JP2005033974A - Low consumption energy/high output generator using ring type core and coil - Google Patents
Low consumption energy/high output generator using ring type core and coil Download PDFInfo
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Abstract
Description
本発明は発電機に関する分野であり、詳しくは誘導起電流が流れる際、回転子に電磁力として作用していた起磁力を口型積層鉄芯内に閉磁路にして閉じ込めることで、これまで回転子に作用する電磁力を押し切るために消費してきた多くの力学的エネルギーを節約し、低消費エネルギーでの発電を可能とした発電機に関するものである。The present invention relates to the field of generators. Specifically, when an induced electromotive force flows, the magnetomotive force that has acted as an electromagnetic force on the rotor is confined as a closed magnetic circuit in the mouth-shaped laminated iron core, so that The present invention relates to a generator that saves a lot of mechanical energy consumed to cut off electromagnetic force acting on a child and enables power generation with low energy consumption.
従来の発電機に於いては、図7、図8に参考図として記載するように、回転子磁石の磁力線を、鉄芯を介して閉磁路とし、鉄芯に巻き回したコイルを貫く磁力線が回転子磁石の回転によって変化したとき、誘導起電流がコイルに流れるよう構成されており、従来の発電機の構造がモーターと原理的に全く同じ構造であることは周知の通りである。In the conventional generator, as shown in FIGS. 7 and 8 as a reference diagram, the magnetic force lines of the rotor magnet are closed magnetic paths through the iron core, and the magnetic lines of force passing through the coil wound around the iron core are It is well known that the induced electromotive current flows through the coil when it is changed by the rotation of the rotor magnet, and the structure of the conventional generator is completely the same as that of the motor in principle.
従来の技術で述べたように、従来の発電機とモーターが原理的に同じ構造であるため、発電時にコイルに起電流が流れる際に生じる起磁力の作用を受けて、回転子磁石に電磁力が働く、この電磁力の力の向きは、発電の原理がフレミング右手の法則に基づいて説明することが出来るように、フレミング左手の法則に基づいてモーターの原理を説明することが出来、モーターと同様に回転子磁石に対して、その回転方向と正反対の方向に電磁力によって回転力が生じる。As described in the prior art, since the conventional generator and motor have the same structure in principle, the electromagnetic force generated by the magnetomotive force generated when the electromotive current flows through the coil during power generation causes the electromagnetic force on the rotor magnet. The direction of the force of this electromagnetic force that can work can explain the principle of the motor based on the Fleming right-hand rule, so that the principle of power generation can be explained based on the Fleming right-hand rule. Similarly, a rotational force is generated by electromagnetic force in the direction opposite to the rotational direction of the rotor magnet.
この正反対の回転方向に働く電磁力の力は、流れる起電流の大きさに比例して大きくなるため、従来の発電では、強制的に電磁力を押し切るための力学的エネルギーを必要とし、発電に消費するエネルギーの大半がこのエネルギーに消費されているのが現状であり、発電には多大な消費エネルギーを必要とする、というのが現在、直面する最大の課題である。Since the force of the electromagnetic force acting in the opposite direction of rotation increases in proportion to the magnitude of the electromotive force that flows, conventional power generation requires mechanical energy to force the electromagnetic force off, Currently, most of the energy consumed is consumed by this energy, and the biggest challenge that is currently faced is that it requires a large amount of energy to be generated.
上記の課題を解決するために、本発明の口型鉄芯コイルを用いた低消費エネルギー高出力発電機について説明する。In order to solve the above problems, a low power consumption high output generator using the mouth iron core coil of the present invention will be described.
請求項1に記載の発明は回転子に於いて、回転軸(11)を中心に直角方向に磁力線を放出する磁力線放出面を有するN極、S極の磁極数が2極以上偶数極を有する磁石を1個とする磁石(1)、磁石(2)、磁石(3)、磁石(4)の4個の磁石を平行に設けて回転子磁石を構成している。According to the first aspect of the present invention, in the rotor, the number of magnetic poles of N poles and S poles having a magnetic force line emission surface that emits magnetic force lines in a direction perpendicular to the rotation axis (11) is two or more and even poles. A rotor magnet is configured by providing four magnets, that is, a magnet (1), a magnet (2), a magnet (3), and a magnet (4), each having one magnet.
