WO2017199450A1 - Monopole multistage transformer motor - Google Patents

Monopole multistage transformer motor Download PDF

Info

Publication number
WO2017199450A1
WO2017199450A1 PCT/JP2016/065370 JP2016065370W WO2017199450A1 WO 2017199450 A1 WO2017199450 A1 WO 2017199450A1 JP 2016065370 W JP2016065370 W JP 2016065370W WO 2017199450 A1 WO2017199450 A1 WO 2017199450A1
Authority
WO
WIPO (PCT)
Prior art keywords
armature
motor
coil
drive
power generation
Prior art date
Application number
PCT/JP2016/065370
Other languages
French (fr)
Japanese (ja)
Inventor
由次 近藤
Original Assignee
由次 近藤
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 由次 近藤 filed Critical 由次 近藤
Priority to PCT/JP2016/065370 priority Critical patent/WO2017199450A1/en
Publication of WO2017199450A1 publication Critical patent/WO2017199450A1/en

Links

Images

Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K53/00Alleged dynamo-electric perpetua mobilia

Definitions

  • a conventional electric motor is an armature in which a good conductor wire wound around a plywood pillar of an exciting iron plate that is integrally insulated is wound around an armature, and a gap is formed between one end and the other end of the armature.
  • This is a two-body structure of a stator and a rotor in which the magnet N / S double magnetic poles of another body are moved relative to each other and electromagnetic force interaction is caused therebetween.
  • the generated electromagnetic force and the driving electromagnetic force are in a closed relationship of back-to-back symmetry, which is the electromagnetic force ⁇ power: NS magnetic force: ⁇ attractive force: reaction gravity: there are four symmetry of input and output, They cancel each other out and have energy conservation.
  • Symmetry is generated in the solenoid coil, the drive current, the magnetic pole NS due to the flow of magnetic flux, the attractive force and the attractive force, and the negative symmetry of the direction in which the direction of the power goes and the negative direction. There is a closed relationship that cancels each other out.
  • the electromagnetic force indicates that these four fields are united, the elementary particle is one that has four faces that cannot be divided, and is the center of a plus-minus three-dimensional vector centered on the pole. It has four rotation axes, has plus / minus axial directions, has plus / minus forward / reverse rotation directions, and has four plus / minus rotation speeds proportional to the four forces.
  • the self-inductive minus / plus generated current causes a short circuit in the motor armature's closed circuit, consumes the generated current, and the coil becomes a heater, generating heat. Copper loss, heat loss, and power loss occur.
  • a rotating magnetic field is generated by driving power input, and the motor is driven.
  • the motor is 90 degrees out of phase, power is generated by self-induction power generation and short-circuited within the motor to generate heat.
  • the generated power and drive power are in a symmetrical relationship that cancel each other.
  • the generated magnetic flux in the integral excitation iron of the two-body electric motor causes an alternating magnetic flux to flow in the excitation iron including another magnet, While the magnetic poles cancel N ⁇ S, eddy currents generated in the closed circuit are short-circuited and generate heat.
  • the electric power generated by the drive input and the electric power generated by the self-inductive power generation are always back-to-back and are in a relationship of canceling each other.
  • the drive torque and power generation torque of the two-body electric motor are symmetrical with each other in the relationship between the four pairs of exciting iron and coil between the two bodies. And plus / minus: minus / plus and four-body symmetry, and offset and follow the law of conservation of energy.
  • the electromagnetic force that spontaneously breaks the symmetry of the electromagnetic force exceeds the narrow law of conservation of energy, and extracts the power of the drive / electromagnetic force and the power of the same energy as the drive power separately.
  • There has been no technique for spontaneously breaking the symmetry of the present invention until the advent of the present invention. Also, there was no technology that spontaneously broke the symmetry of electromagnetic force and increased the torque N times.
  • a DC / AC brushless inverter power supply rectifies self-induced power generation by a parasitic diode and flows it as regenerative electricity in a brushless motor in which a transient current is activated by a magnet phase control current and a field current is supplied to the electric motor. Due to symmetry cancellation, the number of rotations does not increase, so that the voltage of electricity generated with respect to the input power supply is low and cannot be regenerated, and back electromotive force causes short-circuit heat generation in the closed circuit. The improvement of power loss by self-induced power generation cannot be expected.
  • the middle of one end and the other end of the armature coil in the generator is a series connection, which is a closed circuit of a star circuit or a delta circuit.
  • the heat loss and power loss are severe due to the ⁇ target of electromagnetic force.
  • the electromagnetic force in the closed circuit is the same as that of the electromotive force and the back electromotive force, and the behavior of power generation. , Heat loss and power loss.
  • the generated current In the regulator of the battery overcharge prevention switch mechanism used in the conventional alternator generator, the generated current always flows through the transientr, and the heat loss due to heat generation is large.
  • the alternator which is a direct-winding generator, causes heat loss and power loss due to the closed circuit.
  • the excitation coil power supply is cut off and overcharged. It is a mechanism to prevent. Transformers are frequently used in this shut-off switch circuit, resulting in heat loss. There is no practical machine that uses the loss of voluntary subjectivity.
  • a monopole as a concept is possible.
  • the conventional generator is required to have the required electric power and the total torque and the maximum torque by the closed circuit from the start rotation. As a result, most of the energy is heat loss and power.
  • the first basic problem of the electric motor to be solved by the present invention is that when the electric motor is driven, self-induced power generation occurs, and at the same time, a power loss as a drag is generated by the self-induced magnetic flux.
  • the first problem is to eliminate this.
  • the second basic problem of the electric motor to be solved by the present invention is that the electric power generated by self-induction in the motor and the driving power are short-circuited to generate heat.
  • the second problem is to eliminate this heat loss.
  • a third problem to be solved by the present invention is to constantly regenerate power generation generated during driving.
  • a fourth problem to be solved by the present invention is an electric circuit that supplies regeneratively generated power as drive power at all times.
  • the fifth problem to be solved by the present invention is to multiply the magnetic flux N times and to increase the torque N times.
  • a sixth problem to be solved by the present invention is to convert all regenerative power into drive power without using a control circuit.
  • the seventh problem to be solved by the present invention is a method of constantly returning the total power of the regenerative power of both the electromotive force and the counter electromotive force to the battery.
  • Means for solving the power loss due to the drag of the self-induction power generation which is the first problem of the present invention, includes a magnetic pole based on the magnetic flux generated in the armature exciting iron by the self-induction power generation, and another magnet
  • a magnetic pole based on the magnetic flux generated in the armature exciting iron by the self-induction power generation
  • another magnet As a means for eliminating the drag and repulsion force generated between the two armatures, the flow of the magnetic flux of the armature is cut to prevent the magnetic flux from flowing.
  • the specific means for this purpose is to use a double coil that separates the drive motor coil and the self-induction power generation coil.
  • the second object of the present invention is to cut the middle of the solenoid coil wound around the NS magnetic double pole excitation iron to double the terminal.
  • Means are to provide an additional single-pole armature pair. Due to this, the electric currents of the two magnetic poles that simultaneously generate electricity in both the N and S poles are different in the traveling direction of the electric machine, and ⁇ electricity due to forward and reverse electromotive forces with different rotation directions when this current goes to the same magnetic pole, short-circuits in the middle of the coil.
  • the second solution is to provide a single-armature armature pair that prevents the heat loss, eliminates the heat loss, and realizes the spontaneous breaking of the current symmetry.
  • a third object of the present invention a means for solving the generated power in which the rotation direction of the current generated at the time of driving reversely rotates without short-circuiting, and for effectively using all the generated current is the self generated at the time of driving.
  • a third means for solving the above problem is to form a transformer motor that collects self-induced power generation in which induction power generation is overlapped with a drive current coil and the generated current is wound twice to generate power simultaneously with drive power.
  • the means for solving the problem of the electric circuit for supplying the electric power that is always regeneratively generated as the driving power which is the fourth problem of the present invention, is to generate the electric power generated in the double coil by the input driving power as the next in-phase electric
  • the circuit to be supplied to the drive coil of the child pole is a circuit in which the back electromotive force is short-circuited by the closed circuit of the double-pole armature, and the closed circuit is constructed with a capacitor. You can input to the battery in parallel connection.
  • a back electromotive force circuit having the above capacitor and transformer is connected in series to the middle connection of the ⁇ terminals of the battery connected in series. Connecting to the middle of the connected battery with an interrupt serial connection is a means for solving the fourth problem.
  • the means for spontaneously breaking the electromagnetic force symmetry magnetic force of the fifth problem of the present invention increasing the magnetic flux by N and increasing the torque by N, generates power by means of electricity input to the armature.
  • a power generation coil that inputs to the drive power coil of at least one armature in the same phase, and further regenerates and inputs the power generated by the double coil of the same armature column to the drive coil of the Nth armature column
  • a transformer motor circuit is used as a solution.
  • Means for solving the sixth problem of the present invention is a solution means by directly supplying the same co-rotating multistage motor without passing through the control circuit by the method circuit for solving the fifth problem.
  • Means for solving the seventh problem of the present invention is that the power generated in the last stage of the multistage motor is supplied to the battery by the control circuit.
  • the drive power input circuit of the electric motor and the electric circuit for self-induction power generation are the same, and a short circuit occurs inside the electric circuit.
  • the first implementation of a drive power supply circuit in which a coil is wound around an excitation iron pole and a power generation / drive circuit electric motor comprising an armature of a power generation circuit in which a coil is wound around the same excitation iron pole The form is as follows.
  • the power loss is caused by self-induction in the magnetized iron at the same time due to the current generated in the coil that spans NS bipolar poles in both the generator and the drive motor. Magnetic flux generated, magnetic poles generated by the flow of magnetic flux, and attraction force due to another magnet interacting with the exciting iron magnetic pole. Cutting off the source of this magnetic flux flow is the second embodiment.
  • the third aspect of the present invention which is the disclosure of the present invention, is that self-induction power generation is achieved by attaching a full-wave commutator to a friend when an input / output transistor switch mechanism is attached to both ends of a driving single-magnetic armature circuit and a brushless motor is used. Regenerate part of one direction. Capacitors are attached to both ends of the driving single-armature armature circuit, and a short circuit due to the reverse induced electromotive force, which is the other direction of self-inductive power generation, is used as a closed circuit. Regeneratively store the amount of electricity generated.
  • the first embodiment for preventing heat loss of the present invention is to wrap a good electrical conductor wire coated with a first insulating film as a coil around a pillar made of a magnetized iron plate with an edge coating as a plywood, A good electric conductor wire with a second insulation film is wound as a coil on the top to form a double coil armature.
  • An electric motor is formed by using magnets as separate bodies at both ends of the magnetizing iron.
  • One coil is a drive power supply circuit, and the other coil is a generator electric circuit.
  • a separate electric circuit for power generation and driving that shares a magnetic circuit is constructed. As a result, a power generation / drive motor is formed.
  • the armature coil is cut between the one end and the other end of the coil to double the terminal. As a result, a power generation / drive motor having a single magnetic armature pair coil is formed.
  • the single-armature armature pair motor is a brushless DC drive two-body motor.
  • a transistor that is switched by an element that informs the relative position of the magnetic poles of another body is attached.
  • a brushless motor that inputs and drives desired drive electricity is constructed.
  • a parasitic transester that straddles this sswitch mechanism is mounted, and a mechanism for regenerating part of one direction of self-induced power generation is constructed.
  • the fourth embodiment of the present invention is a regenerative system in which a capacitor is attached to one end and the other end of a drive circuit of a motor armature drive circuit, a part of the other direction of self-induced power generation is stored in the capacitor, and is discharged for driving during driving. Build a circuit.
  • the figure shows a two-body electric motor comprising a stator and a rotor.
  • the electric circuit is a single-phase single-column in-phase parallel circuit.
  • the coil wound around the exciting magnetic iron is an exciting magnetic iron sharing / power generation / driving armature / internal electric motor in which a driving electric circuit, a generating electric circuit and a separate circuit are respectively wound around the same exciting magnetic iron.
  • the effect is that when the drive motor inputs electricity, 4/5 page self-induced power generation occurs, but the generated electricity is output from a power generation electric circuit different from the drive electric circuit and digested.
  • the conventional driving electricity and the self-induced power generation electricity are short-circuited and generate heat, and in the present invention, the power generation is effectively digested by another power generation circuit, so that there is no short circuit of electricity and no heat is generated. In addition, 100% of the generated power can be obtained.
  • the second effect of eliminating the power loss of the present invention is that the armature cuts the middle of the armature circuit straddling the double pole and doubles the terminal as a new open circuit.
  • the single pole armature pair is connected in parallel.
  • the electricity in the opposite phase from one end and the other end toward the inside of the coil is short-circuited to generate heat.
  • electricity is not short-circuited in the armature coil, so that there is an effect on heat loss that does not generate heat.
  • FIG. 1 is a circuit diagram including an element and a switch mechanism for creating a rotating magnetic field in a DC drive motor of a single magnetic armature pair. It is also possible to regenerate a part of the self-induced power generation by the parasitic diode. Thereby, a part of the short-circuit heat generated by the drive power in the drive motor and self-induced power generation is avoided.
  • FIG. 1 is a circuit diagram of a brushless motor of a pair of single-magnet coil armatures.
  • a capacitor is attached to one end and the other end of a driving armature coil to store and rotate electricity in the other direction of self-induction power generation against a rotating magnetic field.
  • It is a regenerative circuit provided with a mechanism that discharges when a directional current is applied. As a result, there is an effect of eliminating a part of the short-circuit heat generation between the self-induced power generation and the drive electricity.
  • FIG. 2 shows one of multistage motors.
  • the rotor of the monopole transformer motor is a permanent magnet.
  • a single magnetic armature pair and a power generation drive multi-stage motor armature are concentrically constructed with a monopole transformer motor armature.
  • the power generation electric circuit of the monopole transformer motor is connected to the first stage of the single-magnet-electron pair on the outer side of the rotor and the multi-stage power generation drive motor to construct a multi-stage motor.
  • FIG. 3 is a linearly developed circuit diagram of the multistage motor. Power generation and drive are connected by a parallel circuit.
  • FIG. 1 is a schematic cross-sectional view of a monopole transformer multistage motor composed of a rotor and a stator.
  • FIG. 2 is a cross-sectional view of a monopole transformer multistage motor with an armature added outside the outer periphery of the two-body motor.
  • 3 is a circuit diagram in which the two-body motor of the monopole transformer multistage motor is linearly opened.

