Magnetic field center concentrated type non-reaction generator

Abstract

Provided is a magnetic field center concentration type non-reactive generator that can continuously run a vehicle for a long time and can be used as a household generator. 【Solution means】The magnetic field center concentration type non-reactive generator has, at the upper part, a circular S-pole magnet with a curved cylindrical shape and a cylindrical cross-section, and the outer wall surface magnetized to the S-pole is arranged on the circumference of a circle. A C-shaped N-pole magnet with a cylindrical cross-section and the outer wall surface magnetized to the N-pole, which is connected and fixed to an insulating rotating shaft installed at the center of the circle via an insulating arm, is arranged so as to surround the circular S-pole magnet. A large number of magnetic field lines are generated from all directions of the C-shaped portion of the C-shaped N-pole magnet toward the circular S-pole magnet, and also from the outer wall surface of the C-shaped N-pole magnet toward the outer wall surface of the circular S-pole magnet. At the lower part, components equivalent to those at the upper part are arranged equivalently. Left-handed windings are arranged at equal intervals with a certain gap at the upper part, and right-handed windings are arranged at equal intervals at the lower part so as to be located at the middle position between adjacent left-handed windings at the upper part.

Description

Technical Field

[0001] The present invention arranges a circular S-pole magnet with a curved shape at the top, a cylindrical cross-section, and the outer wall surface magnetized to the S-pole of the magnet on the circumference of a circle. An insulating rotating shaft installed at the center of the circle is connected and fixed via an insulating arm. A C-shaped N-pole magnet with a shape like the letter C in the alphabet, a cylindrical cross-section, and the outer wall surface magnetized to the N-pole is arranged so as to surround the circular S-pole magnet. Thus, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the C-shaped N-pole magnet toward the direction of the circular S-pole magnet located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the C-shaped N-pole magnet toward the outer wall surface of the circular S-pole magnet. Also, at the lower part, components equivalent to those in the upper part are arranged equivalently to create a situation equivalent to that in the upper part. Then, left-handed windings are arranged at equal intervals with a certain gap in the upper part, and right-handed windings are arranged at equal intervals in the lower part so that they come to the middle position between the left-handed windings adjacent to the left-handed windings in the upper part. By rotating the insulating rotating shaft to move the C-shaped N-pole magnet along the circular S-pole magnet at high speed, a large amount of alternating current is generated in a conductor circuit with the left-handed windings and the right-handed windings arranged alternately. The present invention relates to a magnetic field center concentration type non-reactive generator.

Background Art

[0002] Conventionally, in the upper part, a circular S-pole magnet with a curved shape in the upper part, a cylindrical cross-section, and the outer wall surface magnetized to the S-pole of the magnet is arranged on the circumference of a circle, and is connected and fixed to an insulating rotating shaft installed at the center of the circle via an insulating arm. A C-shaped N-pole magnet with a shape like the letter C in the alphabet, a cylindrical cross-section, and the outer wall surface magnetized to the N-pole is arranged so as to surround the circular S-pole magnet. Thus, a large number of magnetic field lines are generated from all directions of the C-shaped part of the C-shaped N-pole magnet towards the direction of the circular S-pole magnet located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the C-shaped N-pole magnet towards the outer wall surface of the circular S-pole magnet. In the lower part, components equivalent to those in the upper part are arranged equivalently to create a situation equivalent to that in the upper part. Then, left-handed coils are arranged at equal intervals with a certain gap in the upper part, and right-handed coils are arranged in the lower part at equal intervals so as to be located at the middle position between adjacent left-handed coils of the left-handed coils in the upper part. By rotating the insulating rotating shaft to move the C-shaped N-pole magnet along the circular S-pole magnet at high speed, a large amount of alternating current is generated in a conductor circuit where the left-handed coils and the right-handed coils are alternately arranged. There was no magnetic field center concentration type non-reactive generator like this.

Summary of the Invention

Problems to be Solved by the Invention

[0003] Existing automobiles have a large body weight, so improving fuel efficiency is an issue, and efforts such as reducing the vehicle body weight have been made, but there has been no significant progress in fuel efficiency. In addition, conventional automotive generators installed in these automobiles generate a small amount of current, so it is impossible to continuously drive the automobile for a long time using the current generated by the automotive generator as a power source, and it was necessary to charge the battery installed in the automobile from an external power source.

Means for Solving the Problems

[0004] In order to continuously drive a vehicle for a long time using the current generated by a vehicle generator as a power source, from the idea that a new type of generator that utilizes the rotation of the axle or tire may be attached to the vehicle body, at the upper part, a circular S-pole magnet with a curved cylindrical shape in cross-section and the outer wall surface magnetized to the S-pole of the magnet is arranged on the circumference of a circle, and is connected and fixed to an insulating rotating shaft installed at the center of the circle via an insulating arm. A C-shaped N-pole magnet with a shape like the letter C in alphabet and a cylindrical cross-section and the outer wall surface magnetized to the N-pole is arranged so as to surround the circular S-pole magnet. Thus, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the C-shaped N-pole magnet toward the direction of the circular S-pole magnet located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the C-shaped N-pole magnet toward the outer wall surface of the circular S-pole magnet. Also at the lower part, components equivalent to those at the upper part are arranged equivalently to create a situation equivalent to that at the upper part. Then, left-handed wires are arranged at equal intervals with a certain gap at the upper part, and right-handed wires are arranged at the lower part at equal intervals so as to come to the middle position between the left-handed wires adjacent to the left-handed wires at the upper part. By rotating the insulating rotating shaft and moving the C-shaped N-pole magnet along the circular S-pole magnet at high speed, a large amount of alternating current is generated in a wire circuit in which the left-handed wires and the right-handed wires are alternately arranged, and a magnetic field center concentrated type non-reactive generator is devised.

Effect of the Invention

[0005] The magnetic field center concentrated type non-reactive generator of the present invention can generate a large amount of current. Therefore, by mounting the magnetic field center concentrated type non-reactive generator on a vehicle, the vehicle can be continuously driven for a long time using the current generated by the magnetic field center concentrated type non-reactive generator as a power source. Also, by using an existing solar panel generator or a small wind power generator as a power source for driving the magnetic field center concentrated type non-reactive generator and using an existing household power storage device as a power storage facility, it becomes possible to use it as a household generator.

Brief Description of the Drawings

[0006]

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Best Mode for Carrying Out the Invention

[0007] First, an insulating rotating shaft 4 made by an existing method using an existing insulating material that has a strength resistant to rotation and vibration and does not stick to a magnet, and in order to smoothly rotate the insulating rotating shaft, the lower part of an insulating rotary bearing 5 made by an existing method using an existing insulating material that has a strength resistant to rotation and vibration and does not stick to a magnet is installed and fixed to a flat existing bottom plate made of an insulating material that does not stick to an existing magnet by an existing installation method as shown in FIG. 1.

[0008] Next, as shown in FIG. 6, in order to support an upper circular S-pole magnet 2-1 and a lower circular S-pole magnet 2-2 in which four curved cylindrical S-pole magnets 2-3 are arranged on the circumference, an insulating support column 9 made by an existing method using an existing insulating material that has a strength resistant to rotation and vibration and does not stick to a magnet is installed and fixed to a flat existing bottom plate made of an insulating material that does not stick to an existing magnet by an existing installation method as shown in FIG. 1.

