as an electric motor to rotate the rotating shaft by It is an object of the invention.

The present invention for achieving the object as described above, radially spaced apart divided magnets in the first non-magnetic disk, radially spaced induction coils connected in series to the non-magnetic second disk, One of the selected disk of the first disk or the second disk is configured to be coupled to a separate rotation shaft so that the selected one disk can be rotated with the rotation shaft,

The divided magnets are formed by overlapping and joining permanent magnets of at least two rectangular hexahedrons to each other, and the divided magnets formed by these permanent magnets are configured so that the anodic bonding point faces the induction coil.

According to the present invention, due to the width of the induction coil and the matching magnet and the magnet group generated between the divided magnets, twice as much efficiency occurs as compared to the conventional one rotation, Since the induction coil is disposed at the portion where the strongest magnetic force is induced by the magnet having it, a structure in which the coils are symmetrical on both sides or up and down as in the prior art is unnecessary, and even if only a divided magnet is disposed to one side with respect to the induction coil, As it has power generation or transmission efficiency, it can reduce production and manufacturing costs as well as reduce the thickness or width of the entire module, making it possible to produce a slimmer and more compact form.

In addition, the combined power generation module of the present invention can be used as a generator capable of producing electric power from the rotating power acting on the rotating shaft, or can be applied to the electric motor to rotate the rotary shaft with high efficiency by supplying alternating power directly to the induction coil. Its utilization is very high.

1 is a schematic configuration diagram of a general disk type generator

2 is an exploded perspective view of the combined power generation module according to the present invention

3 is an overall configuration diagram of a combined power generation module according to the present invention

4 is a divided magnet arrangement of the combined power generation module according to the present invention

5a to 5c is a comparison of the magnetic field lines of the electric power generation combined use module of the present invention and the existing generator,

Figure 5a is a magnetic field distribution diagram between the split magnet body and the induction coil of the magnet body by the anodic bonding point in the present invention

Figure 5b is a magnetic force line distribution diagram of a conventional generator consisting of a magnet body of a single pole magnetization point

Figure 5c is a magnetic field distribution diagram of a conventional generator of a bi-directional magnetic body

6 is a power production process diagram of the combined power generation module according to the present invention

7 is a detailed view of the magnetic force forming unit according to the arrangement of the divided magnet body of the combined power generation module according to the present invention

8 is a comparison of the power generation unit between the combined power generation module and the existing generator according to the present invention

9 is a perspective view showing another embodiment of the combined power generation module according to the present invention

10 is an overall front view according to FIG.

The terms or words used in this specification and claims are not to be construed as being limited to the common or dictionary meanings, and the inventors can appropriately define the concept of terms in order to explain their invention in the best way. Based on the principle, it should be interpreted as meaning and concept corresponding to the technical idea of the present invention.

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. Here, the reference to the conventional generator in the contrast drawing of the combined power generation module of the present invention and the conventional generator to be displayed the same as the reference to the conventional generator in the background art.

Figure 2 is an exploded perspective view of a combined power generation module according to the present invention, Figure 3 is an overall configuration diagram of a combined power generation module according to the present invention, Figure 4 is a divided magnet arrangement of the combined power generation module according to the present invention. .

As shown in the drawing, the combined electric power module according to the present invention comprises a first disk 10 made of a nonmagnetic material such as a synthetic resin, a second disk 20 made of a nonmagnetic material, and a separate rotating shaft 30.

In this case, the split magnet body 11 (11 ') is arranged to be spaced apart from each other radially from the central portion in the first disk 10, the induction having a flat shape in the form of a horizontal winding on the second disk (20). The coils 21 and 21 'are radially divided from the center portion.

Herein, the divided magnets 11 and 11 'are formed by stacking at least two permanent magnets of rectangular hexahedron, and the induction coils 21 and 21 having an anodic bonding point in which both the N pole and the S pole are compatible. ') To face.

In addition, the induction coils 21 and 21 'are connected in series from the second disk 20 to generate electric power by inducing magnetic force from the divided magnets 11 and 11'. .

In particular, the rotating shaft 30 is coupled to one of the first disk 10 or the second disk 20 can be rotated together with the selected disk, for example, a divided magnet 11 ( If the first disk 10 having the 11 ') is fixed to the rotating shaft 30, the second disk 20 should be fixed. On the contrary, the second disk 20 is connected to the rotating shaft 30. If it is in a fixed state, the first disk 10 should be in a fixed state. In addition, the one disk selected from the first disk 10 and the second disk 20 is fixed to the rotating shaft 30 to be rotated together with the rotating shaft 30 and the other disk is the rotating shaft 30 ) So that it can be rotated in the opposite direction to the disk that is rotated with each other to double the rotational momentum of each other.