Landscapes

  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Control Of Motors That Do Not Use Commutators (AREA)

Abstract

[Problem] The present invention addresses the problems of: providing a permanent motor; providing a practical machine that embodies the principle that "the spontaneous breaking of symmetry in the electromagnetic force does not conform to the law of conservation of energy" as put forth by Weinberg and Salam, who received the Nobel Prize in 1974; providing a device in which the symmetry between the positive electricity and the negative electricity in the electricity of the electromagnetic force is spontaneously broken; providing a device in which the symmetry of magnetism is spontaneously broken; and providing a device in which the symmetry between the directions of interest, that is, the directions of input and output, is spontaneously broken and force propagation and reaction are spontaneously broken. [Solution] In the present invention, a permanent motor is developed by deductive reasoning on the basis of the aforedescribed principle to provide a specific device. Specifically, what is developed is a permanent motor capable of producing energy that is comparable to nuclear energy from the energy of the gravitational force and that goes beyond a narrow interpretation of the law of conservation of energy and follows a wider interpretation of the law of conservation of energy made possible by a solution to three impossible problems that had been deemed unsolvable but had been solved using a compass and a ruler. Posited during the classical Greek period, these problems deal with the geometry of the unity of curvature and a straight line that proves the "principle of explosions and chance encounters" in the universe according to the number theory, and include trisecting the angle, squaring the circle, and halving the volume. The present invention relates to a device in which an N-multiple of force is obtained by dividing a magnetic force by a factor of N.