[0009] Separately, as shown in FIG. 6, a curved cylindrical S-pole magnet 2-3 was made by forming the shape into a curve and the cross-section into a cylinder, and then magnetizing the outer wall surface to the S-pole of the magnet by an existing magnetization method. Also, an insulating rod with a circular cross-section made by an existing method using an existing insulating material that has flexibility to withstand rotation and vibration and does not stick to the magnet was bent into a circle by an existing method to make an insulating cylindrical core 8. After pushing the insulating cylindrical core 8 into the cylinder of the curved cylindrical S-pole magnet 2-3, as shown in FIG. 10, an insulating winding tube 7 that does not stick to the magnet and allows magnetic flux to pass through was wound around the first curved cylindrical S-pole magnet 2-3 used at the top. An upper first left-handed winding wire 6-1-1 was wound around the insulating winding tube 7. In the same way, an upper second left-handed winding wire 6-1-2 was wound around the second curved cylindrical S-pole magnet 2-3, an upper third left-handed winding wire 6-1-3 was wound around the third curved cylindrical S-pole magnet 2-3, and an upper fourth left-handed winding wire 6-1-4 was wound around the fourth curved cylindrical S-pole magnet 2-3. After that, as shown in FIG. 14, an insulating winding tube 7 that does not stick to the magnet and allows magnetic flux to pass through was wound around the first curved cylindrical S-pole magnet 2-3 used at the bottom. A lower first right-handed winding wire 6-2-1 was wound around the insulating winding tube 7. In the same way, a lower second right-handed winding wire 6-2-2 was wound around the second curved cylindrical S-pole magnet 2-3, a lower third right-handed winding wire 6-2-3 was wound around the third curved cylindrical S-pole magnet 2-3, and a lower fourth right-handed winding wire 6-2-4 was wound around the fourth curved cylindrical S-pole magnet 2-3. Then, as shown in FIG. 6, at the top, four of the curved cylindrical S-pole magnets 2-3 were arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical S-pole magnets 2-3 were in close contact with each other as shown in FIG. 1 by an existing fixing method, creating a situation where the four arranged curved cylindrical S-pole magnets 2-3 function as an integrated upper circular S-pole magnet 2-1. Also, at the bottom, as shown in FIG. 6, four of the curved cylindrical S-pole magnets 2-3 were arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical S-pole magnets 2-3 were in close contact with each other as shown in FIG. 1 by an existing fixing method, creating a situation where the four arranged curved cylindrical S-pole magnets 2-3 function as an integrated lower circular S-pole magnet 2-2. After that, as shown in FIGS. 1, 7, and 19,From the non-spiral upper conductor 6-3 for extracting the current generated in the conductor to the outside, to the first end 6-1-1-1 of the first left-handed upper conductor 6-1-1 of the upper part, then from the second end 6-1-1-2 of the first left-handed upper conductor to the first end 6-2-1-1 of the first right-handed lower conductor 6-2-1, and from the second end 6-2-1-2 of the first right-handed lower conductor to the first end 6-1-2-1 of the second left-handed upper conductor 6-1-2, then from the second end 6-1-2-2 of the second left-handed upper conductor to the first end 6-2-2-1 of the second right-handed lower conductor 6-2-2, and from the second end 6-2-2-2 of the second right-handed lower conductor to the first end 6-1-3-1 of the third left-handed upper conductor 6-1-3, similarly, from the second end 6-1-3-2 of the third left-handed upper conductor to the first end 6-2-3-1 of the third right-handed lower conductor 6-2-3, and from the second end 6-2-3-2 of the third right-handed lower conductor to the first end 6-1-4-1 of the fourth left-handed upper conductor 6-1-4, then from the second end 6-1-4-2 of the fourth left-handed upper conductor to the first end 6-2-4-1 of the fourth right-handed lower conductor 6-2-4, and finally, from the second end 6-2-4-2 of the fourth right-handed lower conductor to the non-spiral lower conductor 6-3 for extracting the current generated in the conductor to the outside. By connecting the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2 in this order using the non-spiral conductor 6-3 for connecting them, a spiral conductor circuit for generating an alternating current and guiding the alternating current to the outside is created.

[0010] Next, as shown in FIGS. 3, 4, and 5, an insulating arm 3 made by an existing method using an existing insulating material that has a strength to withstand rotation and vibration and does not stick to the magnet for connecting and fixing the upper C-shaped N-pole magnet 1-1 and the upper magnetic field dividing C-shaped magnet 1-2 to the insulating rotating shaft 4 is connected and fixed to the insulating rotating shaft 4 by an existing connection method at the upper part. Then, as shown in FIG. 1, after passing the upper circular S-pole magnet 2-1 wound with a left-handed wire through the four upper C-shaped N-pole magnets 1-1 and the four upper magnetic field dividing C-shaped magnets 1-2, they are respectively connected and fixed to the insulating arm 3 by an existing connection method. At the lower part, after connecting and fixing the insulating arm 3 to the insulating rotating shaft 4 by an existing connection method, as shown in FIG. 1, after passing the lower circular S-pole magnet 2-2 wound with a right-handed wire through the four lower C-shaped N-pole magnets 1-3 and the four upper magnetic field dividing C-shaped magnets 1-4, they are respectively connected and fixed to the insulating arm 3 by an existing connection method.

[0011] Finally, as shown in FIG. 1, the upper part of the insulating rotary bearing 5 for smoothly rotating the insulating rotating shaft 4 is installed and fixed on a flat existing top plate made of an insulating material that does not stick to the existing magnet by an existing installation method using an insulating material that does not stick to the existing magnet.

[0012] Through the above operations, as shown in FIGS. 1, 2, and 3, an upper circular S-pole magnet 2-1 with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of the magnet is arranged at the upper part, and an upper C-shaped N-pole magnet 1-1 with a shape in the form of the letter C of the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is arranged so as to surround the upper circular S-pole magnet 2-1. Thus, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the upper C-shaped N-pole magnet 1-1 toward the direction of the upper circular S-pole magnet 2-1 located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper C-shaped N-pole magnet 1-1 toward the outer wall surface of the upper circular S-pole magnet 2-1. By rotating the insulating rotating shaft 4, the upper C-shaped N-pole magnet 1-1 is moved along the upper circular S-pole magnet 2-1 at high speed. In addition, a lower circular S-pole magnet 2-2 with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of the magnet is arranged at the lower part, and a lower C-shaped N-pole magnet 1-3 with a shape in the form of the letter C of the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is arranged so as to surround the lower circular S-pole magnet 2-2. Thus, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the lower C-shaped N-pole magnet 1-3 toward the direction of the lower circular S-pole magnet 2-2 located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower C-shaped N-pole magnet 1-3 toward the outer wall surface of the lower circular S-pole magnet 2-2. By rotating the insulating rotating shaft 4, the lower C-shaped N-pole magnet 1-3 is moved along the lower circular S-pole magnet 2-2 at high speed. As shown in FIGS. 7, 19, 20, and 21, a magnetic field center concentrated type non-reactive generator is fabricated that generates a large amount of alternating current in a conductor circuit connecting an upper spiral-shaped left-handed conductor group 6-1 and a lower spiral-shaped right-handed conductor group 6-2 such that the left-handed conductors and the right-handed conductors are alternately arranged.

Embodiment

[0013] First, an insulating rotating shaft 4 made by an existing method using an existing insulating material that has a strength to withstand rotation and vibration and does not stick to a magnet, and in order to smoothly rotate the insulating rotating shaft, the lower part of an insulating rotary bearing 5 made by an existing method using an existing insulating material that has a strength to withstand rotation and vibration and does not stick to a magnet is installed and fixed to a flat existing bottom plate made of an insulating material that does not stick to an existing magnet as shown in FIG. 1 by an existing installation method.

[0014] Next, as shown in FIG. 6, in order to support an upper circular S-pole magnet 2-1 and a lower circular S-pole magnet 2-2 in which four curved cylindrical S-pole magnets 2-3 are arranged on the circumference, an insulating support column 9 made by an existing method using an existing insulating material that has a strength to withstand rotation and vibration and does not stick to a magnet is installed and fixed to a flat existing bottom plate made of an insulating material that does not stick to an existing magnet as shown in FIG. 1 by an existing installation method.

[0015] Alternatively, as shown in Fig. 6, a curved cylindrical S-pole magnet 2-3 is made by shaping it into a curve and making its cross-section cylindrical, and then magnetizing the outer wall surface to the S-pole of the magnet by an existing magnetization method. Also, an insulating rod with a circular cross-section made by an existing method using an existing insulating material that has flexibility to withstand rotation and vibration and does not stick to the magnet is bent into a circle by an existing method to make an insulating cylindrical core 8. After pushing the insulating cylindrical core 8 into the cylinder of the curved cylindrical S-pole magnet 2-3, as shown in Fig. 10, an insulating winding tube 7 that does not stick to the magnet and conducts magnetism is wound around the first curved cylindrical S-pole magnet 2-3 used at the top. An upper first left-handed winding wire 6-1-1 is wound around the insulating winding tube 7. In the same way, an upper second left-handed winding wire 6-1-2 is wound around the second curved cylindrical S-pole magnet 2-3, an upper third left-handed winding wire 6-1-3 is wound around the third curved cylindrical S-pole magnet 2-3, and an upper fourth left-handed winding wire 6-1-4 is wound around the fourth curved cylindrical S-pole magnet 2-3. After that, as shown in Fig. 14, an insulating winding tube 7 that does not stick to the magnet and conducts magnetism is wound around the first curved cylindrical S-pole magnet 2-3 used at the bottom. A lower first right-handed winding wire 6-2-1 is wound around the insulating winding tube 7. In the same way, a lower second right-handed winding wire 6-2-2 is wound around the second curved cylindrical S-pole magnet 2-3, a lower third right-handed winding wire 6-2-3 is wound around the third curved cylindrical S-pole magnet 2-3, and a lower fourth right-handed winding wire 6-2-4 is wound around the fourth curved cylindrical S-pole magnet 2-3. Then, as shown in Fig. 6, at the top, four of the curved cylindrical S-pole magnets 2-3 are arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical S-pole magnets 2-3 are in close contact with each other as shown in Fig. 1 by an existing fixing method, creating a situation where the four arranged curved cylindrical S-pole magnets 2-3 function as an integrated upper circular S-pole magnet 2-1. Also at the bottom, as shown in Fig. 6, four of the curved cylindrical S-pole magnets 2-3 are arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical S-pole magnets 2-3 are in close contact with each other as shown in Fig. 1 by an existing fixing method, creating a situation where the four arranged curved cylindrical S-pole magnets 2-3 function as an integrated lower circular S-pole magnet 2-2. After that, as shown in Figs. 1, 7, and 19,From the non-spiral upper conductor 6-3 for extracting the current generated in the conductor to the outside, to the first end 6-1-1-1 of the first left-handed upper conductor 6-1-1 of the upper part, then from the second end 6-1-1-2 of the first left-handed upper conductor to the first end 6-2-1-1 of the first right-handed lower conductor 6-2-1, and from the second end 6-2-1-2 of the first right-handed lower conductor to the first end 6-1-2-1 of the second left-handed upper conductor 6-1-2. Next, from the second end 6-1-2-2 of the second left-handed upper conductor to the first end 6-2-2-1 of the second right-handed lower conductor 6-2-2, and from the second end 6-2-2-2 of the second right-handed lower conductor to the first end 6-1-3-1 of the third left-handed upper conductor 6-1-3. Similarly, from the second end 6-1-3-2 of the third left-handed upper conductor to the first end 6-2-3-1 of the third right-handed lower conductor 6-2-3, and from the second end 6-2-3-2 of the third right-handed lower conductor to the first end 6-1-4-1 of the fourth left-handed upper conductor 6-1-4. Next, from the second end 6-1-4-2 of the fourth left-handed upper conductor to the first end 6-2-4-1 of the fourth right-handed lower conductor 6-2-4, and finally, from the second end 6-2-4-2 of the fourth right-handed lower conductor to the non-spiral lower conductor 6-3 for extracting the current generated in the conductor to the outside. By connecting the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2 in this order using the non-spiral conductor 6-3 for connecting them, a spiral conductor circuit for generating an alternating current and guiding the alternating current to the outside is created.