Here, the disk that can be rotated together with the rotating shaft 30 is ideally the first disk 10 having a divided magnet (11, 11 '), the light guide coil (21) (21') By increasing the rotational inertia, the first disk 10 having the divided

magnetic bodies

11 and 11 ′, which is a weight body rather than the second disk 20, may be rotated, thereby increasing efficiency.

At this time, when the description of the above-described divided magnets (11, 11 '), as described above, the divided magnets (11, 11') is formed by overlapping at least two or more permanent magnets These divided magnets (11) (11 ') can obtain a high power generation and transmission efficiency due to the anode magnetization point where a strong magnetic force is induced as the anode magnetizer points toward the induction coil (21) (21') will be.

That is, in the case of a rod-shaped magnet, which is usually a hexahedron, it has two-sided single-pole magnetized points divided into N-poles and S-poles, and four-sided anode-bonded magnets in which N-poles and S-poles are bisected. Accordingly, in the present invention, the divided magnets 11 and 11 'are formed by joining a plurality of permanent magnets in order to maximize the magnetic force induced from the anodic bonding point.

For example, in the case of bonding two permanent magnets, the anodic contact points of each permanent magnet are bonded to each other, so that the two anodic contact points are shaped like one strong anodic contact point (the amount absorbed from the bonding of the permanent magnet is charged from the atmosphere. At the same time, a strong magnetic force is induced by the force of attracting magnetic force from different polarities of neighboring permanent magnets. This can be seen by the comparison diagram as shown in Figures 5a to 5c as shown in Figure 5b the magnet body 101 made of a permanent magnet alone with respect to the induction coil 121 or induction coil as shown in Figure 5c In the case of the magnet body 101 (101 ') corresponding to the upper and lower parts (121), the magnetic field of the monopole magnetization point is wider but the induction force is approximately 10% weaker than that of the anodic magnetization point. In the case of joining two permanent magnets as in the above, it can be seen that the magnetic force for the bipolar magnetization point has more than twice the magnetic force than the monopolar magnetization point. Such a result can be confirmed by a Gaussian. .

Accordingly, the anodic bonding point of the divided magnets 11 and 11 'facing the induction coil is not a permanent magnet of a single object, but a permanent magnet in which at least two permanent magnets are joined. In the present invention, the desired efficiency can be expected, and when the permanent magnets having three or more divided objects are joined to each other to form the divided magnets 11 and 11 ', the divided permanent magnets are formed. The amount of induced magnetic force increases in proportion to the number of magnets. To further improve the power generation efficiency or transmission efficiency, the above-mentioned division within the allowable range of the radial division arrangement in the disk which is rotated or non-rotated as described above. The magnet bodies 11 and 11 'may be applied by bonding a plurality of permanent magnets to each other.

6 is a sequential process diagram of an alternating current generation state by the combined electric power generation module of the present invention, in the state in which the divided magnet bodies 11, 11 'and the induction coil 21, 21' correspond to each other as shown in the figure. When the divided magnets 11, 11 'or the induction coils 21 and 21' start to rotate (the drawing indicates that the induction coil is rotated, the induction coil 21 above). At 21 ', the N pole is induced from the anodic bonding point of the divided magnets 11 and 11' and the magnetic force of the S pole is induced due to the generation of mutual suction force. Since the magnets are in a superimposed state, the induced magnetic force is increased by about 2 times compared to the case of one permanent magnet.

In addition, the magnetism is directed toward or opposite, so that the electrode is formed in the induction coils 21 and 21 'of the rotating state through a positive sign by the N pole and a negative sign by the S pole, Electrically, B is positive rather than A, and D is positive rather than C. As a result, all charges form a phase in which the positive signs and the negative signs are opposed to each other, and the cycles are repeated, indicating that alternating current can be generated.

7 is a layout view of the divided magnet body of the combined power generation module of the present invention and the original magnet group and the newly generated virtual magnet group by the divided magnet body, the combined power generation module of the present invention is an induction coil It is obvious that the original anodic bonding point Mp by the width of (21) and (21 ') and the matching magnets 11 and 11' is formed in the same number as the

division magnets

11 and 11 '. 2 times the power generated by one rotation of the disk due to the spontaneous magnetization point Sp generated by another group of virtual magnets generated in the aggregate range of the magnetic force lines between the divided magnets 11 and 11 '. Or induction coils 21 and 21 'are disposed at the portion where the transmission efficiency is generated and the strongest magnetic force is induced by the divided magnets 11 and 11' having the anodic bonding point. Or, the structure of the up and down symmetrical state is unnecessary, and the induction coils 21 and 21 ' Even if the split magnets 11 and 11 'are arranged on only one side, they will have higher efficiency, resulting in a reduction in production and manufacturing costs as well as a reduction in the thickness or width of the overall module, resulting in a slimmer and more compact power generation module. Will be able to complete.

