JP2009290977A - Method for converting magnetic field of stationary permanent magnet into magnetic field of magnetic flux vibration, and taking out mechanical energy and electric energy - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a method for converting a magnetic field of a stationary permanent magnet into a magnetic field of a time change without moving the permanent magnet, namely a method for converting magnetic field energy of the permanent magnet into energy for giving a work to the outside. <P>SOLUTION: A geometric structure of distribution of prime number, which an arithmetical formula on pure mathematics means becomes an equivalent relation with a geometric structure of the magnetic field when same polarities of a plurality of permanent magnets are arranged by bringing them into contact with each other by points, lines or faces or they are brought close, and with distribution of magnetic flux. Magnetic field energy at that time becomes energy of vibration of magnetic flux. Energy of vibration of magnetic flux gives work to outside. Energy of vibration of magnetic flux is thereby used as rotation energy and electric energy. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

  The present invention relates to converting a magnetic field of a stationary permanent magnet into a time-varying magnetic field to generate magnetic flux vibration and converting the magnetic field energy of the permanent magnet into energy that gives work to the outside. In particular, it relates to converting the magnetic field energy of a permanent magnet into mechanical energy and electrical energy.

Conventionally, in electromagnetism, it has been considered impossible to use the magnetic field energy of a stationary permanent magnet as energy that gives work to the outside. It has been said that work is given to the outside by moving a permanent magnet.
Japanese Patent Laid-Open No. 9-271163 (Patent Document 1) relates to an apparatus.
JP-A-9-271163

Conventionally, the magnetic field energy of a stationary permanent magnet has been regarded as energy that does not give work to the outside. In order to convert this magnetic field energy into energy that gives work to the outside, it is necessary to cause a time change of the magnetic field, that is, a vibration of the magnetic flux.
The problem to be solved by the present invention is the principle elucidation and the method that the magnetic field of a stationary permanent magnet can be converted into a magnetic field with magnetic flux oscillation.
Further, in Patent Document 1, the magnetic field of a permanent magnet in which the same poles of a plurality of permanent magnets are contacted or placed close to each other with dots, lines, or surfaces is a time-varying magnetic field, that is, a magnetic field in which magnetic flux oscillation exists. Therefore, there is a problem that does not describe the necessity of a structure capable of vibrating the rotating shaft.

In carrying out the principle clarification, the present applicant paid attention to the equivalence between a mathematical theory (Mathematical Expression 1) relating to a mathematical prime number and a chemical experiment using a permanent magnet.
Examining the number theorem related to prime numbers, we can find the geometric structure that the number theorem means, that is, the torus sphere, the equation of motion on the torus sphere (Equation 2) and the action display of the force (Equation 3). The distribution state and motion trajectory of ions (mercury ions and iodine ions) in an aqueous solution in a magnetic field arranged with the same poles of a plurality of permanent magnets in contact with each other agree with the meaning of the number formula. I found out.

  Thus, the mathematical formula relating to prime numbers in pure mathematics has a relation equivalent to the geometric structure of the magnetic field when the permanent magnets are arranged in the same-polarity contact or close to each other. That is, the geometrical structure derived from the mathematical formula, the torus spherical surface, gives the geometrical structure of the magnetic field when the same poles of a plurality of permanent magnets are arranged in contact with or close to each other by points, lines or surfaces.

Since the motion method derived from the number theory formula is also regarded as an energy equation, the square of Φ corresponds to the total energy from formula 2. The total energy corresponds to lnλ (k) × (lnλ (k) + c) × ω (ω indicates vibration), and lnλ (k) × (lnλ (k) + c) is the result of analysis from the number equation. Corresponds to the distribution of magnetic flux.
Therefore, the magnetic field energy when the same poles of a plurality of permanent magnets are arranged in contact with or close to each other by points, lines, or surfaces is converted into time-varying magnetic flux, that is, energy of magnetic flux vibration. The magnetic field of a stationary permanent magnet is converted into a time-varying magnetic field by arranging the same poles of a plurality of permanent magnets in contact with or close to each other with dots, lines, or surfaces.