[0016] Next, as shown in FIGS. 3, 4, and 5, an insulating arm 3 made by an existing method using an existing insulating material that has a strength resistant to rotation and vibration and does not stick to the magnet for connecting and fixing the upper C-shaped N-pole magnet 1-1 and the upper magnetic field dividing C-shaped magnet 1-2 to the insulating rotating shaft 4 is connected and fixed to the insulating rotating shaft 4 by an existing connection method at the upper part. Then, as shown in FIG. 1, after passing the upper circular S-pole magnet 2-1 wound with a left-handed wire through the four upper C-shaped N-pole magnets 1-1 and the four upper magnetic field dividing C-shaped magnets 1-2, they are respectively connected and fixed to the insulating arm 3 by an existing connection method. At the lower part, after connecting and fixing the insulating arm 3 to the insulating rotating shaft 4 by an existing connection method, as shown in FIG. 1, after passing the lower circular S-pole magnet 2-2 wound with a right-handed wire through the four lower C-shaped N-pole magnets 1-3 and the four upper magnetic field dividing C-shaped magnets 1-4, they are respectively connected and fixed to the insulating arm 3 by an existing connection method.

[0017] Alternatively, separately, a curved cylindrical N - pole magnet is made by forming the shape into a curve and the cross - section into a cylinder, and then magnetizing the outer wall surface to the N - pole of the magnet by an existing magnetization method. Also, an insulating rod with a circular cross - section made by an existing method using an existing insulating material that has a strength to withstand rotation and vibration and does not stick to the magnet is bent into a circle by an existing method to make an insulating cylindrical core 8. After pushing the insulating cylindrical core 8 into the inside of the cylinder of the curved cylindrical N - pole magnet, an insulating winding tube 7 that does not stick to the magnet and allows magnetic flux to pass through is wound around the first curved cylindrical N - pole magnet used at the upper part. An upper first left - wound conductor 6 - 1 - 1 is wound around the insulating winding tube 7. In the same way, an upper second left - wound conductor 6 - 1 - 2 is wound around the second curved cylindrical N - pole magnet, an upper third left - wound conductor 6 - 1 - 3 is wound around the third curved cylindrical N - pole magnet, and an upper fourth left - wound conductor 6 - 1 - 4 is wound around the fourth curved cylindrical N - pole magnet. After that, an insulating winding tube 7 that does not stick to the magnet and allows magnetic flux to pass through is wound around the first curved cylindrical N - pole magnet used at the lower part. A lower first right - wound conductor 6 - 2 - 1 is wound around the insulating winding tube 7. In the same way, a lower second right - wound conductor 6 - 2 - 2 is wound around the second curved cylindrical N - pole magnet, a lower third right - wound conductor 6 - 2 - 3 is wound around the third curved cylindrical N - pole magnet, and a lower fourth right - wound conductor 6 - 2 - 4 is wound around the fourth curved cylindrical N - pole magnet. Then, at the upper part, four of the curved cylindrical N - pole magnets are arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical N - pole magnets are in close contact with each other by an existing fixing method, creating a situation where the four arranged curved cylindrical N - pole magnets function as an integrated upper circular N - pole magnet. At the lower part, four of the curved cylindrical N - pole magnets are also arranged on the circumference and fixed to an insulating support 9 so that the curved cylindrical N - pole magnets are in close contact with each other by an existing fixing method, creating a situation where the four arranged curved cylindrical N - pole magnets function as an integrated lower circular N - pole magnet. Then, from an upper non - spiral conductor 6 - 3 for taking out the current generated in the conductor to the outside, to the first end 6 - 1 - 1 - 1 of the upper first left - wound conductor 6 - 1 - 1, then from the second end 6 - 1 - 1 - 2 of the upper first left - wound conductor to the first end 6 - 2 - 1 - 1 of the lower first right - wound conductor 6 - 2 - 1, and then,From the second end 6-2-1-2 of the first right-handed lower conductor to the first end 6-1-2-1 of the first left-handed upper conductor of the second upper conductor 6-1-2, then from the second end 6-1-2-2 of the second upper left-handed conductor to the first end 6-2-2-1 of the first right-handed lower conductor of the second lower conductor 6-2-2, and from the second end 6-2-2-2 of the second lower right-handed conductor to the first end 6-1-3-1 of the first left-handed upper conductor of the third upper conductor 6-1-3. Similarly, from the second end 6-1-3-2 of the third upper left-handed conductor to the first end 6-2-3-1 of the first right-handed lower conductor of the third lower conductor 6-2-3, and from the second end 6-2-3-2 of the third lower right-handed conductor to the first end 6-1-4-1 of the first left-handed upper conductor of the fourth upper conductor 6-1-4. Next, from the second end 6-1-4-2 of the fourth upper left-handed conductor to the first end 6-2-4-1 of the first right-handed lower conductor of the fourth lower conductor 6-2-4, and finally from the second end 6-2-4-2 of the fourth lower right-handed conductor to the lower non-spiral conductor 6-3 for extracting the current generated in the conductor to the outside. In this order, the spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2 are connected by using the non-spiral conductor 6-3 in the shape of a spiral for connecting them, thereby creating a spiral conductor circuit for generating an alternating current and guiding the alternating current to the outside.,

[0018] Next, after forming the shape into the form of the letter C of the alphabet and making the cross-section cylindrical, with the upper C-shaped N-pole magnet 1-1 having its magnetic pole reversed, an upper C-shaped S-pole magnet with its outer wall surface magnetized to the S-pole, and the upper magnetic field dividing C-shaped magnet 1-2 having its magnetic pole reversed, an upper magnetic field dividing C-shaped reverse magnetic pole magnet, using an existing insulating material that has the strength to withstand rotation and vibration and does not stick to the magnet for connecting and fixing to the insulating rotating shaft 4, an insulating arm 3 made by an existing method is connected and fixed to the insulating rotating shaft 4 by an existing connection method at the upper part. Then, as shown in FIG. 1, after passing the upper circular N-pole magnet wound with a left-handed wire through four upper C-shaped S-pole magnets and four upper magnetic field dividing C-shaped reverse magnetic pole magnets, they are respectively connected and fixed to the insulating arm 3 by an existing connection method. At the lower part, after connecting and fixing the insulating arm 3 to the insulating rotating shaft 4 by an existing connection method, as shown in FIG. 1, after passing the lower circular N-pole magnet wound with a right-handed wire through four lower C-shaped S-pole magnets and four lower magnetic field dividing C-shaped reverse magnetic pole magnets, they are respectively connected and fixed to the insulating arm 3 by an existing connection method.

