JP2011188582A - Method for obtaining electromotive force from both ends of coil with both permanent magnet and coil in stationary state - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a method for obtaining an electromotive force from both ends of a coil, with both permanent magnets and the coil being a stationary state. <P>SOLUTION: Prime number magnetic flux changes with time; which can be explained by an experimental fact that the coil in a magnetic field in contacting or approaching the same magnetic poles of a plurality of permanent magnets in point, line, or surface, i.e., in a prime number magnetic field performs motion and interacts with the permanent magnets and a theoretical research in which physical contents drawn from equation of motion of particles having magnetic moment in the prime number magnetic fields are made to correspond to the electromagnetism; and by newly arranging prime number magnetic fields in the coil in the stationary state inside the prime number magnetic fields, it is possible to obtain electromotive force from both ends of a coil by the resonance vibration of the prime number magnetic flux. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  Both relate to a method of obtaining a fundamental phenomenon of an electromagnetic phenomenon in which an electromotive force is obtained from both ends of a coil from a stationary permanent magnet and a coil.

  In 1824 Arago discovered the magnetic phenomenon that the copper disk rotates as the magnet rotates.

  In 1831 Faraday discovered an electromagnetic phenomenon in which an electromotive force appears at both ends of a coil when a magnet is moved in a hollow coil.

  What is common to Arago and Faraday experiments is that the electromagnetic phenomenon appears due to the movement of the magnet.

  However, the electromagnetic phenomenon that an electromotive force appears from both ends of the coil without moving both the magnet and the coil is not found at this stage.

Japanese Patent Application No. 2008-140318 Japanese Patent Application No. 2008-256979 Japanese Patent Application No. 2008-329172 Japanese Patent Application No. 2009-42186 Japanese Patent Application No. 2009-160369 Japanese Patent Application No. 2009-238120 Japanese Patent Application No. 2010-3586

Introduction to analytical mechanics to learn quantum mechanics Introduction to university lecture series quantum mechanics

  To obtain an electromotive force from both ends of a coil from a magnet and a coil, the movement of the magnet or the movement of the coil is a basic condition of electromagnetism.

  Although contradicting the basic conditions of electromagnetism, if an electromotive force can be obtained from both ends of the coil without moving the magnet and the coil, a power generation system that is beneficial from the viewpoint of energy efficiency is obtained.

  Therefore, the problem to be solved by the invention is a method of obtaining electromotive force from both ends of a coil from a stationary permanent magnet and a coil.

  The idea of obtaining an electromotive force from both ends of a coil from a stationary permanent magnet and coil is inconsistent with the basic conditions of electromagnetism, and in order to obtain such a new electromagnetic phenomenon, experiment and theory Research from both sides is necessary.

  From the experimental aspect, when a coil suspended by a thread is placed in the magnetic field when the same magnetic poles of a plurality of permanent magnets are contacted or approached by points, lines, or surfaces, that is, a prime magnetic field, the coil moves linearly or rotationally. A copper round bar coiled with copper wire also moves. However, a soft iron round bar coiled with copper wire hardly moves. In addition, the coil in the prime magnetic field acts as a force with the permanent magnet.

  This experimental fact can be explained by the fact that the prime flux across the coil in the prime magnetic field is time-varying, so the prime flux is time-varying.

  An electromotive force is induced in the stationary coil in the prime magnetic field due to a change in the prime magnetic flux with time, and an electromotive force appears at both ends of the coil.

  From the theoretical point of view, the law of numerical minimum action satisfying the numerical calculation, derived from the number theoretic equation regarding the prime number having the concept of variational principle that explains the alignment distribution of the prime magnetic flux or the motion realized by the prime magnetic field, Write in the mathematical differential equation, give the basic physical quantity to the mathematical differential equation, rewrite it to the mathematical physical differential equation that satisfies the numerical calculation, and further renumber the mathematical physical differential equation from the viewpoint of dimensional unification The equation of motion is rewritten to explain the motion of particles with magnetic moment. By making the physical content of the equation of motion correspond to the electromagnetic phenomenon, electric energy proportional to (Planck constant) x (angular frequency) is induced in the stationary coil in the prime magnetic field, and electromotive force is generated at both ends of the coil. Explain that it appears.