Description

モノポール多段トランスモータMonopole multi-stage transformer motor 発明の詳細な説明Detailed Description of the Invention
[発明の属する技術分野]永久電動機 [Technical field to which the invention pertains] Permanent motors
従来の技術Conventional technology
第一段階において、従来からの電動モータは、一体を絶縁皮膜された励磁用鉄板の合板の柱に絶縁皮膜された良電導体線を巻きつけ電機子とし、電機子の一端と他端に隙間を隔てて他体の磁石N・S双磁極を相対移動させ、電磁気力相互作用をさせる、固定子と回転子の二体構造である。電動モータは駆動電源を入力し駆動回転をすると、発電機として一体と他体が相対移動し内部で自己誘導起電がおき発電をする。発電電磁気力と駆動電磁気力は背中合わせの対称性の閉じた関係にある、電磁気力である±電力:N・S磁力:±引力:反力の重力:入力・出力の四つの対称性があり、互いに相殺しエネルギー保存の関係にある。 In the first stage, a conventional electric motor is an armature in which a good conductor wire wound around a plywood pillar of an exciting iron plate that is integrally insulated is wound around an armature, and a gap is formed between one end and the other end of the armature. This is a two-body structure of a stator and a rotor in which the magnet N / S double magnetic poles of another body are moved relative to each other and electromagnetic force interaction is caused therebetween. When the electric motor receives drive power and rotates, the electric motor and the other body move relative to each other, and a self-induced electromotive force is generated inside to generate power. The generated electromagnetic force and the driving electromagnetic force are in a closed relationship of back-to-back symmetry, which is the electromagnetic force ± power: NS magnetic force: ± attractive force: reaction gravity: there are four symmetry of input and output, They cancel each other out and have energy conservation.
このために狭義のエネルギー保存則を超えない。またこれらの力=重力・弱い力・電力・核力は互いに相互作用して重力場を超えることはしない。これら四つの力の場においては、エネルギーは熱量⇔質量×速度×速度の四次関数として繰り込み可能で、且つ相互作用はしない閉じた場であるゲージ理論に支配されている。 For this reason, the energy conservation law in a narrow sense is not exceeded. These forces = gravity, weak force, power, and nuclear force do not interact with each other and exceed the gravitational field. In these four force fields, energy is governed by gauge theory, which is a closed field that can be renormalized as a quartic function of calorie mass × velocity × velocity and does not interact.
これに対し、ノーベル賞受賞物理学者S・WeinbergとA・Salamは電磁気力相互作用において、対称性の自発的破れにより、保存則が崩れることを統一理論として提唱し・実験証明した。世界の物理学者が追試し認められた。
陽電子の加速器による光速度近くに加速された衝突は、核融合を起こすことなく、入力された、核力に近いエネルギーは自発的対称性の敗れにより、消滅し、狭義のエネルギー保存則は破れた。この法則をプラス方向に具現する実用機はいまだ無い。本発明は、この狭義のエネルギー保存則を超える、対称性の自発的な破れによる法則のプラス方向の重力の入力に対し、核力に至るエネルギーを得る実用機を電動モータで具現するものである。
On the other hand, Nobel Prize-winning physicists S. Weinberg and A. Salam proposed and proved as a unified theory that the conservation law collapses due to spontaneous symmetry breaking in electromagnetic force interactions. World physicists have been granted additional trials.
Collisions accelerated near the speed of light by a positron accelerator do not cause nuclear fusion, and the input energy close to nuclear force disappears due to the loss of spontaneous symmetry, and the narrowly-defined energy conservation law is broken. . There is still no practical machine that implements this law in the positive direction. The present invention embodies a practical machine that obtains energy reaching nuclear power with an electric motor in response to gravity input in the positive direction of the law due to spontaneous breaking of symmetry, which exceeds this narrow energy conservation law. .
対称性は、ソレノイドコイル内で発電電流と駆動電流と、磁束の流れによる磁極N・Sと、力の引力と訴力と、電力の方向が行く方向のプラスと来る方向のマイナスの対称性であり、互いに相殺し合う、閉じた関係にある。 Symmetry is generated in the solenoid coil, the drive current, the magnetic pole NS due to the flow of magnetic flux, the attractive force and the attractive force, and the negative symmetry of the direction in which the direction of the power goes and the negative direction. There is a closed relationship that cancels each other out.
これら四つの場の関係は、±XYZ,プラス・マイナス三次元の八立方象限の次元の出発点である0点、極において一体となっている。 The relationship between these four fields is united at 0 and the pole, which are the starting points of the dimensions of the eight-cubic quadrant of ± XYZ, plus and minus three dimensions.
四つの場を表す素粒子との力の関係は、重力場=中性子=引力⇔訴力。弱い力の場=陽電子=N磁極⇔S磁極。電磁気力=電子=プラス電極⇔マイナス電極。
核力=光子の進行方向=明⇔宇宙の爆発原点である暗に対応する。
The force relationship with the elementary particles representing the four fields is gravitational field = neutron = attractive appeal. Weak force field = Positron = N magnetic pole ⇔ S magnetic pole. Electromagnetic force = electron = positive electrode ⇔ negative electrode.
Nuclear power = Photon traveling direction = Corresponds to darkness, the origin of explosion in the lucid universe.
電磁気力の虚空に対し閉じた四つの力と場の間係。電力は電力場と呼ぶ。同じように重力は重力場と呼ぶ。弱い力は磁力場と呼ぶ。核力は原子力場と呼ぶ。 The relationship between four forces and the field closed against the void of electromagnetic force. Electric power is called a power field. Similarly, gravity is called a gravitational field. Weak force is called magnetic field. Nuclear power is called the nuclear field.
電磁気力はこれら四つの場が一体であることを示し、素粒子は分割不可能な四つの顔を持つ一個であることを示し、極を中心に、プラス・マイナス三次元のベクトルの中心である四つの回転軸を持ち、プラス・マイナスの軸方向を持ち、プラス・マイナス正・逆の回転方向を持ち、四つの力に比例した四つのプラス・マイナス回転数を持つことを現している。 The electromagnetic force indicates that these four fields are united, the elementary particle is one that has four faces that cannot be divided, and is the center of a plus-minus three-dimensional vector centered on the pole. It has four rotation axes, has plus / minus axial directions, has plus / minus forward / reverse rotation directions, and has four plus / minus rotation speeds proportional to the four forces.
それぞれのゲージ場内においてエネルギーが保存され、狭義のエネルギー保存則として閉じている。それぞれの場のエネルギーが、例えば核力が重力場内において熱量として繰り込みは可能であるように、四つの力は四つの場に繰り込み可能である。 Energy is conserved in each gauge field, which is closed as a narrow law of conservation of energy. The four forces can be transferred to four fields so that the energy of each field can be transferred as, for example, the amount of heat in the gravity field.
重力から核力にいたるエネルギーを統一して陳べる法則の提唱はある。しかし二次関数の相対論で述べるため成功しない。
宇宙の爆発と邂逅の法則は±四次関数である。
There is a proposal of a law that can unify and display energy from gravity to nuclear power. However, since it is described in the relativity of quadratic function, it is not successful.
The explosion of the universe and the law of eagle are ± quaternary functions.
電動モータの第一段階の電流において。駆動電源にプラス・マイナスの電流の入力により駆動すると、自己誘導発電のマイナス・プラスの発電電流により、モータ電機子の閉鎖回路内で短絡し、発電電流を消耗し、コイルがヒータとなり、発熱。銅損・熱損・力損が起こる。 In the first stage current of the electric motor. When driven by a plus / minus current input to the drive power supply, the self-inductive minus / plus generated current causes a short circuit in the motor armature's closed circuit, consumes the generated current, and the coil becomes a heater, generating heat. Copper loss, heat loss, and power loss occur.
第一段階の電動モータ電流において、駆動電力入力により回磁界が発生し、モータが駆動する。モータが90度位相のずれたところでは、自己誘導発電により、発電し、モータ内部で短絡ショートし発熱する。発電電力と駆動電力は、互いに打ち消しあう対称性の関係にある。 In the electric motor current in the first stage, a rotating magnetic field is generated by driving power input, and the motor is driven. When the motor is 90 degrees out of phase, power is generated by self-induction power generation and short-circuited within the motor to generate heat. The generated power and drive power are in a symmetrical relationship that cancel each other.
第二段階のコイル閉鎖回路内の電力において、閉鎖回路の両端子にプラス・マイナスの電流が流れる。従来ではコイル両端より、外側に流れた電流が仕事をする。同時に駆動位置に90度位相がずれた位置で自己誘導発電する。駆動励磁の回転方向力と発電励磁の抗力との関係は常に背中合わせであり互いに相殺する関係にある。電動モータ・ソレノイドコイル内で駆動磁束と発電磁束の流れはプラスとマイナスの対称性であり、相殺し合って、閉じている、 In the electric power in the coil closing circuit in the second stage, positive and negative currents flow through both terminals of the closing circuit. Conventionally, the current that flows outward from both ends of the coil works. At the same time, self-induced power generation is performed at a position 90 degrees out of phase with the drive position. The relationship between the rotational direction force of drive excitation and the drag force of power generation excitation is always back-to-back and cancels each other. In the electric motor / solenoid coil, the flow of the drive magnetic flux and the generated magnetic flux is positive and negative symmetrical, canceling each other and closed.
第三段階の従来の二体電動モータにおいて、二体電動モータの一体励磁用鉄内いでの発電磁束は他体の磁石を含む励磁用鉄内に交番磁束を流し、他体の駆動磁束との磁極がN・S相殺すると共に、閉鎖回路内で発生する渦電流が、短絡ショートし発熱する。
従来からの二体電動モータの電磁気力相互作用の方向である気は、駆動入力による電力と自己誘導発電により発生する電力とが常に背中合わせであり、互いに相殺する関係にある。
In the conventional two-body electric motor of the third stage, the generated magnetic flux in the integral excitation iron of the two-body electric motor causes an alternating magnetic flux to flow in the excitation iron including another magnet, While the magnetic poles cancel N · S, eddy currents generated in the closed circuit are short-circuited and generate heat.
As for the direction of electromagnetic force interaction of the conventional two-body electric motor, the electric power generated by the drive input and the electric power generated by the self-inductive power generation are always back-to-back and are in a relationship of canceling each other.