回転子磁石の配列構成は磁石(1)、磁石(2)の磁力線が互いに反発するよう磁極を同じ方向に平行に配列し、磁石(3)、磁石(4)の磁力線が互いに反発するよう磁極を同じ方向に平行に配列し、磁石(2)、磁石(3)の磁力線が互いに引き合うよう磁極を異ならせて平行に配列することで、口型積層鉄芯(9)内に於いて、磁石(1)、磁石(4)の磁力線が引き合い磁気回路(12)を構成し、磁石(2)、磁石(3)の磁力線が引き合い磁気回路(13)を構成する、この交わらない2つの磁気回路を同時に口型積層鉄芯(9)内に構成することの出来る4個の磁石を回転子に配列している。The arrangement configuration of the rotor magnets is such that the magnetic poles are arranged in parallel in the same direction so that the magnetic lines of force of the magnets (1) and (2) repel each other, and the magnetic lines of the magnetic elements (3) and (4) are repelled from each other. Are arranged in parallel in the same direction, and are arranged in parallel with different magnetic poles so that the magnetic lines of magnet (2) and magnet (3) attract each other. (1) The magnetic lines of magnet (4) are attracted to form a magnetic circuit (12), and the magnetic lines of magnet (2) and magnet (3) are attracted to form a magnetic circuit (13). Are arranged in the rotor at the same time in the mouth type laminated iron core (9).
上記の構成にすることで口型積層鉄芯(9)内に於いて、磁石(2)、磁石(3)で構成される磁気回路(13)が磁石(1)、磁石(4)の磁力線を反発させる壁の役割を務め、結果として磁石(1)、磁石(4)で構成される磁気回路(12)はコイルを貫通する経路で結ばれる。With the above configuration, in the mouth-type laminated iron core (9), the magnetic circuit (13) composed of the magnet (2) and the magnet (3) becomes the magnetic field lines of the magnet (1) and the magnet (4). As a result, the magnetic circuit (12) composed of the magnet (1) and the magnet (4) is connected by a path penetrating the coil.
この磁石(1)、磁石(4)で構成される磁気回路(12)が回転によってコイルに変化を与え、電磁誘導の法則を成立させる役割を務める。A magnetic circuit (12) composed of the magnet (1) and the magnet (4) changes the coil by rotation, and serves to establish the law of electromagnetic induction.
請求項2に記載の発明は固定子に於いて、表面を絶縁処理した口型平行四辺形の薄いケイ素合金鋼板を回転子から放出される磁力線と平行方向に複数枚積層して1個の口型積層鉄芯(9)を構成している。According to a second aspect of the present invention, there is provided a stator in which a plurality of thin parallel-shaped silicon alloy steel plates having a mouth-shaped parallelogram whose surfaces are insulated are laminated in a direction parallel to the magnetic field lines emitted from the rotor. The mold laminated iron core (9) is constituted.
上記の平行四辺形からなる口型積層鉄芯(9)の内、1辺を回転子磁石の接触面とし、回転子磁石の回転によって形成される円に沿って、その1辺の接触面が円状になるよう積層し、鉄芯面と回転子磁石の磁力線放出面との隙間を0ミリ以上0.5ミリ以下に設けている。Of the above-mentioned parallelogram-shaped laminated core (9), one side is a contact surface of the rotor magnet, and the contact surface of the one side is along a circle formed by the rotation of the rotor magnet. The layers are laminated in a circular shape, and the gap between the iron core surface and the magnetic force line emission surface of the rotor magnet is set to 0 mm or more and 0.5 mm or less.
上記の1辺の鉄芯内に於いて、回転子磁石の磁石(2)、磁石(3)の磁力線は互いに引き合い磁気回路(13)を構成し、磁石(1)、磁石(4)の磁力線を反発させる壁の役割を務めている。In the iron core on one side, the magnetic lines of the magnets (2) and (3) of the rotor magnet attract each other to form a magnetic circuit (13), and the magnetic lines of force of the magnets (1) and (4). Serves as a wall to repel.