  What is common in both experiments and theory is the time variation of the prime magnetic flux, and therefore an electromotive force appears at both ends of the stationary coil in the prime magnetic field, but a new electromotive force is generated in the coil to obtain a larger electromotive force. A large electromotive force can be obtained from both ends of the coil due to the resonance vibration of the prime magnetic flux by arranging a permanent magnet having a large prime magnetic field, that is, the same magnetic pole in contact with or close to the point, line, or surface.

  The two prime number permanent magnets preferably have the same residual magnetic flux density and coercive force. In addition, it is preferable that the permanent magnet in the coil be held so as to vibrate, since the effect of vibration of the permanent magnet itself can be expected.

  Accordingly, a means for solving the problem is to arrange a permanent magnet in which a new prime magnetic field, that is, the same magnetic pole is brought into contact or close in a point, line, or plane in a stationary coil in the prime magnetic field.

  Since the present invention can obtain an electromotive force without applying force or work from the outside, it has an excellent effect from the viewpoint of energy efficiency.

  From the viewpoint of sustainable supply of electromotive force, it has a permanent supply effect.

It is the schematic of the method of obtaining an electromotive force from the both ends of a coil from the permanent magnet and coil which are both stationary.

  Since the idea of obtaining an electromotive force from a stationary permanent magnet and coil is a condition that lies outside the basic conditions of electromagnetism, both experimental and theoretical research is required. Mathematical thinking that introduces new concepts is required.

  The new mathematical thinking needs to explain that the electromotive force appears at both ends of the stationary coil in the prime magnetic field of the present invention, and for that purpose, describe the motion of particles with a magnetic moment in the prime magnetic field. It is necessary to seek mathematical theory.

  In the present invention, the mathematical theory is to obtain an equation of motion of a particle having a magnetic moment in a prime magnetic field.

  The method for obtaining the equation of motion is to define L (Lagrange Jean) in analytical mechanics and to obtain a differential equation satisfying the field quantity so that the variation of the action integral (Equation 1) becomes zero.

  In the present invention, it is difficult to specifically define L of a particle having a magnetic moment in a prime magnetic field from the beginning. Therefore, a new theorem formula relating a prime number satisfying a numerical calculation is made to correspond to a variational principle. New concepts. The outline of mathematical theory introducing a new concept is described below.

  A number theoretic expression relating to a prime number satisfying a numerical calculation corresponding to the variational principle is represented by an expression (Expression 2) described in Patent Document 5. Specifically, (Expression 2) represents a motion equation of a prime magnetic field. (Equation 2) can be simply written as (Equation 3). Since (Equation 3) is an equation of motion expressed in the number theoretic expression of the prime magnetic field, it is appropriate to write a complex plane by mapping or coordinate transformation and variable transformation in (Equation 3) to obtain the equation of motion as a physical equation. is there.

  The detailed mathematical formula derivation process is omitted, but the conformal mapping (Formula 4) and the coordinate conversion to the complex plane (Formula 5) described in Patent Document 7 are applied to (Formula 3), and further expressed by (Formula 6). By applying the variable transformation, the law of minimum action corresponding to the variational principle and satisfying the numerical calculation is described as a mathematical differential equation (Formula 7).

  (Equation 7) is written as (Equation 8) as a geometrical equation, and when (Equation 6) is applied to (Equation 8), the numerical calculation is naturally satisfied.

  (Equation 9) is obtained as a geometrical equation satisfying numerical calculation by giving a Planck constant and a static electron mass which are basic physical quantities to (Equation 8). (Equation 9) can be rewritten as a number-theoretic physical differential equation (Equation 10) that satisfies the numerical calculation.