In addition, the population of the induction coils 21 and 21 'is not the same as the population of the divided magnets 11 and 11', and the population of the divided magnets 11 and 11 'is determined. When the number of induction coils 21 and 21 'is doubled, the maximum efficiency can be obtained. In this case, the anodic bonding point due to the magnet group of the original divided magnets 11 and 11' is obtained. The induction coils 21 and 21 ', which are doubled due to the splicing point of spliced by the group of virtual magnets generated between the Mp and the magnets, are maximized due to the induction action of superior magnetic force. will be. However, as described above, when the number of the induction coils 21 and 21 'is twice the number of the divided magnets 11 and 11', the divided magnets acting on the induction coils 21 and 21 '. Since the polarities of the magnet group and the virtual magnet group by the sieves 11 and 11 'are different from each other, the winding directions of the induction coils 21 and 21' are sequentially reversed to obtain the same phase power. You will need to serialize them. Accordingly, the divided magnet and the induction coil of the present invention can be realized even if the 1: 1 structure does not necessarily occur.

8 is a contrast between the arrangement of the divided magnet body 11 (11 ') according to the present invention and the arrangement of the magnet body of the existing power generation or transmission apparatus, as shown in (a) The divided magnets 11 and 11 'having an anodic bonding point in which the N pole and the S pole are bisected are radially divided, and the divided

magnets

11 and 11 which are adjacent to each other by the uniformly divided magnets. As is known, another magnet group is generated between '), so that the phase change connection of the induction coils (21) and (21') is unnecessary. The number of guide coils 21 and 21 'may be increased to have a number of individuals.

On the other hand, the arrangement of the conventional magnet body of the form as shown in (b) is that the bonding state between the magnet body (101, 101 ') is made, the shape as shown in (c) is a magnet body 101 (radially arranged ( Since the center portion of the 101 'is joined, the phase shift of the induction coil is necessary to obtain power by matching the numbers of the

magnet bodies

101 and 101'. That is, in order to obtain the power of the same phase, the grounding of the induction coil needs to be different, and the induction force of the magnetic force is directly proportional to the density crossover force and the crossover speed of the magnetic field, so in the case of (b) and (c) above, The radius of motion of the G point to be displayed is wider, so that the efficiency is only 1/2 of the present invention. That is, in the case of the present invention arranged in 8 divisions, 16 times G points are formed in one rotation, whereas only 8 times G points are formed in (b) and (c), as well as having a remarkable efficiency difference when preparing for the same rotation speed. As described above, the divided

magnets

11 and 11 ′ of the present invention use the bipolar magnetization point having the strongest magnetic force, so that the dividing

magnets

11 and 11 ′ have an efficiency that is not comparable with the conventional case of using the monopolar magnetization point.

Moreover, the existing power generation or transmission apparatus using a single pole magnetization point has a wide cross-sectional area due to the single pole magnetization point, and thus the attraction force is very large, but the concentration of magnetic force is relatively low and the divergence force is weak. Induction of magnetic force is significantly low. Therefore, in order to overcome the deterioration of the induction force of the magnetic force as described above, both sides of the coil body are symmetrically configured, but when the power is applied (loaded), the coil body turns into an electromagnet and generates rotational resistance, and at the same time, The power production efficiency will be greatly reduced.

In particular, by facing different unipolar poles, it is accompanied by inefficient and inconvenient problems such as the cost of the added magnets and the occupancy of the installation space, and there is a limit due to the attractive force between the magnets to face the wide unipolar side. Therefore, it is also accompanied by the irrationality that the induction coil must be made and placed thick.

As a result, most of the disk-type power generation or motorized modules that have been proposed in the past have a very low practical value and a very low utility value. will be.