また上記の平行四辺形からなる口型積層鉄芯(9)の残り3辺あるいは、その3辺の内、1辺から3辺にコイルを巻き回して設け、回転子磁石の回転によって形成される円を囲むように複数個の口型積層鉄芯(9)を放射状に設けて固定子としている。Also, the remaining three sides of the above-mentioned parallelogram-shaped mouth-shaped laminated iron core (9), or a coil wound around one to three of the three sides, is formed by rotating a rotor magnet. A plurality of mouth-type laminated iron cores (9) are provided radially so as to surround a circle to form a stator.
回転子磁石の磁石(1)、磁石(4)の磁力線は上記の3辺の鉄芯内でコイルを貫通する磁気回路(12)を構成し結ばれている。The magnetic lines of force of the magnet (1) and magnet (4) of the rotor magnet constitute a magnetic circuit (12) that penetrates the coil in the above three-side iron core.
口型積層鉄芯(9)を介してコイルを貫く磁石(1)、磁石(4)の磁力線が回転によって変化し、コイルに起電流(15)が流れるとき、その際に生じる起磁力(14)は、口型積層鉄芯(9)内で閉磁路として閉じ込められるため、回転子磁石は電磁力の作用をほとんど受けずに回転することが可能となる。When the magnetic field lines of the magnet (1) and the magnet (4) passing through the coil through the mouth-type laminated iron core (9) change due to rotation and an electromotive current (15) flows through the coil, the magnetomotive force (14 ) Is confined as a closed magnetic path in the mouth-shaped laminated iron core (9), the rotor magnet can be rotated with almost no action of electromagnetic force.
上記の事柄を詳しく説明すると、口型積層鉄芯(9)に巻き回したコイルの両端に仮に電池を接続し、コイルに電流を流すとコイルは電磁石となるはずである。Explaining the above matters in detail, if a battery is temporarily connected to both ends of the coil wound around the mouth-type laminated iron core (9) and a current is passed through the coil, the coil should become an electromagnet.
しかし、上記の口型積層鉄芯(9)に鉄などの磁性体を近づけても、鉄は引き寄せられないことが解る、これは磁石の性質は磁力線を空間に放出する磁力放出面があってのみ、磁石は仕事をすることが出来るためであり、磁力放出面のない口型積層鉄芯(9)では、電流によって生じる磁力線は閉磁路として磁気回路を構成し、口型積層鉄芯(9)内に閉じ込められてしまうのである。However, it can be seen that even when a magnetic material such as iron is brought close to the above-mentioned laminated iron core (9), iron is not attracted. This is because the magnet has a magnetic force release surface that emits magnetic lines of force to the space. This is because the magnet can work. In the mouth-type laminated iron core (9) having no magnetic force release surface, the magnetic force lines generated by the current constitute a magnetic circuit as a closed magnetic circuit, and the mouth-type laminated iron core (9 ) Is trapped inside.
そのため本発明の、請求項1に記載する磁力放出面を有する回転子磁石は口型積層鉄芯(9)内で2つの特殊な磁気回路を構成することでコイルに対しては電磁誘導の法則に基づいて仕事をすることが出来るが、請求項2に記載する磁力放出面のない口型積層鉄芯(9)内に閉じ込められた、コイルに流れる起電流(15)によって生じる起磁力(14)の磁力線は、回転子磁石に対して電磁力を作用させる仕事をすることが出来ないのである。Therefore, the rotor magnet having a magnetic force release surface according to
これまで説明してきた手段を用いることで、従来の発電機で消費する力学的エネルギーの大半を占めていた、回転方向と正反対の方向に生じる電磁力を、強制的に押し切るために必要としてきたエネルギーが不必要なものとなり、発電には多大の消費エネルギーを必要とする、という現在、直面していた最大の課題を克服することに成功した。By using the means described so far, the energy required to forcibly cut off the electromagnetic force generated in the opposite direction of rotation, which accounted for most of the mechanical energy consumed by conventional generators. Is no longer necessary, and we have succeeded in overcoming the biggest challenge we faced today: power generation requires a lot of energy.