第四段階の発電駆動モータの従来に於いては、二体電動モータの駆動トルクと発電トルクは、二体間の励磁用鉄とコイルの四対間の関係で、互いにプラスとマイナスの対称性の関係にあり、プラス・マイナス:マイナス・プラスと四体間対称性であり、相殺しエネルギー保存則に従う。
電磁気力の対称性を自発的に破り、狭義のエネルギー保存則を超え、駆動・電磁気力の駆動力の出力と、駆動電力と同じエネルギーの発電・電磁気力の電力を同時に別々に取り出す、電磁気力の対称性を自発的に破る技術は本発明の出現までは無かった。
また、電磁気力の対称性を自発的に破り、トルクをN倍に増やす、技術もなかった。
In the conventional power generation drive motor of the fourth stage, the drive torque and power generation torque of the two-body electric motor are symmetrical with each other in the relationship between the four pairs of exciting iron and coil between the two bodies. And plus / minus: minus / plus and four-body symmetry, and offset and follow the law of conservation of energy.
The electromagnetic force that spontaneously breaks the symmetry of the electromagnetic force, exceeds the narrow law of conservation of energy, and extracts the power of the drive / electromagnetic force and the power of the same energy as the drive power separately. There has been no technique for spontaneously breaking the symmetry of the present invention until the advent of the present invention.
Also, there was no technology that spontaneously broke the symmetry of electromagnetic force and increased the torque N times.
DC/ACブラシレスインバータ電源より、磁石の位相の制御電流により、トランジェスターが作動し電動モータに界磁電流を流すブラシレスモータにおいて、寄生ダイオードにより自己誘導発電を整流し回生電気として流す方法があるが、対称性の相殺により、回転数が上がらないため入力電源に対し発生電気の電圧が低く、回生できず、また逆起電力により、閉鎖回路内で短絡ショート発熱する。自己誘導発電による力損の改善も望めない。 There is a method in which a DC / AC brushless inverter power supply rectifies self-induced power generation by a parasitic diode and flows it as regenerative electricity in a brushless motor in which a transient current is activated by a magnet phase control current and a field current is supplied to the electric motor. Due to symmetry cancellation, the number of rotations does not increase, so that the voltage of electricity generated with respect to the input power supply is low and cannot be regenerated, and back electromotive force causes short-circuit heat generation in the closed circuit. The improvement of power loss by self-induced power generation cannot be expected.
発電において、発電機内電機子コイル一端と多端の中間は直列結線であり、スター回路かデルター回路の閉鎖回路である。電磁気力の±対象性により熱損・力損が激しい。整流子により整流すると、閉鎖回路内電磁気力は、起電力と逆起電力である正孔の流れ、発電と同じふるまいをする、逆流電子の対称性の相殺により、エネルギーの半分以上が短絡ショートし、熱損・力損となる。 In power generation, the middle of one end and the other end of the armature coil in the generator is a series connection, which is a closed circuit of a star circuit or a delta circuit. The heat loss and power loss are severe due to the ± target of electromagnetic force. When rectified by a commutator, the electromagnetic force in the closed circuit is the same as that of the electromotive force and the back electromotive force, and the behavior of power generation. , Heat loss and power loss.
従来のオルタネーターなどの発電の発生する交流を直流に変換するコンバータに於いて、従来は全波整流としているが、逆起電力を含む±▲−+▼の全波整流はされていなく、概念も無い。このための熱損。力損は大きい。整流し中点でアースし、逆起電力を逃がす回路も、発熱は防げるが、逆起電力は有効利用できない。また誘導発電を駆動力に利用する誘導モータやデジタルモータがあるが、いずれも、逆起電力の利用はできず、逆起電力のすべてが熱損・力損となっている。 In a converter that converts alternating current generated by power generation such as a conventional alternator into direct current, full-wave rectification is conventionally performed. No. Heat loss for this. Power loss is great. A circuit that rectifies and grounds at the midpoint and releases the back electromotive force can prevent heat generation, but the back electromotive force cannot be used effectively. In addition, there are induction motors and digital motors that use induction power generation as driving force, but none of them can use back electromotive force, and all of the back electromotive force is heat loss / power loss.
従来のオルタネーター発電機に使用される、バッテリー過充電防止スイッチ機構のレギュレタに於いて、常時トランジェスターに発電電流が流れ、発熱熱損が大きい。
コイル直巻き発電機である、オルタネーターは閉鎖回路により、熱損、力損が発生するが、発生した電力をバッテリーに逐電する際に、過充電になると、励磁用コイルの電源を遮断し過充電を防止する機構になっている。この遮断用スイッチ回路にトランジェスターが多用され、熱損が発生している。
自発的対象性の敗れこれを用いる実用機がいまだない。
In the regulator of the battery overcharge prevention switch mechanism used in the conventional alternator generator, the generated current always flows through the transientr, and the heat loss due to heat generation is large.
The alternator, which is a direct-winding generator, causes heat loss and power loss due to the closed circuit. However, when the generated power is discharged to the battery, if it becomes overcharged, the excitation coil power supply is cut off and overcharged. It is a mechanism to prevent. Transformers are frequently used in this shut-off switch circuit, resulting in heat loss.
There is no practical machine that uses the loss of voluntary subjectivity.
従来の基本的電磁気力思想であるナツメ社発行の、図解始めて学ぶ、電気回路の79ページ相互インダクタンスに書かれている相互誘導起電力により磁束が消える、これは駆動電力と発電電力がコイル中間で磁束を打ち消しあう、自発的対象性の破れを示すものである。概念としてのモノポールは可能である。 Magnetic flux disappears due to the mutual induction electromotive force written on page 79 mutual inductance of the electric circuit, which is the first basic illustration, published by Natsume, which is the basic electromagnetic force concept in the past. It shows the volatility of voluntary object that cancels out magnetic flux. A monopole as a concept is possible.
請求項3の従来のインバータとコンバータに於いて、半波整流、全波整流と言う思想はあるが±全波と言う電流があると言う思想は無い。±全波周波数同調と言う思想も無い。このためほとんどの逆起電・電磁気力を短絡ショート発熱として逃がしている。 In the conventional inverter and converter of claim 3, there is an idea of half-wave rectification and full-wave rectification, but there is no idea that there is a current of ± full-wave. There is no idea of ± full-wave frequency tuning. For this reason, most of the back electromotive force / electromagnetic force is released as short-circuit heat generation.
従来の発電機は、始動回転時から、要求される電力及び、閉鎖回路による全トルク・最大トルクを要求される。これにより、ほとんどのエネルギーが熱損・力となっている。 The conventional generator is required to have the required electric power and the total torque and the maximum torque by the closed circuit from the start rotation. As a result, most of the energy is heat loss and power.
[発明が解決しょうとする課題] [Problems to be solved by the invention]
本発明が統一して解決しようとする統一課題は、狭い考えで電動モータが電磁気力の相互作用を利用しながら、狭義のエネルギー保存則である重力場内のエネルギー保存則に縛られ、閉じている。
他方ワインバーグ・サラムの法則、「電磁気力の対称性の自発的破れはエネルギー保存則を超える」この装置と方法を、演繹法で解決するのが統一した課題である。
The unification problem that the present invention unifies and solves is closed by being constrained by the energy conservation law in the gravitational field, which is an energy conservation law in a narrow sense, while the electric motor uses the interaction of electromagnetic force with a narrow idea. .
On the other hand, it is a unified issue to solve the device and method of Weinberg-Salam's law, “Spontaneous breaking of symmetry of electromagnetic force exceeds the law of conservation of energy” by deductive method.
本発明が解決しようとする電動モータの基本的な課題の第1は、電動モータを駆動させると、自己誘導発電し、同時に自己誘導磁束により抗力としての力損が発生する。これを無くすことを第1の課題としている。 The first basic problem of the electric motor to be solved by the present invention is that when the electric motor is driven, self-induced power generation occurs, and at the same time, a power loss as a drag is generated by the self-induced magnetic flux. The first problem is to eliminate this.
本発明が解決しようとする電動モータの基本的な課題の第2は、モータ内部で自己誘導発電した電力と、駆動電力が、短絡し発熱する。この熱損を無くすことを第2の課題としている。 The second basic problem of the electric motor to be solved by the present invention is that the electric power generated by self-induction in the motor and the driving power are short-circuited to generate heat. The second problem is to eliminate this heat loss.
本発明が解決しょうとする課題の第3は、駆動時に発生する発電を常時回生させることを課題としている。 A third problem to be solved by the present invention is to constantly regenerate power generation generated during driving.
本発明が解決しょうとする課題の第4は、常時回生発電電力を駆動電力として、供給する電気回路を課題としている。 A fourth problem to be solved by the present invention is an electric circuit that supplies regeneratively generated power as drive power at all times.
本発明が解決しようとする課題の第5は磁束をN倍化し、トルクをN倍化することを課題としている The fifth problem to be solved by the present invention is to multiply the magnetic flux N times and to increase the torque N times.
本発明が解決しようとする課題の第6は全回生電力を、制御回路を使わずに、駆動電力に変換することを課題としている。 A sixth problem to be solved by the present invention is to convert all regenerative power into drive power without using a control circuit.
本発明が解決しようとする課題の第7は起電力、逆起電力双方の回生電力の全電力を常時バッテリーに回帰させる方法を課題としている。 The seventh problem to be solved by the present invention is a method of constantly returning the total power of the regenerative power of both the electromotive force and the counter electromotive force to the battery.
課題を解決する為の手段Means to solve the problem
本発明の第1の課題である自己誘導発電の抗力による力損を解決するための手段は、一体が自己誘導発電により、電機子励磁用鉄に発生する磁束に拠る磁極と、他体の磁石との間による発生する吸引、反発の抗力をなくすための手段として、電機子の磁束の流れを切断し、磁束を流れなくすることを手段としている。このための具体的な手段は、駆動モータのコイルと自己誘導発電のコイルと別々にする二重コイルとすることを解決手段としている。 Means for solving the power loss due to the drag of the self-induction power generation, which is the first problem of the present invention, includes a magnetic pole based on the magnetic flux generated in the armature exciting iron by the self-induction power generation, and another magnet As a means for eliminating the drag and repulsion force generated between the two armatures, the flow of the magnetic flux of the armature is cut to prevent the magnetic flux from flowing. The specific means for this purpose is to use a double coil that separates the drive motor coil and the self-induction power generation coil.