[0019] By devising the winding method of the helix of the helical wire circuit, it is also possible to generate a direct current. So, when a direct current is required, at the upper part, after winding an existing wire in a left-handed helical shape on one insulating winding tube 7 to make a left-handed wire, a non-helical section is provided, and then an existing wire is wound in a left-handed helical shape on the adjacent insulating winding tube 7 to make the left-handed wire. By repeating the same process, the left-handed wires are intermittently arranged and connected. At the lower part, the left-handed wire is also made, and by repeating the same process, the left-handed wires are intermittently arranged and connected. Then, the ends of the first left-handed wire at the upper part and the last left-handed wire at the lower part are taken out to the outside to create a helical wire circuit for generating a direct current and leading the direct current to the outside.

[0020] Alternatively, at the upper part, after winding an existing conducting wire in a right-handed helical shape on one insulating winding tube 7 to form a right-handed conducting wire, a non-helical section is provided, and then the existing conducting wire is wound in a right-handed helical shape on the adjacent insulating winding tube 7 to form the right-handed conducting wire. By repeating the same process, the right-handed conducting wires are intermittently arranged and connected. Similarly, at the lower part, the right-handed conducting wire is formed, and by repeating the same process, the right-handed conducting wires are intermittently arranged and connected. Then, the ends of the first right-handed conducting wire at the upper part and the last right-handed conducting wire at the lower part are taken out externally to generate a direct current and conduct the direct current externally, thereby forming a helical conducting wire circuit.

[0021] Finally, as shown in FIG. 1, the upper part of the insulating rotary bearing 5 for smoothly rotating the insulating rotary shaft 4 is installed and fixed on a flat existing top plate made of an insulating material that does not adhere to the existing magnet by the existing installation method.

[0022] Through the above operations, as shown in FIGS. 1, 2, and 3, an upper circular S-pole magnet 2-1 with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of a magnet is arranged at the upper part. An upper C-shaped N-pole magnet 1-1 with a shape like the letter C in the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is arranged so as to surround the upper circular S-pole magnet 2-1. In this way, a large number of magnetic field lines are generated from all directions of the C-shaped of the upper C-shaped N-pole magnet 1-1 towards the direction of the upper circular S-pole magnet 2-1 located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper C-shaped N-pole magnet 1-1 towards the outer wall surface of the upper circular S-pole magnet 2-1. By rotating the insulating rotating shaft 4, the upper C-shaped N-pole magnet 1-1 is moved along the upper circular S-pole magnet 2-1 at high speed. In addition, a lower circular S-pole magnet 2-2 with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of a magnet is arranged at the lower part. A lower C-shaped N-pole magnet 1-3 with a shape like the letter C in the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is arranged so as to surround the lower circular S-pole magnet 2-2. In this way, a large number of magnetic field lines are generated from all directions of the C-shaped of the lower C-shaped N-pole magnet 1-3 towards the direction of the lower circular S-pole magnet 2-2 located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower C-shaped N-pole magnet 1-3 towards the outer wall surface of the lower circular S-pole magnet 2-2. By rotating the insulating rotating shaft 4, the lower C-shaped N-pole magnet 1-3 is moved along the lower circular S-pole magnet 2-2 at high speed. As shown in FIGS. 7, 19, 20, and 21, a magnetic field center concentrated type non-reactive generator that generates a large amount of alternating current is constructed in a conductor circuit connecting an upper spiral-shaped left-handed conductor group 6-1 and a lower spiral-shaped right-handed conductor group 6-2 such that the left-handed conductors and the right-handed conductors are alternately arranged.

[0023] Alternatively, through the above operations, an upper circular N - pole magnet with a curved shape, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet is placed on the upper part. An upper C - shaped S - pole magnet with a shape like the letter C in the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole is arranged to surround the upper circular N - pole magnet. By doing so, a large number of magnetic field lines are generated in all directions of the C - shaped portion of the upper C - shaped S - pole magnet from the direction of the upper circular N - pole magnet located at the center inside the C - shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper circular N - pole magnet towards the outer wall surface of the upper C - shaped S - pole magnet. By rotating the insulating rotating shaft 4, the upper C - shaped S - pole magnet is moved at high speed along the upper circular N - pole magnet. Additionally, a lower circular N - pole magnet with a curved cylindrical shape, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet is placed at the lower part. A lower C - shaped S - pole magnet with a shape like the letter C in the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole is arranged to surround the lower circular N - pole magnet. By doing so, a large number of magnetic field lines are generated in all directions of the C - shaped portion of the lower C - shaped S - pole magnet from the direction of the lower circular N - pole magnet located at the center inside the C - shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower circular N - pole magnet towards the outer wall surface of the lower C - shaped S - pole magnet. By rotating the insulating rotating shaft 4, the lower C - shaped S - pole magnet is moved at high speed along the lower circular N - pole magnet. An alternating current generator with concentrated magnetic field center and no reaction force is constructed by connecting an upper spiral - shaped left - hand winding conductor group 6 - 1 and a lower spiral - shaped right - hand winding conductor group 6 - 2 so that left - hand winding conductors and right - hand winding conductors are alternately arranged, and generating a large amount of alternating current in the conductor circuit.

[0024] Alternatively, through the above operations, an upper circular S - pole magnet 2 - 1 with a curved shape, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole of a magnet is placed on the upper part. An upper C - shaped N - pole magnet 1 - 1 with a shape like the letter C in the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole is arranged to surround the upper circular S - pole magnet 2 - 1. In this way, a large number of magnetic lines of force are generated from all directions of the C - shaped part of the upper C - shaped N - pole magnet 1 - 1 towards the direction of the upper circular S - pole magnet 2 - 1 located at the inner center of the C - shape, and a situation is created where a large number of magnetic lines of force are generated from the outer wall surface of the upper C - shaped N - pole magnet 1 - 1 towards the outer wall surface of the upper circular S - pole magnet 2 - 1. By rotating the insulating rotating shaft 4, the upper C - shaped N - pole magnet 1 - 1 is moved at high speed along the upper circular S - pole magnet 2 - 1. In addition, a lower circular S - pole magnet 2 - 2 with a curved shape, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole of a magnet is placed at the lower part. A lower C - shaped N - pole magnet 1 - 3 with a shape like the letter C in the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole is arranged to surround the lower circular S - pole magnet 2 - 2. In this way, a large number of magnetic lines of force are generated from all directions of the C - shaped part of the lower C - shaped N - pole magnet 1 - 3 towards the direction of the lower circular S - pole magnet 2 - 2 located at the inner center of the C - shape, and a situation is created where a large number of magnetic lines of force are generated from the outer wall surface of the lower C - shaped N - pole magnet 1 - 3 towards the outer wall surface of the lower circular S - pole magnet 2 - 2. By rotating the insulating rotating shaft 4, the lower C - shaped N - pole magnet 1 - 3 is moved at high speed along the lower circular S - pole magnet 2 - 2. An upper spiral - shaped left - hand winding conductor group and a lower spiral - shaped left - hand winding conductor group are connected in a conductor circuit such that the upper left - hand winding conductors and the lower left - hand winding conductors are alternately arranged, and a large amount of direct - current is generated, thus creating a magnetic - field - center - concentrated type non - reaction generator.

[0025] Alternatively, through the above operations, an upper circular N - pole magnet with a curved shape and a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet, is arranged at the upper part. An upper C - shaped S - pole magnet with a shape like the letter 'C' of the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole, is arranged to surround the upper circular N - pole magnet. In this way, a large number of magnetic lines of force are generated in all directions of the 'C' - shaped of the upper C - shaped S - pole magnet from the direction of the upper circular N - pole magnet located at the inner center of the 'C', and a situation is created where a large number of magnetic lines of force are generated from the outer wall surface of the upper circular N - pole magnet towards the outer wall surface of the upper C - shaped S - pole magnet. By rotating the insulating rotating shaft 4, the upper C - shaped S - pole magnet is moved at high speed along the upper circular N - pole magnet. Additionally, a lower circular N - pole magnet with a curved cylindrical shape and a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet, is arranged at the lower part. A lower C - shaped S - pole magnet with a shape like the letter 'C' of the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole, is arranged to surround the lower circular N - pole magnet. In this way, a large number of magnetic lines of force are generated in all directions of the 'C' - shaped of the lower C - shaped S - pole magnet from the direction of the lower circular N - pole magnet located at the inner center of the 'C', and a situation is created where a large number of magnetic lines of force are generated from the outer wall surface of the lower circular N - pole magnet towards the outer wall surface of the lower C - shaped S - pole magnet. By rotating the insulating rotating shaft 4, the lower C - shaped S - pole magnet is moved at high speed along the lower circular N - pole magnet. A conductor circuit is formed by connecting an upper spiral - shaped right - hand - wound conductor group and a lower spiral - shaped right - hand - wound conductor group such that right - hand - wound conductors are alternately arranged, and a large amount of direct current is generated in the conductor circuit, thus creating a magnetic - field - center - concentrated non - reaction generator.