  Therefore, the method of converting the magnetic field of a stationary permanent magnet into a time-varying magnetic field is that the same polarity (N pole and N pole, or S pole and S pole) of a plurality of permanent magnets is in contact with, or close to, a point, line, or surface. What is necessary is just to arrange | position. Thus, in the magnetic field in which the permanent magnet is disposed, the magnetic body and the magnet are rotated (rotation and revolution) by experiments, and a unipolar induction phenomenon occurs without rotating the copper plate. Then, when the same poles of a plurality of permanent magnets are contacted or arranged close to each other by dots, lines, or surfaces, the voltage changes with time between the copper plate and aluminum (Formula 4). appear.

It is well known that the magnetic field of magnetic flux oscillation moves a magnetic material and a magnet.
Since the magnetic field when the same poles of a plurality of permanent magnets are arranged in contact with or close to each other by points, lines, or surfaces is a magnetic field of magnetic flux oscillation, the magnetic body and the magnet move if placed in the magnetic field. In particular, a magnet generates stable large kinetic energy or rotational energy by interaction with a magnetic field that vibrates magnetic flux.

It is well known that a magnetic field that vibrates magnetic flux generates electrical energy.
Combining a plurality of structures in which the same poles of a plurality of permanent magnets are contacted or placed close to each other by dots, lines, or surfaces, and are wrapped with a copper plate and a metal plate having a different ionization tendency from the copper plate, such as an aluminum plate Electrical energy can be obtained by utilizing the resonance phenomenon associated with magnetic flux vibration.

  When converting the energy of magnetic flux vibration into mechanical energy, the magnetic body as a rotating body, a magnet, and the rotating shaft connected to the rotating body installed in the magnetic field are mechanically synchronized with the magnetic flux vibration. Produce energy. Therefore, it is a necessary condition for converting the magnetic body, the magnet, and the rotating shaft as the rotating body to be able to rotate and vibrate so as to be converted into mechanical energy.

  Specifically, when a group of permanent magnets arranged such that the same poles of a plurality of permanent magnets are in contact with or close to each other with dots, lines, or surfaces form a disk shape, the upper side of the permanent magnet group is A rotating shaft may be provided perpendicular to the plane, and a magnet as a rotating body may be disposed on the rotating shaft. The magnet as the rotating body may be a single structure permanent magnet, or may be a structure in which the same poles of a plurality of permanent magnets are arranged in contact with or close to each other by dots, lines, or surfaces. However, in the case of a single-structure permanent magnet, it is possible to attenuate the magnetic pole, and the latter is more advantageous.

The greatest effect of the present invention is that the magnetic field energy of the permanent magnet can be used as energy for giving work to the outside.
Permanent magnet energy can be used as an energy supply source by taking it out as mechanical energy or electrical energy. Conventionally, energy is obtained by moving a magnet, but the present invention can obtain energy without moving a magnet.

  When the energy of magnetic flux vibration is taken out as electric energy, it can be used as the energy of electrolysis reaction. For example, it can be used as energy required for the water electrolysis reaction (Chemical Formula 1). Hydrogen can be obtained from Chemical Formula 1.

  FIG. 1 is a diagram in which four permanent magnets formed by machining, cutting or the like are arranged with their same poles in contact with dots. 1 is a molded permanent magnet, 2 is a non-magnetic material such as plastic, and is fixed to the permanent magnet with an adhesive or the like. 3 is an inclination angle between the vertical line and the permanent magnet, and is preferably in the range of 0 to 150 degrees. The magnetic field generated when the permanent magnet is disposed as shown in FIG. 1 is a time-varying magnetic field. That is, it is a magnetic field of magnetic flux oscillation.

  In order to convert energy generated by magnetic flux vibration into mechanical energy, a rotating body as shown in FIG. 2 is produced. FIG. 2 is a diagram in which four permanent magnets formed by machining, cutting, or the like are disposed with the same poles in contact with dots. 4 is a molded permanent magnet, 2 is a non-magnetic material such as plastic, and is fixed to the permanent magnet with an adhesive or the like. 3 is an inclination angle between the vertical line and the permanent magnet, and is preferably in the range of 0 to 150 degrees.

  It should be noted that the permanent magnet 1 in FIG. 1 uses a permanent magnet magnetized in the vertical direction, and the permanent magnet 4 in FIG. 2 uses a permanent magnet magnetized in the left-right direction. That is, the magnetization direction of the permanent magnet group serving as the base must be orthogonal to the magnetization direction of the permanent magnet group serving as the rotating body. This is because it is related to the Lorentz force in electromagnetism, and a rotational force cannot be obtained unless an orthogonal structure is used.