本発明の第2の課題電動モータ内部での銅損・熱損を解決するための手段は、N・S双磁極励磁用鉄に巻かれたソレノイドコイルの中間を切断し、端子を二倍に増し単磁極電機子対とすることを手段とする。これによるN・S両極に同時に起電する二つの磁極の電機の進行方向が違う電流、この電流が同じ磁極に向かうとき回転方向が違う正逆起電力による±電気を、コイル中間で短絡ショートするのを防ぎ、熱損を無くし、電流の対称性の自発的破れを具現する単磁電機子対とすることを第2の解決手段としている。 The second object of the present invention is to cut the middle of the solenoid coil wound around the NS magnetic double pole excitation iron to double the terminal. Means are to provide an additional single-pole armature pair. Due to this, the electric currents of the two magnetic poles that simultaneously generate electricity in both the N and S poles are different in the traveling direction of the electric machine, and ± electricity due to forward and reverse electromotive forces with different rotation directions when this current goes to the same magnetic pole, short-circuits in the middle of the coil. The second solution is to provide a single-armature armature pair that prevents the heat loss, eliminates the heat loss, and realizes the spontaneous breaking of the current symmetry.
本発明の第3の課題、駆動時に発生する電流の回転方向が逆回転するする発電電力を短絡ショートさせずに解決する、また全発電電流を有効利用するための手段は、駆動時に発生する自己誘導発電を駆動電流コイルに重ねて発電電流を二重に巻き、駆動電力により同時に発電する自己誘導発電を回収するトランスモータとすることを第3の課題の解決手段とする A third object of the present invention, a means for solving the generated power in which the rotation direction of the current generated at the time of driving reversely rotates without short-circuiting, and for effectively using all the generated current is the self generated at the time of driving. A third means for solving the above problem is to form a transformer motor that collects self-induced power generation in which induction power generation is overlapped with a drive current coil and the generated current is wound twice to generate power simultaneously with drive power.
本発明の第4の課題である常時回生発電する電力を駆動電力として供給する電気回路の課題を解決する手段は、入力駆動電力により二重コイル内に起電する発電電気を次の同相の電機子柱の駆動コイルに供給する回路は、双磁極電機子の閉鎖回路で逆起電力短絡ショートさせる回路では、コンデンサーで閉鎖回路を構築し、一時電気をため、さらにトランスで昇圧し同時に整流し、バッテリーに並列結線で入力することができる。電磁気力対称性を自発的に破る、逆起電力もバッテリーに供給するには、直列に結線したバッテリーの±の端子の中間の結線に、上記コンデンサーとトランスを具備した逆起電力回路を、直列結線したバッテリー中間に割り込み直列結線で繋ぐことを第四の課題を解決する手段とする。 The means for solving the problem of the electric circuit for supplying the electric power that is always regeneratively generated as the driving power, which is the fourth problem of the present invention, is to generate the electric power generated in the double coil by the input driving power as the next in-phase electric The circuit to be supplied to the drive coil of the child pole is a circuit in which the back electromotive force is short-circuited by the closed circuit of the double-pole armature, and the closed circuit is constructed with a capacitor. You can input to the battery in parallel connection. To supply the back electromotive force to the battery, which spontaneously breaks the electromagnetic force symmetry, a back electromotive force circuit having the above capacitor and transformer is connected in series to the middle connection of the ± terminals of the battery connected in series. Connecting to the middle of the connected battery with an interrupt serial connection is a means for solving the fourth problem.
本発明の第5の課題の電磁気力対称性の磁力を自発的に破り、磁束をN倍化とし、トルクをN倍化することを解決する手段は、電機子に駆動入力した電気により、発電する発電コイルが、同相の少なくとも一つの電機子の駆動電力コイルに入力し、さらに同じ電機子柱の二重コイルで発電した電気をさらにN段目電機子柱の駆動コイルに回生入力する同相多段トランスモータ回路を解決手段とする。 The means for spontaneously breaking the electromagnetic force symmetry magnetic force of the fifth problem of the present invention, increasing the magnetic flux by N and increasing the torque by N, generates power by means of electricity input to the armature. A power generation coil that inputs to the drive power coil of at least one armature in the same phase, and further regenerates and inputs the power generated by the double coil of the same armature column to the drive coil of the Nth armature column A transformer motor circuit is used as a solution.
本発明の第6の課題を解決する手段は上記第5の課題解決をする方法回路により制御回路を経ず、直接同軸同回転多段モータに供給することにより解決手段とする。 Means for solving the sixth problem of the present invention is a solution means by directly supplying the same co-rotating multistage motor without passing through the control circuit by the method circuit for solving the fifth problem.
本発明の第7の課題を解決する手段は、多段モータ最後の段の発電電力を、制御回路でバッテリーに供給そることを手段とする。 Means for solving the seventh problem of the present invention is that the power generated in the last stage of the multistage motor is supplied to the battery by the control circuit.
本発明の開示である発明の第一の熱損を無くす実施の形態は、第一に、電動モータの駆動電力入力回路と、自己誘導発電する電気回路が同じであり、この電気回路内部で短絡発熱するのを無くすため、励磁用鉄柱にコイルを巻いた駆動電源回路と、同じ励磁用鉄柱に重ねてコイルを巻いた発電回路の電機子を具備する発電・駆動回路電動モータを第一の実施の形態とする。 In the first embodiment of the present invention which eliminates the heat loss, the drive power input circuit of the electric motor and the electric circuit for self-induction power generation are the same, and a short circuit occurs inside the electric circuit. In order to eliminate the generation of heat, the first implementation of a drive power supply circuit in which a coil is wound around an excitation iron pole and a power generation / drive circuit electric motor comprising an armature of a power generation circuit in which a coil is wound around the same excitation iron pole The form is as follows.
本発明の開示である発明の第二の力損をなくす実施の形態は、力損が発電機も駆動モータもNS双磁極にまたがるコイル内に発生する電流により、同時に励磁磁鉄に自己誘導発生する磁束の流れと、磁束の流れによる磁極の発生と、この励磁用鉄磁極に相互作用する他体の磁石に拠る、吸引力による。この磁束の流れの元を断つことを第二の実施の形態とする。 In the second embodiment of the present invention that eliminates the power loss of the present invention, the power loss is caused by self-induction in the magnetized iron at the same time due to the current generated in the coil that spans NS bipolar poles in both the generator and the drive motor. Magnetic flux generated, magnetic poles generated by the flow of magnetic flux, and attraction force due to another magnet interacting with the exciting iron magnetic pole. Cutting off the source of this magnetic flux flow is the second embodiment.
本発明の開示である発明の第三は、駆動単磁電機子回路両端に入出力のトランジェスタースイッチ機構を取り付け、ブラシレスモータとすると友に、全波整流子を取り付けることにより、自己誘導発電の一方向一部を回生する。
駆動単磁電機子回路両端にコンデンサーを取り付け、自己誘導発電の他方向である逆誘導起電力によるショートを閉鎖回路とし、別にしコンデンサーに一時避難させ、短絡ショートを防ぎトランスによるバッテリー閉鎖回路により全発電電気量を回生蓄電する。
The third aspect of the present invention, which is the disclosure of the present invention, is that self-induction power generation is achieved by attaching a full-wave commutator to a friend when an input / output transistor switch mechanism is attached to both ends of a driving single-magnetic armature circuit and a brushless motor is used. Regenerate part of one direction.
Capacitors are attached to both ends of the driving single-armature armature circuit, and a short circuit due to the reverse induced electromotive force, which is the other direction of self-inductive power generation, is used as a closed circuit. Regeneratively store the amount of electricity generated.
発明の第一の実施例は図15に於いて説明する。本発明の熱損を防ぐ、第一の実施例は、一体を、縁皮膜された励磁磁鉄板を合板にした柱に、第一の絶縁皮膜された良電導体線をコイルとして巻きつけ、その上に第二の絶縁皮膜された良電導体線をコイルとして巻きつけ、二重コイル電機子を形成する。励磁磁鉄両端に磁石を他体とし電動モータを形成する。一方のコイルを駆動電源回路とし、他方のコイルを発電電気回路とする。本発明の第一の実施例により、磁気回路を共有する発電と駆動の別電気回路を構築する。これにより発電・駆動モータが形成される。 A first embodiment of the invention will be described with reference to FIG. The first embodiment for preventing heat loss of the present invention is to wrap a good electrical conductor wire coated with a first insulating film as a coil around a pillar made of a magnetized iron plate with an edge coating as a plywood, A good electric conductor wire with a second insulation film is wound as a coil on the top to form a double coil armature. An electric motor is formed by using magnets as separate bodies at both ends of the magnetizing iron. One coil is a drive power supply circuit, and the other coil is a generator electric circuit. According to the first embodiment of the present invention, a separate electric circuit for power generation and driving that shares a magnetic circuit is constructed. As a result, a power generation / drive motor is formed.
本発明の力損を防ぐ第二の実施例は、上記電機子コイルをコイル一端と他端の中間を切断し、端子を倍化する。これにより、単磁電機子対のコイルを内装した、発電・駆動モータが形成される。 In a second embodiment of the present invention for preventing power loss, the armature coil is cut between the one end and the other end of the coil to double the terminal. As a result, a power generation / drive motor having a single magnetic armature pair coil is formed.