Industrial Applicability

[0026] The magnetic - field - center - concentrated non - reaction generator of the present invention can be mounted on an automobile and can also be used as a household generator, so it can be utilized in industrial fields dealing with automobiles and small generators.

Explanation of Reference Numerals

[0027] 1-1 A magnet made of an existing magnetization material. As shown in FIGS. 1, 2, 3, 4, 10, 11, 12, and 13, after shaping the magnetization material into the shape of the letter C and making the cross-section cylindrical, the outer wall surface was magnetized to the N pole of the magnet by an existing magnetization method. It functions as a set with the upper circular S pole magnet 2-1 at the upper part, the upper C-shaped N pole magnet 1-2 A magnet made by an existing method using an existing magnetization material. As shown in FIGS. 1, 2, 3, 4, 14, 15, 16, and 17, after shaping the magnetization material into the shape of the letter C and making the cross-section in the shape of a semi-cylindrical tube, as shown in FIG. 19, in order to divide the magnetic field generated between the upper C-shaped N pole magnet 1-1 and the upper circular S pole magnet 2-1 and create a section where the magnetic field does not exist, the inner side of the C shape of the magnet facing the upper circular S pole magnet 2-1 was magnetized to the S pole, and the outer side of the C shape of the magnet not facing the upper circular S pole magnet 2-1 was magnetized to the N pole. By adjusting the size of the gap between the magnet and the upper circular S pole magnet 2-1, at the upper part, a horizontal magnetic field that does not generate electricity in the upper spiral-shaped left-handed wire group 6-1 was created between the magnet and the upper circular S pole magnet 2-1, the upper magnetic field dividing C-shaped magnet 1-3 A magnet made of an existing magnetization material. As shown in FIGS. 1, 2, 3, and 5, after shaping the magnetization material into the shape of the letter C and making the cross-section cylindrical, it has the same structure as the upper C-shaped N pole magnet 1-1 shown in FIGS. 10, 11, 12, and 13, and the outer wall surface was magnetized to the N pole of the magnet by an existing magnetization method. It functions as a set with the lower circular S pole magnet 2-2 at the lower part, the lower C-shaped N pole magnet 1-4 is a magnet made by an existing method using an existing magnetization material. As shown in FIGS. 1, 2, 3, and 5, the shape of the magnetization material is in the form of the letter C, with a semi-circular cylindrical cross-section. After having the same shape as the upper magnetic field dividing C-shaped magnet 1-2 shown in FIGS. 14, 15, 16, and 17, as shown in FIG. 19, in order to divide the magnetic field generated between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2, and the magnetic field generated between the adjacent lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2, and create a section where the magnetic field does not exist, the inner side of the C shape of the magnet facing the lower circular S-pole magnet 2-2 is magnetized to the S-pole, the outer side of the C shape of the magnet not facing the lower circular S-pole magnet 2-2 is magnetized to the N-pole, and by adjusting the size of the gap between the magnet and the lower circular S-pole magnet 2-2, in the lower part, a horizontal magnetic field that does not generate electricity in the lower spiral-shaped right-handed wire group 6-2 is created between the magnet and the lower circular S-pole magnet 2-2, which has the role of generating a lower magnetic field dividing C-shaped magnet 2-1 is a magnet made using an existing magnetization material. As shown in FIGS. 1, 2, 3, 6, 10, 11, 12, and 13, after making the shape of the magnetization material curved and the cross-section cylindrical, four curve cylindrical S-pole magnets 2-3 with their outer wall surfaces magnetized to the S-pole of the magnet by an existing magnetization method are arranged on the upper circumference, and then fixed to an insulating support 9 that does not stick to the magnet by an existing fixing method and used. It functions as a set with the upper C-shaped N-pole magnet 1-1, the upper circular S-pole magnet 2-2 is a magnet made using an existing magnetization material. As shown in FIGS. 1, 2, 3, and 6, after making the shape of the magnetization material curved and the cross-section cylindrical, four curve cylindrical S-pole magnets 2-3 with their outer wall surfaces magnetized to the S-pole of the magnet by an existing magnetization method are arranged on the lower circumference, and then fixed to an insulating support 9 that does not stick to the magnet by an existing fixing method and used. It functions as a set with the lower C-shaped N-pole magnet 1-3, the lower circular S-pole magnet A component made of an existing magnetizing material. As shown in Fig. 6, four such magnets are connected on the circumference to form an upper circular S - pole magnet 2 - 1 and a lower circular S - pole magnet 2 - 2. After shaping the magnetizing material into a curved shape and making its cross - section cylindrical, the outer wall surface is magnetized to the S - pole of the magnet by an existing magnetizing method. It is a curved cylindrical S - pole magnet A component made by an existing method using an existing insulating material that has strength to withstand rotation and vibration and does not stick to the magnet. As shown in Figs. 2, 3, 10, and 11, an insulating rotating shaft 4 that does not stick to the magnet and an upper C - shaped N - pole magnet 1 - 1, and further, an insulating rotating shaft 4 that does not stick to the magnet and a lower C - shaped N - pole magnet 1 - 3 are connected and fixed by an existing bonding method. It is an insulating arm with eight branches A component made by an existing method using an existing insulating material such as hard anodized aluminum that has strength to withstand rotation and vibration and does not stick to the magnet. As shown in Figs. 1, 2, 4, and 5, the upper C - shaped N - pole magnet 1 - 1 and the lower C - shaped N - pole magnet 1 - 3 are connected by an existing bonding method via an insulating arm 3 that does not stick to the magnet, so as to rotate the upper C - shaped N - pole magnet 1 - 1 and the lower C - shaped N - pole magnet 1 - 3. It is an insulating rotating shaft A component made by an existing method using an existing insulating material such as hard anodized aluminum that has strength to withstand rotation and vibration and does not stick to the magnet. As shown in Figs. 1, 2, and 3, it is an insulating rotating shaft bearing made by an existing mechanism for smoothly rotating an insulating rotating shaft 4 that does not stick to the magnet A component made using existing conductors such as insulated film copper wire. As shown in FIGS. 1, 2, 3, and 4, an upper first left-handed wire 6-1-1 is made by winding the existing conductor around the outside of an insulating winding tube 7 in a left-handed spiral shape. An upper second left-handed wire 6-1-2, an upper third left-handed wire 6-1-3, and an upper fourth left-handed wire 6-1-4 are made in the same way and arranged at equal intervals along the circumference of the upper circular S-pole magnet 2-1. This is a spiral left-handed wire group. As shown in FIG. 7, from an upper non-spiral wire 6-3 for extracting the current generated in the wire to the outside, to the first end 6-1-1-1 of the upper first left-handed wire 6-1-1, then from the second end 6-1-1-2 of the upper first left-handed wire to the first end 6-2-1-1 of the lower first right-handed wire 6-2-1, and from the second end 6-2-1-2 of the lower first right-handed wire to the first end 6-1-2-1 of the upper second left-handed wire 6-1-2. Then, from the second end 6-1-2-2 of the upper second left-handed wire to the first end 6-2-2-1 of the lower second right-handed wire 6-2-2, and from the second end 6-2-2-2 of the lower second right-handed wire to the first end 6-1-3-1 of the upper third left-handed wire 6-1-3. Similarly, from the second end 6-1-3-2 of the upper third left-handed wire to the first end 6-2-3-1 of the lower third right-handed wire 6-2-3, and from the second end 6-2-3-2 of the lower third right-handed wire to the first end 6-1-4-1 of the upper fourth left-handed wire 6-1-4. Then, from the second end 6-1-4-2 of the upper fourth left-handed wire to the first end 6-2-4-1 of the lower fourth right-handed wire 6-2-4, and finally, from the second end 6-2-4-2 of the lower fourth right-handed wire to the lower non-spiral wire 6-3 for extracting the current generated in the wire to the outside. Connect the spiral left-handed wire group and the lower spiral right-handed wire group 6-2 in this order using the non-spiral wire 6-3.The upper C-shaped N-pole magnet 1-1 moves, causing current to simultaneously occur in the upper first left-handed wire 6-1-1, the upper second left-handed wire 6-1-2, the upper third left-handed wire 6-1-3, and the upper fourth left-handed wire 6-1-4. The lower C-shaped N-pole magnet 1-3 moves, causing current in the opposite direction to simultaneously occur in the lower first right-handed wire 6-2-1, the lower second right-handed wire 6-2-2, the lower third right-handed wire 6-2-3, and the lower fourth right-handed wire 6-2-4. These currents are alternately sent to the outside one after another through wiring for the purpose of power transmission, forming an upper spiral-shaped left-handed wire group. 6-1-1 is a component made using an existing wire such as an insulated film copper wire. As shown in FIGS. 1, 2, 3, 4, 7, and 8, it is a left-handed wire formed by winding the existing wire in a left-handed spiral shape outside the insulating winding tube 7. It is connected from the non-spiral-shaped wire 6-3 in the upper part and connected to the lower first right-handed wire 6-2-1, namely, the upper first left-handed wire. 6-1-1-1 As shown in FIG. 7, it is the first end of the upper first left-handed wire 6-1-1 for initially connecting from the non-spiral-shaped wire 6-3 in the upper part among the ends of the upper first left-handed wire 6-1-1. 6-1-1-2 As shown in FIG. 7, it is the second end of the upper first left-handed wire 6-1-1 for connecting to the first end 6-2-1-1 of the lower first right-handed wire 6-2-1 among the ends of the upper first left-handed wire 6-1-1. 