  FIG. 3 is a diagram in which a rotating body is coupled to a rotating shaft, and the rotating shaft is configured to be rotatable and oscillating. 5 uses a non-magnetic material such as practic or stainless steel on the rotating shaft. Reference numeral 6 denotes a structure such as a bearing, which has a structure in which the rotation shaft is rotatable and can vibrate vertically and horizontally. The rotating shaft and the rotating body may be fixed with a screw-like structure. The upper end of the rotating shaft is supported by a structure such as a bearing.

  FIG. 4 is a side view of the rotating structure. This rotational structure diagram is the best mode for extracting magnetic flux vibration energy as rotational energy. Increasing the residual magnetic flux density and holding force of the permanent magnet increases the rotational energy.

  FIG. 5 is a diagram for converting magnetic flux vibration energy into electrical energy. Since the magnetic field when the same poles of a plurality of permanent magnets are arranged in contact with or close to each other by points, lines, or surfaces is a time-varying magnetic field, a voltage is generated. By combining a plurality of structures in which permanent magnets with the same polarity contact or proximity structure are wrapped with a copper plate and a metal plate with different ionization tendency, such as an aluminum plate, an effective voltage can be obtained using the resonance phenomenon of magnetic flux vibration. Take out. FIG. 5 shows a combination of two.

  It can be used as electric power by taking out the energy of magnetic flux vibration as rotational energy or electric energy.

FIG. 1 is a diagram showing an arrangement in which the same poles of a plurality of permanent magnets are contacted at points. FIG. 2 is a view showing a rotating body in which the same poles of a plurality of permanent magnets are contacted at points. FIG. 3 is a diagram showing a state in which the rotating body and the rotating shaft are freely rotatable and vibrated. FIG. 4 is a side view of the rotating device. FIG. 5 is an apparatus diagram for extracting electric energy.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Permanent magnet magnetized in the up-and-down direction 2 Nonmagnetic material like a plastic board 3 Inclination angle of perpendicular line and magnet 4 Permanent magnet magnetized in the left-right direction 5 Rotating shaft 6 Rotating and vibrating like a bearing Structure 7 Aluminum plate 8 Copper plate 9 Voltage 10 Permanent magnet magnetized vertically

Claims (4)

  By arranging the same poles of a plurality of permanent magnets in contact with or close to each other at points, lines, or surfaces, the magnetic flux is decomposed into two components in the vertical and horizontal directions, and stationary by vibrating in the vertical and horizontal directions. A method of extracting mechanical energy and electric energy by converting the magnetic field of the permanent magnet into a magnetic field of magnetic flux oscillation.   A rotating shaft that is rotatable and oscillating perpendicular to the permanent magnet group is provided in the magnetic field of a plurality of permanent magnets arranged so that the same poles of a plurality of permanent magnets are in contact with or close to each other by points, lines, or surfaces. Moving a plurality of permanent magnets arranged on the rotating shaft by arranging a plurality of permanent magnets having a magnetization direction that is parallel to the upper plane of the permanent magnet group and perpendicular to the magnetization direction of the permanent magnet group, A method to extract mechanical energy and electrical energy by rotating and converting the magnetic field of a stationary permanent magnet into a magnetic field of magnetic flux oscillation.   A rotating shaft that is rotatable and oscillating perpendicular to the permanent magnet group is provided in the magnetic field of a plurality of permanent magnets arranged so that the same poles of a plurality of permanent magnets are in contact with or close to each other by points, lines, or surfaces. A plurality of permanent magnets having a magnetization direction that is parallel to the upper plane of the permanent magnet group and perpendicular to the magnetization direction of the permanent magnet group are arranged so that the same poles are in contact with or close to each other at points, lines, or surfaces. A method for extracting mechanical energy and electric energy by converting a magnetic field of a stationary permanent magnet by moving and rotating a plurality of permanent magnets arranged on a rotating shaft into a magnetic field of magnetic flux vibration.   Multiple permanent magnets arranged in contact with, or close to, the same poles, lines, or surfaces, with copper plates and copper plates and other metal plates with different ionization tendencies, such as aluminum plates A method of extracting mechanical energy and electric energy by converting the magnetic field of a stationary permanent magnet into a magnetic field of magnetic flux oscillation by combination.

Images