本発明の第三の実施例は、単磁電機子対モータをブラシレス直流駆動二体モータとする。モータの一体である単磁電機子対のコイル一端と他端に、他体の磁極の相対位置を知らせる素子によりスイッチする機構とするトランジェスタ−を取り付ける。これにより所望の駆動電気を入力し駆動する、ブラシレスモータを構築する。また、このススイッチ機構を跨ぐ寄生トランジェスターを装着し、自己誘導発電の一方向の一部を回生する機構を構築する。 In the third embodiment of the present invention, the single-armature armature pair motor is a brushless DC drive two-body motor. At the one end and the other end of a single-armature armature pair that is an integral part of the motor, a transistor that is switched by an element that informs the relative position of the magnetic poles of another body is attached. Thus, a brushless motor that inputs and drives desired drive electricity is constructed. In addition, a parasitic transester that straddles this sswitch mechanism is mounted, and a mechanism for regenerating part of one direction of self-induced power generation is constructed.
本発明の第四の実施例は、モータの電機子の駆動回路のコイル一端と他端にコンデンサーを装着し自己誘導発電の他方向の一部をコンデンサーに蓄え、駆動時に駆動用として放出する回生回路を構築する。
[発明の効果]
The fourth embodiment of the present invention is a regenerative system in which a capacitor is attached to one end and the other end of a drive circuit of a motor armature drive circuit, a part of the other direction of self-induced power generation is stored in the capacitor, and is discharged for driving during driving. Build a circuit.
[The invention's effect]
本発明の熱損を無くす上記二重コイルによる第一の効果は図1で説明するする。図は固定子と回転子からなる二体電動モータである。電気回路は単相1柱の同相並列回路である。励磁磁鉄に巻かれたコイルは駆動電気回路と発電電気回路と別回路が同じ励磁磁鉄にそれぞれ巻きつけてある、励磁磁鉄共有・発電・駆動電機子・内装電動モータである。この効果は、駆動モータが電気を入力すると、
                             4/5ページ
自己誘導発電が発生するが、発生した電気は駆動電気回路とは別の発電用電気回路から出力し消化する。これにより、従来の駆動電気と自己誘導発電電気が短絡し発熱する、熱損が、本発明では別発電回路で発電有効消化することにより、電気の短絡がなくなり、発熱しない効果が在る。のみならず、100%の発電電力も得られる。
The first effect of the double coil that eliminates the heat loss of the present invention will be described with reference to FIG. The figure shows a two-body electric motor comprising a stator and a rotor. The electric circuit is a single-phase single-column in-phase parallel circuit. The coil wound around the exciting magnetic iron is an exciting magnetic iron sharing / power generation / driving armature / internal electric motor in which a driving electric circuit, a generating electric circuit and a separate circuit are respectively wound around the same exciting magnetic iron. The effect is that when the drive motor inputs electricity,
4/5 page self-induced power generation occurs, but the generated electricity is output from a power generation electric circuit different from the drive electric circuit and digested. As a result, the conventional driving electricity and the self-induced power generation electricity are short-circuited and generate heat, and in the present invention, the power generation is effectively digested by another power generation circuit, so that there is no short circuit of electricity and no heat is generated. In addition, 100% of the generated power can be obtained.
本発明の力損をなくす第二の効果は、電機子は双磁極に跨る電機子回路の中間を切断し新たな開放回路としての端子を倍加する。この単磁極電機子対の結線は並列とする。電機子コイルが直列につながれていると一端と他端からコイル内側に向かう±逆相の電気が短絡し発熱する。これを直列回路から開放する単磁電機子対並列回路では、電気が電機子コイル内で短絡しないから、発熱しない熱損に対する効果が在る。その上で自己誘導発電した発電を、出力として、消化すると、双磁極電機子の励磁磁鉄内に、単磁極電機子対では、電流が消化され磁束が発生しない。磁束が流れないために、発電抗力が発生し無い、力損が無い効果が在る。及単磁極電機子の結線が並列であるため、逆相の電線内の短絡がなく、短絡による発熱も無い効果が在る。及び従来では駆動モータの回転が上がると、自己誘導発電の発電抗力も上がりトルクが無くなるが、本発明では駆動モータの回転が上っても最大トルクは維持できる効果が在る。 The second effect of eliminating the power loss of the present invention is that the armature cuts the middle of the armature circuit straddling the double pole and doubles the terminal as a new open circuit. The single pole armature pair is connected in parallel. When the armature coils are connected in series, the electricity in the opposite phase from one end and the other end toward the inside of the coil is short-circuited to generate heat. In a single magnetic armature pair parallel circuit in which this is released from the series circuit, electricity is not short-circuited in the armature coil, so that there is an effect on heat loss that does not generate heat. When the power generated by self-induction power generation is digested as an output, current is digested and magnetic flux is not generated in the single-pole armature pair in the magnetized iron of the double-pole armature. Since magnetic flux does not flow, there is an effect that no power generation drag is generated and there is no power loss. In addition, since the connection of the single magnetic pole armature is parallel, there is no short circuit in the reverse-phase electric wire, and there is no effect of heat generation due to the short circuit. And conventionally, when the rotation of the drive motor is increased, the power generation drag of self-induction power generation is also increased and the torque is eliminated. However, the present invention has an effect that the maximum torque can be maintained even if the rotation of the drive motor is increased.
[規則91に基づく訂正 08.06.2016] 
本発明の単磁電機子対で構成される駆動モータをブラシレスモータとする実施例は図1、で説明する。図は単磁電機子対の直流駆動モータに回転磁界を作る、素子、スイッチ機構 含む回路図である。また寄生ダイオードにより、自己誘導発電した電気の一部を回生させることも可能で在る。これにより、駆動モータ内の駆動電力と自己誘導発電による短絡発熱は、一部回避される。
[Correction 08.06.2016 based on Rule 91]
An embodiment in which the drive motor constituted by the single-armature armature pair of the present invention is a brushless motor will be described with reference to FIG. The figure is a circuit diagram including an element and a switch mechanism for creating a rotating magnetic field in a DC drive motor of a single magnetic armature pair. It is also possible to regenerate a part of the self-induced power generation by the parasitic diode. Thereby, a part of the short-circuit heat generated by the drive power in the drive motor and self-induced power generation is avoided.
[規則91に基づく訂正 08.06.2016] 
図1は二重単磁コイル電機子対のブラシレスモータの回路図に駆動電機子コイル一端と他端にコンデンサーを装着し、回磁界に抗する自己誘導発電の他方向の電気を貯め、回転する方向の電流のとき放出する機構を具備する、回生回路である。これにより、自己誘導発電する電気と駆動電気と短絡発熱することを一部無くす効果が在る。
[Correction 08.06.2016 based on Rule 91]
FIG. 1 is a circuit diagram of a brushless motor of a pair of single-magnet coil armatures. A capacitor is attached to one end and the other end of a driving armature coil to store and rotate electricity in the other direction of self-induction power generation against a rotating magnetic field. It is a regenerative circuit provided with a mechanism that discharges when a directional current is applied. As a result, there is an effect of eliminating a part of the short-circuit heat generation between the self-induced power generation and the drive electricity.
総体では同一励磁磁鉄に、駆動用と発電用の別回路のコイルが巻かれているため、自己誘導発電の殆んどは発電として有効利用することが出来る。また短絡ショートが無いため、発熱損が起こらない。 As a whole, since coils of separate circuits for driving and power generation are wound around the same magnetized magnetic iron, most of self-induction power generation can be effectively used as power generation. In addition, there is no short circuit and no heat loss occurs.
[規則91に基づく訂正 08.06.2016] 
図2は多段モータの一つである。モノポールトランスモータのロータが永久磁石である。その外側に単磁電機子対発電駆動多段モータ電機子が同心でモノポールトランスモータ電機子一体で構築されている。モノポールトランスモータの発電電気回路がロータ外側の単磁電気子対多段発電駆動モータの一段目に結線され多段モータが構築されている。
[Correction 08.06.2016 based on Rule 91]
FIG. 2 shows one of multistage motors. The rotor of the monopole transformer motor is a permanent magnet. On the outside, a single magnetic armature pair and a power generation drive multi-stage motor armature are concentrically constructed with a monopole transformer motor armature. The power generation electric circuit of the monopole transformer motor is connected to the first stage of the single-magnet-electron pair on the outer side of the rotor and the multi-stage power generation drive motor to construct a multi-stage motor.
[規則91に基づく訂正 08.06.2016] 
図3は多段モータのリニアに展開された回路図である。
発電と駆動は並列回路で結線されている。
[Correction 08.06.2016 based on Rule 91]
FIG. 3 is a linearly developed circuit diagram of the multistage motor.
Power generation and drive are connected by a parallel circuit.
[規則91に基づく訂正 08.06.2016] 
1)        励磁用鉄
2)        駆動コイル
3)        寄生ダイオード・整流子
4)
5)
6)        FET・トランジェスター
7)        ホール素子・信号入力線
8)        発電コイル
9)        回生発電回路
10)       駆動電流回路
11)       回生コンデンサー
N           磁極
S           磁極
A、B、C、D     電機子各端子
±U、±V、±W    交流電気各相
図1は回転子と固定子の二体からなるモノポールトランス多段モータの断面模式図。
図2は二体モータ外周部外側に、電機子を増設したモノポールトランス多段モータの断面図。
図3モノポールトランス多段モータの二体モータをリニアに開いた回路図。
[Correction 08.06.2016 based on Rule 91]
1) Excitation iron 2) Drive coil 3) Parasitic diode / commutator 4)
5)
6) FET / transistor 7) Hall element / signal input line 8) Generator coil 9) Regenerative generator circuit 10) Drive current circuit 11) Regenerative capacitor N Magnetic pole S Magnetic pole A, B, C, D Armature terminals ± U, ± V, ± W AC electrical phase diagram 1 is a schematic cross-sectional view of a monopole transformer multistage motor composed of a rotor and a stator.
FIG. 2 is a cross-sectional view of a monopole transformer multistage motor with an armature added outside the outer periphery of the two-body motor.
3 is a circuit diagram in which the two-body motor of the monopole transformer multistage motor is linearly opened.