On the contrary, in the electric power generation combined use module of the present invention, another magnet group is generated between the width of the induction coil and the matched divided magnets 11 and 11 'and the divided magnets 11 and 11'. As a result, twice the efficiency is generated in one revolution, and the induction coils 21 and 21 'are disposed close to the anode bonding point where the strongest magnetic force is induced by the divided magnets 11 and 11'. Likewise, a structure in which the coils are symmetrical on both sides or up and down is unnecessary, and even if only the divided magnets 11 and 11 'are disposed on one side with respect to the induction coils 21 and 21', the coil has higher efficiency. Therefore, as well as reducing the production and manufacturing costs, the thickness or width of the overall module is greatly reduced, so that a more slim and compact combined power module can be completed. In addition, maximize the efficiency of the combined power module of the present invention as described above. 9 and 10 in order to As shown above, the auxiliary magnets 41 and 41 'are divided and spaced apart from the third disk 40 by using a separate third disk 40 at a position corresponding to the divided magnets 11 and 11'. By radially spaced apart, induces relative polarity to another magnet group formed between the divided magnets (11) (11 ') to supplement and increase the induction force and occur during magnetic attraction (loading) ) As the repulsive force is exerted at the magnetic organic apex to reduce the electronic resistance, the side effect of preventing the rolling of the rotating plate is produced.

At this time, the third disk 40 must rotate simultaneously with or maintain a fixed state with the first disk 10 having the divided magnets 11 and 11 '. Stable and efficient induction of the induction coils 21 and 21 'of the second disk 20 located between the disks 40 can be made by electric or magnetic force and repulsion.

Such a power generation combined electric module of the present invention is connected to the axle or windmill that can use hydraulic power, wave power or wind power to the rotary shaft as described above, so that the rotary shaft 30 is driven from external forces caused by these natural or artificial external forces. And the first disk 10 having the divided magnets 11 and 11 'dividedly disposed on the rotation shaft 30 is fixed to the second shaft according to the rotation of the first disk 10. 20 can be used as a power generation device to produce alternating current from the induction coil (21) (21 ').

In addition, by applying an alternating polarity type DC power source from the outside to the induction coils 21 and 21 'as described above, the sign and the divided magnet 11 of the charge generated alternately in the induction coils 21 and 21'. By using the attraction force and the repulsive force acting between the polarity in the (11 ') it can be used as a transmission device that allows the rotary shaft 30 to rotate continuously.

Accordingly, the combined power generation module of the present invention is very reasonable because it can be selectively applied to the power generation device or the power transmission device as well as having a high energy efficiency as well as a more simplified configuration.

The embodiments described in the present specification and the drawings shown in the drawings are only the most preferred embodiments of the present invention and do not represent all of the technical idea of the present invention, and various equivalents and modifications that may be substituted for them are provided. It should be understood that there may be examples.

Claims

Split magnets 11 and 11 'are radially spaced apart on the first disk 10 made of nonmagnetic material, and induction coils 21 and 21' connected in series to the second disk 20 made of nonmagnetic material. Are radially spaced apart from each other, and the selected one of the first disk 10 or the second disk 20 is fixedly coupled to a separate rotation shaft 30 so that one disk selected together with the rotation shaft 30 is fixed. So that it can rotate,

The divided magnets 11 and 11 'are formed by overlapping and joining permanent magnets of at least two or more rectangular hexahedrons to each other, and the divided magnets 11 and 11' by these permanent magnets induce anodic bonding points. Disc-type power generation combined electric module using a positive electrode contact point, characterized in that arranged to face the coil (21) (21 ').
The method of claim 1,

A separate third disk 40 is formed on one side of the second disk 20, and the third disk 40 is disposed between the divided magnets 11 and 11 ′ formed on the first disk 10. The secondary magnets 41 and 41 'fixed to be disposed therebetween are formed separately, and these auxiliary magnets 41 and 41' are fixed so that the anodic bonding point faces the induction coils 21 and 21 '. Disc type power generation combined electric module using the anode magnetization point characterized in that made.
The method of claim 1,

Disc-type power generation combined electric module using a bipolar magnetization point, characterized in that the divided magnets (11) (11 ') and the guide coils (21) (21') are configured to have the same number and correspond to each other.
The method of claim 1,

Induction coil (21) (21 ') is a disk-type power generation combined use electric module using a bipolar bonding point, characterized in that configured to be arranged with the number of individuals corresponding to twice the number of the divided magnets (11) (11').
The method of claim 1,

The divided magnets 11 and 11 'and the guide coils 21 and 21', which are alternately rotated according to the rotation of the rotary shaft 30 by applying rotational power to the rotary shaft 30 from the outside, are divided magnetic bodies. (11) (11 ') of the magnetic force is induced by the induction coil (21) (21') to be used as a generator for producing electric power disk-type power generation combined electric module using a positive electrode pole.
The method of claim 1,

An alternating polarity type DC power source is applied to the induction coils 21 and 21 'from the outside to act between the charge sign in the induction coils 21 and 21' and the polarity of the divided magnets 11 and 11 '. Disc-driven combined power module using a positive electrode contact point, characterized in that the rotating shaft 30 is used as an electric motor to continuously rotate by using a manpower and repulsive force.