6-1-2 is a component made using an existing wire such as an insulated film copper wire. As shown in FIGS. 1, 2, 3, 4, 7, and 8, it is a left-handed wire formed by winding the existing wire in a left-handed spiral shape outside the insulating winding tube 7. Using the non-spiral-shaped wire 6-3 for connecting the upper spiral-shaped left-handed wire group 6-1 and the lower spiral-shaped right-handed wire group 6-2, it is connected from the lower first right-handed wire 6-2-1 and connected to the lower second right-handed wire 6-2-2, namely, the upper second left-handed wire. 6-1-2-1 As shown in FIG. 7, it is the first end of the upper second left-handed wire 6-1-2 for connecting from the second end 6-2-1-2 of the lower first right-handed wire 6-2-1 among the ends of the upper second left-handed wire 6-1-2. As shown in Fig. 7, within the end of the second upper left-handed winding wire 6-1-2, the second end of the second upper left-handed winding wire for connecting to the first end 6-2-2-2 of the second lower right-handed winding wire 6-2-2 A component made using an existing wire such as an insulated film copper wire. As shown in Figs. 1, 2, 3, 4, 7, and 8, it is a left-handed winding wire made by winding the existing wire in a left-handed spiral shape outside the insulating winding tube 7. Using a non-spiral-shaped wire 6-3 for connecting the upper spiral-shaped left-handed winding wire group 6-1 and the lower spiral-shaped right-handed winding wire group 6-2, it is connected from the second lower right-handed winding wire 6-2-2 and connected to the third lower right-handed winding wire 6-2-3, the third upper left-handed winding wire As shown in Fig. 7, within the end of the third upper left-handed winding wire 6-1-3, the first end of the third upper left-handed winding wire for connecting from the second end 6-2-2-2 of the second lower right-handed winding wire 6-2-2 As shown in Fig. 7, within the end of the third upper left-handed winding wire 6-1-3, the second end of the third upper left-handed winding wire for connecting to the first end 6-2-3-1 of the third lower right-handed winding wire 6-2-3 A component made using an existing wire such as an insulated film copper wire. As shown in Figs. 1, 2, 3, 4, 7, and 8, it is a left-handed winding wire made by winding the existing wire in a left-handed spiral shape outside the insulating winding tube 7. Using a non-spiral-shaped wire 6-3 for connecting the upper spiral-shaped left-handed winding wire group 6-1 and the lower spiral-shaped right-handed winding wire group 6-2, it is connected from the third lower right-handed winding wire 6-2-3 and connected to the fourth lower right-handed winding wire 6-2-4, the fourth upper left-handed winding wire As shown in Fig. 7, within the end of the fourth upper left-handed winding wire 6-1-4, the first end of the fourth upper left-handed winding wire for connecting from the second end 6-2-3-2 of the third lower right-handed winding wire 6-2-3 As shown in Fig. 7, the second end of the fourth upper left-handed conductor for connecting to the first end 6-2-4-1 of the fourth lower right-handed conductor of the fourth lower right-handed conductor within the end of the fourth upper left-handed conductor 6-1-4 A component made using existing conductors such as insulated film copper wire. As shown in FIGS. 1, 2, 3, and 5, a first lower right-handed conductor 6-2-1 is made by winding the existing conductor around the outside of the insulating winding tube 7 in a right-handed helical shape. A second lower right-handed conductor 6-2-2, a third lower right-handed conductor 6-2-3, and a fourth lower right-handed conductor 6-2-4 are made in the same way and arranged at equal intervals along the circumference of the lower circular S-pole magnet 2-2. This is a helical right-handed conductor group. As shown in FIG. 7, from the upper non-helical conductor 6-3 for extracting the current generated in the conductor to the outside, to the first end 6-1-1-1 of the first upper left-handed conductor 6-1-1, then from the second end 6-1-1-2 of the first upper left-handed conductor to the first end 6-2-1-1 of the first lower right-handed conductor 6-2-1, and from the second end 6-2-1-2 of the first lower right-handed conductor to the first end 6-1-2-1 of the second upper left-handed conductor 6-1-2, then from the second end 6-1-2-2 of the second upper left-handed conductor to the first end 6-2-2-1 of the second lower right-handed conductor 6-2-2, and from the second end 6-2-2-2 of the second lower right-handed conductor to the first end 6-1-3-1 of the third upper left-handed conductor 6-1-3. Similarly, from the second end 6-1-3-2 of the third upper left-handed conductor to the first end 6-2-3-1 of the third lower right-handed conductor 6-2-3, and from the second end 6-2-3-2 of the third lower right-handed conductor to the first end 6-1-4-1 of the fourth upper left-handed conductor 6-1-4, then from the second end 6-1-4-2 of the fourth upper left-handed conductor to the first end 6-2-4-1 of the fourth lower right-handed conductor 6-2-4, and finally from the second end 6-2-4-2 of the fourth lower right-handed conductor to the lower non-helical conductor 6-3. By connecting the helical right-handed conductor group and the upper helical left-handed conductor group 6-1 using the non-helical conductor 6-3, when the upper C-shaped N-pole magnet 1-1 moves, the currents simultaneously generated in the first upper left-handed conductor 6-1-1, the second upper left-handed conductor 6-1-2, the third upper left-handed conductor 6-1-3, and the fourth upper left-handed conductor 6-1-4,The lower C-shaped N-pole magnets 1-3 are arranged to transmit the reverse currents simultaneously generated in the first lower right-handed conductor 6-2-1, the second lower right-handed conductor 6-2-2, the third lower right-handed conductor 6-2-3, and the fourth lower right-handed conductor 6-2-4 to the outside one after another alternately, forming a lower spiral-shaped right-handed conductor group. 6-2-1 A component made of an existing conductor such as an insulated film copper wire. As shown in FIGS. 1, 2, 3, 5, 7, and 9, it is a right-handed conductor formed by winding the existing conductor around the outside of the insulating winding tube 7 in a right-handed spiral shape. Using the non-spiral conductor 6-3 for connecting the upper spiral-shaped left-handed conductor group 6-1 and the lower spiral-shaped right-handed conductor group 6-2, it is connected from the first upper left-handed conductor 6-1-1 and connected to the second upper left-handed conductor 6-1-2, the first lower right-handed conductor 6-2-1-1 As shown in FIG. 7, among the ends of the first lower right-handed conductor 6-2-1, it is the first end of the first lower right-handed conductor for connecting from the second end 6-1-1-2 of the first upper left-handed conductor 6-1-1 of the first upper left-handed conductor 6-2-1-2 As shown in FIG. 7, among the ends of the first lower right-handed conductor 6-2-1, it is the second end of the first lower right-handed conductor for connecting to the first end 6-1-2-1 of the second upper left-handed conductor 6-1-2 of the second upper left-handed conductor 6-2-2 A component made of an existing conductor such as an insulated film copper wire. As shown in FIGS. 1, 2, 3, 5, 7, and 9, it is a right-handed conductor formed by winding the existing conductor around the outside of the insulating winding tube 7 in a right-handed spiral shape. Using the non-spiral conductor 6-3 for connecting the upper spiral-shaped left-handed conductor group 6-1 and the lower spiral-shaped right-handed conductor group 6-2, it is connected from the second upper left-handed conductor 6-1-2 and connected to the third upper left-handed conductor 6-1-3, the second lower right-handed conductor 6-2-2-1 As shown in FIG. 7, among the ends of the second lower right-handed conductor 6-2-2, it is the first end of the second lower right-handed conductor for connecting from the second end 6-1-2-2 of the second upper left-handed conductor 6-1-2 of the second upper left-handed conductor As shown in Fig. 7, within the end of the second lower right-handed winding conductor 6-2-2, the second end of the second lower right-handed winding conductor for connecting to the first end 6-1-3-1 of the third upper left-handed winding conductor 6-1-3 A component made of an existing conductor such as an insulated film copper wire. As shown in Figs. 1, 2, 3, 5, 7, and 9, it is a right-handed winding conductor formed by winding the existing conductor in a right-handed spiral shape on the outside of the insulating winding tube 7. Using a non-spiral conductor 6-3 for connecting the upper spiral left-handed winding conductor group 6-1 and the lower spiral right-handed winding conductor group 6-2, it is connected from the third upper left-handed winding conductor 6-1-3 and connected to the fourth upper left-handed winding conductor 6-1-4, the third lower right-handed winding conductor As shown in Fig. 7, within the end of the third lower right-handed winding conductor 6-2-3, the first end of the third lower right-handed winding conductor for connecting from the second end 6-1-3-2 of the third upper left-handed winding conductor 6-1-3 As shown in Fig. 7, within the end of the third lower right-handed winding conductor 6-2-3, the second end of the third lower right-handed winding conductor for connecting to the first end 6-1-4-1 of the fourth upper left-handed winding conductor 6-1-4 A component made of an existing conductor such as an insulated film copper wire. As shown in Figs. 1, 2, 3, 5, 7, and 9, it is a right-handed winding conductor formed by winding the existing conductor in a right-handed spiral shape on the outside of the insulating winding tube 7. Using a non-spiral conductor 6-3 for connecting the upper spiral left-handed winding conductor group 6-1 and the lower spiral right-handed winding conductor group 6-2, it is connected from the fourth upper left-handed winding conductor 6-1-4 and connected to a non-spiral conductor 6-3 at the lower part for taking out the current generated in the conductor to the outside, the fourth lower right-handed winding conductor As shown in Fig. 7, within the end of the fourth lower right-handed winding conductor 6-2-4, the first end of the fourth lower right-handed winding conductor for connecting from the second end 6-1-4-2 of the fourth upper left-handed winding conductor 6-1-4 As shown in FIG. 7, the second end of the fourth bottom right-handed conductor, which is the last connection to the bottom conductor 6-3 that is not in a spiral shape inside the end of the fourth bottom right-handed conductor 6-2-4 to extract the current generated in the conductor to the outside As shown in FIGS. 1, 2, 3, 18, and 19, it is a component made of an existing