        When (Equation 10) is rewritten using a fine structure constant from the viewpoint of unification of dimensions, (Equation 11) is regarded as an equation of motion of particles having a magnetic moment in a prime magnetic field. It can be considered that the first term on the left side of (Equation 11) means the interaction energy between the prime magnetic field and the particles having the magnetic moment, and the second term on the left side means the potential energy. . (Formula 11) is similar to Schrodinger's equation of motion (Formula 12). The main difference between (Formula 11) and (Formula 12) is that the potential energy term is positive and negative. This explains the anti-cron force in a prime magnetic field.

  Next, it is required to make the physical content of the equation of motion correspond to the electromagnetic phenomenon. The physical content of the equation of motion is that the interaction energy between a particle with a prime magnetic field and a magnetic moment is induced on the zeta function as energy proportional to (Planck constant) x (angular frequency). Energy is converted into mechanical energy such as rotational energy or electrical energy (electron volts).

  The zeta function is expressed by the equation (Equation 13) described in Patent Document 5, but is transferred to (Equation 14) by the calculation in the process of deriving the equation of motion, and the graph of the absolute value function of (Equation 14) The zeta function becomes a spiral curve extending vertically upward in the complex plane or a plurality of single loops positioned vertically upward.

  If a zeta function that represents a geometric shape such as a spiral curve or a plurality of single loops is directly associated with a coil having a geometric shape, the physical content of the equation of motion is Next, an electromagnetic phenomenon in which electric energy proportional to (Planck constant) × (angular frequency) is induced and electromotive force appears at both ends of the coil will be described.

  From the above description, it can be explained that the electromotive force appears at both ends of the coil in the prime magnetic field from the theoretical side, and from the experimental side, the coil in the prime magnetic field moves or the permanent magnet acts with the force. There are experimental facts.

  Therefore, what can be said in common from both theory and experiment is that the prime magnetic flux changes with time. The temporal change of the prime magnetic flux can be considered as an electromagnetic phenomenon that occurs in order to preserve the discontinuous structure of the prime magnetic field or the discontinuous distribution of the prime magnetic flux from the physical content that the zeta function means.

  Resonance of prime magnetic flux by arranging a new prime magnetic field, that is, a permanent magnet in contact with or close to the same magnetic pole in the point, line, or plane, in order to obtain a larger electromotive force by utilizing the time variation of the prime magnetic flux. A larger electromotive force is obtained from both ends of the coil due to vibration.

  It is preferable if the permanent magnet in the coil is held freely oscillating, since the effect of vibration of the permanent magnet itself can be expected.

  Therefore, an embodiment for carrying out the invention is to obtain an electromotive force from both ends of a coil by resonance vibration of a prime magnetic flux by disposing a new prime magnetic field in a stationary coil in the prime magnetic field.

  The electromotive force can be used in various industrial fields as power generation.

DESCRIPTION OF SYMBOLS 1 Permanent magnet 2 Coil 3 Material for holding the permanent magnet in a coil freely oscillating (For example, a nonmagnetic spring)
4 electromotive force

Claims (1)

  The magnetic field when the same magnetic poles of multiple permanent magnets are contacted or approached by points, lines, or planes, that is, the coil in the prime magnetic field moves, and the experimental facts such as the force acting on the permanent magnet and the prime magnetic field The prime magnetic flux is time-varying due to the theoretical study in which the physical content derived from the equation of motion of the particles with the magnetic moment is made to correspond to the electromagnetic phenomenon. Therefore, the prime magnetic flux changes at both ends of the stationary coil in the prime magnetic field. Electric power appears, and a large electromotive force appears at both ends of the coil due to resonance vibration of the prime magnetic flux caused by placing a new prime magnetic field in the coil, that is, a permanent magnet with the same magnetic pole in contact with or close to a point, line, or surface. A method of obtaining electromotive force from both ends of a coil from a permanent magnet and a coil that are both stationary.

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