Claims (2)

  1. 第一段階。
    一体が、絶縁皮膜された励磁磁鉄板の合板に良伝導体コイルが巻かれ、絶縁皮膜された良電導体コイルの双磁極電機子と、他体が、励磁用鉄の一端と他端に隙間を隔ててN・S双磁極が相対移動する双磁極電機子で構成される二体電動モータに於いて、駆動モータ界磁電機子に入力する上記コイルに重ねて、自己誘導動発電し常時回生する回帰発電用コイルが二重に巻かれ回磁界・回生両電機子を構成する、常時同時駆動発電する電動モータ。電磁気力対象性の方向である[気]の入力と出力の方向を自発的に破る、狭義のエネルギー保存則を超える自己誘導発電の電気エネルギーを、駆動モータに回帰させる方法である駆動発電電気回路。駆動発電電力に対して、逆流する、自己誘導発電電流を短絡ショートさせないで駆動電力に印可させる装置である励磁用鉄共用駆動発電二重コイル・トランスモータ。
    第二段階。
    請求項2のモータの双磁極電機子のコイルを、コイル中間を切断し新たな入出力端子を増設具備する、単磁極電機子対に於いて、電磁気力対称性の[電]のプラスとマイナスの対称性の自発的破れにおいて、電子のプラスとマイナスの、電流と正孔の流れ、同じ流れの逆起電力である発電電力の流れにより狭義のエネルギー保存則の対称性を破り超える広義のエネルギー保存則を得る方法である単磁極電機子対駆動発電電気回路。
    単磁極電機子対で構成する単磁電機子対駆動発電電動モータに於いて電磁気力対称性の[電]を自発的に破る、駆動電流のプラスとマイナスと正孔の流れ、電子の流れに対する逆流である、発電と同じ流れを短絡ショートさせない、広義のエネルギー保存則に従う、単磁電機子対駆動発電電動モータの装置である、
    モノポールトランスモータ。
     第三段階。
    単磁電機子対駆動発電電動モータに於いて、
    同相電機子の少なくとも一つの電機子柱の駆動コイル入力電流により、発電コイルに、誘導発電された電気を他の同相電機子柱に、駆動用電気として出力する、電磁気力対称性の[磁]の対称性を破り、狭義のエネルギー保存則を超え、広義のエネルギー保存則に従う、単磁電機子対多段駆動発電電動機の方法である多段駆動発電回路
    the first stage.
    A good conductor coil is wound around a plywood of an exciting magnetic iron plate with an insulating coating, and the two-pole armature of a good conductive coil with an insulating coating and the other body have a gap between one end and the other end of the exciting iron In a two-body electric motor composed of a double-pole armature in which the N / S double-poles move relative to each other, the self-induction kinetic power generation is superimposed on the coil that is input to the drive motor field armature and is constantly regenerated. An electric motor that constantly generates power at the same time, in which a coil for recurring power generation is wound twice to form a revolving magnetic field / regenerative armature. Driving power generation electric circuit, which is a method of returning to the driving motor the electric energy of self-induced power generation that exceeds the narrow energy conservation law, spontaneously breaking the input and output directions of [Qi], which is the direction of electromagnetic force objectivity . Exciting iron shared drive power generation double coil transformer motor, which is a device that applies reverse drive current to self-induced power generation current without applying short circuit to drive power.
    Second stage.
    In the single-pole armature pair, wherein the coil of the double-pole armature of the motor of claim 2 is provided with a new input / output terminal by cutting the middle of the coil, plus and minus of electromagnetic force symmetry [electricity] In the spontaneous breaking of symmetry, the energy in a broad sense exceeds the symmetry of the energy conservation law in the narrow sense by the flow of positive and negative electrons, the flow of current and holes, and the flow of generated power that is the back electromotive force of the same flow. A single-pole armature pair drive generator circuit that is a method of obtaining a conservation law.
    In a single-magnetic armature pair-driven generator motor composed of a single-pole armature pair, the electromagnetic force symmetry [electricity] is spontaneously broken, with respect to the drive current plus, minus, hole flow, and electron flow It is a device of a single-armature armature pair drive generator motor that does not short-circuit the same flow as power generation, which is a reverse flow, and follows the law of conservation of energy in a broad sense.
    Monopole transformer motor.
    Third stage.
    In single magnetic armature pair drive generator motor,
    Electromagnetic force-symmetric [magnetism] that outputs induction-generated electricity to other in-phase armature columns as drive electricity by the drive coil input current of at least one armature column of the in-phase armature Multi-stage drive generator circuit, which is a method of a single-magnetic armature vs. multi-stage drive generator-motor that breaks the symmetry of, exceeds the narrow energy conservation law, and follows the broad energy conservation law
  2. 請求項1の単磁電機子対駆動発電電動モータが同相に於いて入力駆動電流コイルにより誘導発電した電気が同相他柱の駆動電流コイルに入力する多段である。単磁電機子対多段駆動発電電動機である、モノポール多段トランスモータ。 The single-magnetic armature pair drive generator motor of claim 1 has multiple stages in which the electricity generated by the induction drive current coil in the same phase is input to the drive current coil of the other in-phase column. A monopole multi-stage transformer motor that is a single-magnetic armature versus a multi-stage drive generator motor.
PCT/JP2016/065370 2016-05-17 2016-05-17 Monopole multistage transformer motor WO2017199450A1 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
PCT/JP2016/065370 WO2017199450A1 (en) 2016-05-17 2016-05-17 Monopole multistage transformer motor