conductor such as an insulated enameled copper wire. Among the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2, a conductor portion for extracting the generated current to the outside, and a conductor portion for connecting the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2, a conductor that is not in a spiral shape A component made by an existing method using an existing insulating material such as resin or plastic that allows magnetic flux to pass through without adhering to the magnet. It is installed to wind the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2 with a certain gap outside the upper circular S-pole magnet 2-1 and the lower circular S-pole magnet 2-2, an insulating winding tube A component with a cylindrical cross-section made by an existing method using an existing insulating material that has flexibility to withstand rotation and vibration and does not adhere to the magnet. As shown in FIGS. 4, 5, and 6, it is inserted into the cylinders of the upper circular S-pole magnet 2-1 and the lower circular S-pole magnet 2-2 to prevent the upper circular S-pole magnet 2-1 and the lower circular S-pole magnet 2-2 from being damaged by vibration, an insulating cylindrical core A component made by an existing method using an existing insulating material such as hard anodized aluminum that has strength to withstand rotation and vibration and does not adhere to the magnet. As shown in FIGS. 1, 2, and 3, the connection parts between the curved cylindrical S-pole magnets 2-3 in the upper circular S-pole magnet 2-1 and the lower circular S-pole magnet 2-2 where 4 curved cylindrical S-pole magnets 2-3 are arranged on the circumference are fixed by an existing bonding method so that the upper circular S-pole magnet 2-1 and the lower circular S-pole magnet 2-2 function integrally without wobbling, and an insulating support for fixing the non-spiral conductor 6-3 by an existing method and leading it out to the outside As shown in FIGS. 11, 13, 15, 17, 19, 20, and 21, an explanatory symbol displayed to represent the N pole of the magnet 11 As shown in FIGS. 11, 13, 15, 17, 19, 20, and 21, the explanatory symbol displayed to represent the S pole of the magnet 12 As shown in FIGS. 11, 13, 15, 17, 19, 20, and 21, the explanatory dotted line displayed to represent the magnetic force lines generated by the magnet 13 When the positional relationship between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1 is as shown in FIG. 18, the entire magnetic force lines as shown in FIG. 19 generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1 13-1 When the positional relationship between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1 is as shown in FIG. 18, the magnetic force lines generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, and the magnetic force lines as shown in FIG. 19 generated when the upper C-shaped N-pole magnet 1-1 is located directly above the upper first left-handed winding wire 6-1-1 and the upper fourth left-handed winding wire 6-1-4 13-2 When the positional relationship between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1 is as shown in FIG. 18, the magnetic force lines as shown in FIG. 19 generated when the upper magnetic field dividing C-shaped magnet 1-2 located at the midpoint between the two upper C-shaped N-pole magnets 1-1 is located at a place where there is no wire such as the midpoint between the upper first left-handed winding wire 6-1-1 and the upper fourth left-handed winding wire 6-1-4 14 When the positional relationship between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2 is as shown in FIG. 18, the entire magnetic force lines as shown in FIG. 19 generated between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2 14-1 When the positional relationship between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2 is as shown in FIG. 18, the magnetic force lines as shown in FIG. 19 generated when the lower magnetic field dividing C-shaped magnet 1-4 located at the midpoint between the two lower C-shaped N-pole magnets 1-3 is located directly above the lower fourth right-handed winding wire 6-2-4 When the positional relationship between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2 is as shown in Fig. 18, it is the magnetic field lines generated between the lower C-shaped N-pole magnet 1-3 and the lower circular S-pole magnet 2-2. When the lower C-shaped N-pole magnet 1-3 is located at a place where there is no conductor, such as the midpoint between the lower fourth right-handed conductor 6-2-4 and the lower first right-handed conductor 6-2-1, the entire magnetic field lines are as shown in Fig. 19 15 As shown in Fig. 20, when the upper C-shaped N-pole magnet 1-1 approaches the upper fourth left-handed conductor 6-1-4 from the right to the left, or when the upper C-shaped N-pole magnet 1-1 approaches the upper first left-handed conductor 6-1-1 from the right to the left, etc., at the left end of the magnetic field lines generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, new magnetic field lines are continuously generated, and the new magnetic field lines change linearly as the upper C-shaped N-pole magnet 1-1 moves. The explanatory symbol w represents this section 16 As shown in Fig. 20, when the upper C-shaped N-pole magnet 1-1 passes directly above the upper fourth left-handed conductor 6-1-4 from the right to the left, or as shown in Fig. 21, when the upper C-shaped N-pole magnet 1-1 passes directly above the upper spiral left-handed conductor group 6-1 from the right to the left, among the magnetic field lines 12 generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, the part close to the upper C-shaped N-pole magnet 1-1 moves leftward while changing linearly, and accordingly, a current is generated inside the conductors of the upper spiral left-handed conductor group 6-1. The explanatory symbol x represents this section 17 As shown in Fig. 20, when the upper C-shaped N-pole magnet 1-1 moves away from the upper fourth left-handed conductor 6-1-4 in the left direction, or when the upper C-shaped N-pole magnet 1-1 moves away from the upper first left-handed conductor 6-1-1 etc. in the left direction, at the right end of the magnetic field lines 12 generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, the right-end magnetic field lines disappear one after another while changing linearly. The explanatory symbol y represents this section As shown in Fig. 20, at the midpoint between the upper fourth left-handed conductor 6-1-4 and the upper first left-handed conductor 6-1-1, since there is no conductor, the magnetic field lines 12 generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1 do not affect the current generated inside the conductors such as the upper fourth left-handed conductor 6-1-4. Explanatory symbol z representing this section 19-1 As shown in Fig. 7, for the sake of clearly showing the arrangement of winding the upper spiral left-handed conductor group 6-1 around the upper circular S-pole magnet 2-1, the linear shape at the center of the cross-section of the upper circular S-pole magnet 2-1 is represented as a curved line, an explanatory dotted line 19-2 As shown in Fig. 7, for the sake of clearly showing the arrangement of winding the lower spiral right-handed conductor group 6-2 around the lower circular S-pole magnet 2-2, the linear shape at the center of the cross-section of the lower circular S-pole magnet 2-2 is represented as a curved line, an explanatory dotted line 20-1 As shown in Fig. 1, an explanatory arrow curve for representing the rotation direction of the insulating rotating shaft 4 not attached to the magnet 20-2 As shown in Figs. 1, 8, 9, 20, and 21, an explanatory arrow for representing the moving direction of the upper C-shaped N-pole magnet 1-1 and the lower C-shaped N-pole magnet 1-3 20-3 As shown in Figs. 8 and 9, an explanatory double-line arrow for representing the direction in which the current generated inside the upper spiral left-handed conductor group 6-1 and the lower spiral right-handed conductor group 6-2 flows 20-4 As shown in Figs. 20 and 21, in order to clearly show the generation state of the magnetic field lines when the upper C-shaped N-pole magnet 1-1 moves at high speed along the upper circular S-pole magnet 2-1, when the upper C-shaped N-pole magnet 1-1 approaches the upper fourth left-handed conductor 6-1-4, when the upper C-shaped N-pole magnet 1-1 comes directly above the upper fourth left-handed conductor 6-1-4, and when the upper C-shaped N-pole magnet 1-1 moves away from the upper fourth left-handed conductor 6-1-4, it is necessary to divide the magnetic field line generation diagrams. Therefore, it is shown to represent the position of the upper C-shaped N-pole magnet 1-1 moving to the next stage. Further, as shown in Fig. 6, from the stage of arranging four curved cylindrical S-pole magnets 2-3, it is shown to represent the stage of moving to the stage of arranging the four curved cylindrical S-pole magnets 2-3 closely side by side on the circumference. A double-line arrow for stage explanation As shown in FIGS. 20 and 21, when the upper C-shaped N-pole magnet 1-1 approaches the upper fourth left-wound wire 6-1-4 from the right to the left, or when the upper C-shaped N-pole magnet 1-1 approaches the upper first left-wound wire 6-1-1 from the right to the left, etc., at the left end of the magnetic field lines generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, new magnetic field lines are continuously generated, and the new magnetic field lines change linearly as the upper C-shaped N-pole magnet 1-1 moves. The vertical dividing line for explanation, such as the section w represented as 15, is displayed to represent the division. As shown in FIGS. 20 and 21, when the upper C-shaped N-pole magnet 1-1 approaches the upper fourth left-wound wire 6-1-4 from the right to the left, or when the upper C-shaped N-pole magnet 1-1 approaches the upper first left-wound wire 6-1-1 from the right to the left, etc., at the left end of the magnetic field lines generated between the upper C-shaped N-pole magnet 1-1 and the upper circular S-pole magnet 2-1, new magnetic field lines are continuously generated, and the new magnetic field lines change linearly as the upper C-shaped N-pole magnet 1-1 moves. The horizontal arrow line for explanation, such as the section w represented as 15, is displayed to represent the division. As shown in FIGS. 6, 7, and 19, the large parentheses for explanation, which are displayed to represent the range of the entire part and the range of magnetic field line generation.