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
PCT/JP2016/065370 WO2017199450A1 (en) 2016-05-17 2016-05-17 Monopole multistage transformer motor

Publications (1)

Publication Number Publication Date
WO2017199450A1 true WO2017199450A1 (en) 2017-11-23

Family

ID=60325581

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/JP2016/065370 WO2017199450A1 (en) 2016-05-17 2016-05-17 Monopole multistage transformer motor

Country Status (1)

Country Link
WO (1) WO2017199450A1 (en)

Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH05316769A (en) * 1992-05-11 1993-11-26 Yoshiji Kondo Multi-stage energy generating system
JP2014030293A (en) * 2012-07-31 2014-02-13 Toyota Motor Corp Rotor of rotary electric machine
WO2015173969A1 (en) * 2014-05-15 2015-11-19 由次 近藤 Driving/power-generation motor
JP2016039768A (en) * 2014-08-11 2016-03-22 由次 近藤 Driving/power-generation motor

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH05316769A (en) * 1992-05-11 1993-11-26 Yoshiji Kondo Multi-stage energy generating system
JP2014030293A (en) * 2012-07-31 2014-02-13 Toyota Motor Corp Rotor of rotary electric machine
WO2015173969A1 (en) * 2014-05-15 2015-11-19 由次 近藤 Driving/power-generation motor
JP2016039768A (en) * 2014-08-11 2016-03-22 由次 近藤 Driving/power-generation motor

Similar Documents

Publication Publication Date Title
US7109671B2 (en) Device and method of a back EMF permanent electromagnetic motor generator
WO2020191815A1 (en) Series magnetic circuit-type double-layer hybrid permanent magnet memory motor
US11196331B2 (en) Compact high-efficiency, low-reverse torque electric power generator driven by a high efficiency electric drive motor
CN103887908B (en) A kind of brushless harmonic exitation synchronous motor
CN106685165B (en) A kind of outer rotor switched flux electric machine of rotor mistake pole modularization
WO2007105319A1 (en) Electric power generator, method for generating electric power, and motor
CN106487178B (en) A kind of disc type bimorph transducer composite excitation motor
US9780608B2 (en) High efficiency permanent magnet machine
RU2541513C2 (en) Synchronous machine with anisotropic magnetic conductivity of rotor
CN101345453A (en) Mixed field excitation brushless synchronous motor with coordination structure
JP2021145544A (en) Pairs of complementary unidirectionally magnetic rotor/stator assemblies
RU2533886C1 (en) Brushless direct current motor
Tong et al. Analysis and design of a fault-tolerant six-phase permanent-magnet synchronous machine for electric vehicles
RU2437202C1 (en) Non-contact magnetoelectric machine with axial excitation
JP2017208994A (en) Mono pole multistage transformer motor
CN103904855A (en) Brushless harmonic excitation motor with initial self-starting capacity
WO2017199450A1 (en) Monopole multistage transformer motor
WO2015173969A1 (en) Driving/power-generation motor
US9099912B2 (en) Electromagnetic coupling
JP2017093293A (en) Simultaneous drive power generation motor
Chen et al. Electromagnetic performance analysis and fault-tolerant control of new doubly salient flux memory motor drive
KR101772271B1 (en) Generator for decreasing counter electromotive
WO2019023208A1 (en) Generators having rotors that provide alternate magnetic circuits
JP2016039768A (en) Driving/power-generation motor
Amin et al. Operation, Construction, and Functionality of Direct Current Machines

Legal Events

Date Code Title Description
NENP Non-entry into the national phase

Ref country code: DE

121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 16902469

Country of ref document: EP

Kind code of ref document: A1

122 Ep: pct application non-entry in european phase

Ref document number: 16902469

Country of ref document: EP

Kind code of ref document: A1

NENP Non-entry into the national phase

Ref country code: JP