Claims

1. An upper circular S-pole magnet with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of a magnet is disposed at the upper part. An upper C-shaped N-pole magnet with a shape like the letter C of the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is disposed so as to surround the upper circular S-pole magnet. By doing so, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the upper C-shaped N-pole magnet toward the direction of the upper circular S-pole magnet located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper C-shaped N-pole magnet toward the outer wall surface of the upper circular S-pole magnet. By rotating an insulating rotating shaft, the upper C-shaped N-pole magnet is moved at high speed along the upper circular S-pole magnet. In addition, a lower circular S-pole magnet with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole of a magnet is disposed at the lower part. A lower C-shaped N-pole magnet with a shape like the letter C of the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole is disposed so as to surround the lower circular S-pole magnet. By doing so, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the lower C-shaped N-pole magnet toward the direction of the lower circular S-pole magnet located at the inner center of the C, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower C-shaped N-pole magnet toward the outer wall surface of the lower circular S-pole magnet. By rotating the insulating rotating shaft, the lower C-shaped N-pole magnet is moved at high speed along the lower circular S-pole magnet. A large amount of alternating current is generated in a conductor circuit in which an upper spiral-shaped left-handed conductor group and a lower spiral-shaped right-handed conductor group are connected so that left-handed and right-handed conductors are alternately arranged. A magnetic field center concentration type non-reactive generator.

2. An upper circular N-pole magnet with a curved shape, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole of a magnet is arranged at the upper part. An upper C-shaped S-pole magnet with a shape like the letter C in the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole is arranged so as to surround the upper circular S-pole magnet. In this way, a large number of magnetic field lines are generated in all directions of the C-shaped portion of the upper C-shaped S-pole magnet from the direction of the upper circular N-pole magnet located at the center inside the C shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper circular N-pole magnet toward the outer wall surface of the upper C-shaped S-pole magnet. By rotating the insulating rotating shaft, the upper C-shaped S-pole magnet is moved at high speed along the upper circular N-pole magnet. Additionally, a lower circular N-pole magnet with a curved cylindrical shape, a cylindrical cross-section, and its outer wall surface magnetized to the N-pole of a magnet is arranged at the lower part. A lower C-shaped S-pole magnet with a shape like the letter C in the alphabet, a cylindrical cross-section, and its outer wall surface magnetized to the S-pole is arranged so as to surround the lower circular N-pole magnet. In this way, a large number of magnetic field lines are generated in all directions of the C-shaped portion of the lower C-shaped S-pole magnet from the direction of the lower circular N-pole magnet located at the center inside the C shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower circular N-pole magnet toward the outer wall surface of the lower C-shaped S-pole magnet. By rotating the insulating rotating shaft, the lower C-shaped S-pole magnet is moved at high speed along the lower circular N-pole magnet. A large amount of alternating current is generated in a conductor circuit in which an upper spiral-shaped left-handed conductor group and a lower spiral-shaped right-handed conductor group are connected so that the left-handed conductors and the right-handed conductors are alternately arranged. This is a magnetic field center concentration type non-reactive generator.

3. An upper circular S-pole magnet with a curved shape, a cylindrical cross-section, and an outer wall surface magnetized to the S-pole of a magnet is disposed at the upper part. An upper C-shaped N-pole magnet with a shape of the letter C of the alphabet, a cylindrical cross-section, and an outer wall surface magnetized to the N-pole is disposed so as to surround the upper circular S-pole magnet. By doing so, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the upper C-shaped N-pole magnet toward the direction of the upper circular S-pole magnet located at the inner center of the C, and a situation is created in which a large number of magnetic field lines are generated from the outer wall surface of the upper C-shaped N-pole magnet toward the outer wall surface of the upper circular S-pole magnet. By rotating an insulating rotating shaft, the upper C-shaped N-pole magnet is moved at high speed along the upper circular S-pole magnet. In addition, a lower circular S-pole magnet with a curved shape, a cylindrical cross-section, and an outer wall surface magnetized to the S-pole of a magnet is disposed at the lower part. A lower C-shaped N-pole magnet with a shape of the letter C of the alphabet, a cylindrical cross-section, and an outer wall surface magnetized to the N-pole is disposed so as to surround the lower circular S-pole magnet. By doing so, a large number of magnetic field lines are generated from all directions of the C-shaped portion of the lower C-shaped N-pole magnet toward the direction of the lower circular S-pole magnet located at the inner center of the C, and a situation is created in which a large number of magnetic field lines are generated from the outer wall surface of the lower C-shaped N-pole magnet toward the outer wall surface of the lower circular S-pole magnet. By rotating the insulating rotating shaft, the lower C-shaped N-pole magnet is moved at high speed along the lower circular S-pole magnet. A large amount of direct current is generated in a conductor circuit in which an upper spiral-shaped left-handed conductor group and a lower spiral-shaped left-handed conductor group are connected so that the upper left-handed conductors and the lower left-handed conductors are alternately arranged. A magnetic field center concentrated type non-reactive generator.

4. An upper circular N - pole magnet with a curved shape, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet is arranged at the upper part. An upper C - shaped S - pole magnet with a shape like the letter C of the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole is arranged so as to surround the upper circular S - pole magnet. By doing so, a large number of magnetic field lines are generated in all directions of the C - shaped portion of the upper C - shaped S - pole magnet from the direction of the upper circular N - pole magnet located at the inner center of the C - shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the upper circular N - pole magnet toward the outer wall surface of the upper C - shaped S - pole magnet. By rotating an insulating rotating shaft, the upper C - shaped S - pole magnet is moved at high speed along the upper circular N - pole magnet. In addition, a lower circular N - pole magnet with a curved cylindrical shape, a cylindrical cross - section, and its outer wall surface magnetized to the N - pole of a magnet is arranged at the lower part. A lower C - shaped S - pole magnet with a shape like the letter C of the alphabet, a cylindrical cross - section, and its outer wall surface magnetized to the S - pole is arranged so as to surround the lower circular N - pole magnet. By doing so, a large number of magnetic field lines are generated in all directions of the C - shaped portion of the lower C - shaped S - pole magnet from the direction of the lower circular N - pole magnet located at the inner center of the C - shape, and a situation is created where a large number of magnetic field lines are generated from the outer wall surface of the lower circular N - pole magnet toward the outer wall surface of the lower C - shaped S - pole magnet. By rotating the insulating rotating shaft, the lower C - shaped S - pole magnet is moved at high speed along the lower circular N - pole magnet. A large amount of direct current is generated in a conductor circuit in which an upper spiral - shaped right - hand - wound conductor group and a lower spiral - shaped right - hand - wound conductor group are connected so that right - hand - wound conductors and right - hand - wound conductors are alternately arranged. This is a magnetic - field - center - concentrated type non - reaction generator.

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