本発明の実施の形態について、図面を参照して説明する。Embodiments of the present invention will be described with reference to the drawings.
図1は、本発明の回転子磁石が口型積層鉄芯(9)内で構成する2つの磁気回路を記した、側面断面図である。FIG. 1 is a side cross-sectional view showing two magnetic circuits that the rotor magnet of the present invention comprises in the mouth-type laminated iron core (9).
回転子に於いて、回転軸(11)を中心に直角方向に磁力線を放出する磁力線放出面を有するN極、S極の磁極数が2極の磁石を1個とする磁石(1)、磁石(2)、磁石(3)、磁石(4)の4個の磁石を平行に設けて回転子磁石を構成している。In the rotor, a magnet (1) having a magnet with two magnetic poles of N poles and S poles having a magnetic force line emitting surface that emits magnetic force lines in a direction perpendicular to the rotation axis (11), and a magnet (2) Four magnets of magnet (3) and magnet (4) are provided in parallel to constitute a rotor magnet.
回転子磁石の配列構成は磁石(1)、磁石(2)の磁力線が互いに反発するよう磁極を同じ方向に平行に配列し、磁石(3)、磁石(4)の磁力線が互いに反発するよう磁極を同じ方向に平行に配列し、磁石(2)、磁石(3)の磁力線が互いに引き合うよう磁極を異ならせて平行に配列している。The arrangement configuration of the rotor magnets is such that the magnetic poles are arranged in parallel in the same direction so that the magnetic lines of force of the magnets (1) and (2) repel each other, and the magnetic lines of the magnetic elements (3) and (4) are repelled from each other. Are arranged in parallel in the same direction, with the magnetic poles different so that the magnetic lines of magnet (2) and magnet (3) attract each other.
平行四辺形からなる口型積層鉄芯(9)4辺の内、回転子磁石の接触面である1辺の鉄芯内に於いて、磁石(2)、磁石(3)の磁力線が引き合いの磁気回路(13)を構成するため、磁石(2)の磁力線に反発する磁石(1)の磁力線と、磁石(3)の磁力線に反発する磁石(4)の磁力線とが引き合いコイルを貫通して磁気回路(12)を構成している。Mouth-type laminated iron core (9) made of parallelogram (9) Of the four sides, the magnetic field lines of magnet (2) and magnet (3) are attracted to each other in the iron core on one side which is the contact surface of the rotor magnet. In order to constitute the magnetic circuit (13), the magnetic field lines of the magnet (1) repelling the magnetic field lines of the magnet (2) and the magnetic field lines of the magnet (4) repelling the magnetic field lines of the magnet (3) attract each other through the coil. A magnetic circuit (12) is configured.
仮に磁石(2)と磁石(3)の2つの磁石が無い場合、磁石(1)と磁石(4)の磁力線は、回転子磁石の接触面である1辺の鉄芯内で引き合い磁気回路を構成してしまうため、磁力線がコイルを貫通することができなくなり、コイルに対して電磁誘導の法則が成立しなくなる。If there are no two magnets, the magnet (2) and the magnet (3), the magnetic lines of force of the magnet (1) and the magnet (4) attract each other within the iron core on one side, which is the contact surface of the rotor magnet, and cause a magnetic circuit. Therefore, the lines of magnetic force cannot penetrate the coil, and the law of electromagnetic induction is not established for the coil.
磁石(2)、磁石(3)の磁力線で構成される磁気回路(13)は、常に磁石(1)、磁石(4)の磁力線で構成される磁気回路(12)がコイルを貫通する経路で構成されるよう反発する磁気の壁を構成し、大きな役割を有している。The magnetic circuit (13) composed of the magnetic lines of magnet (2) and magnet (3) is always a path through which the magnetic circuit (12) composed of the magnetic lines of magnet (1) and magnet (4) passes through the coil. The magnetic wall that repels the structure is constructed and has a great role.
図2は、図1に記す矢印Aから見た正面図である。FIG. 2 is a front view seen from an arrow A shown in FIG.
4個の口型積層鉄芯(9)を回転子磁石の回転によって形成される円を囲むように四方向放射状に設け、それぞれの口型積層鉄芯(9)にコイル(5)、コイル(6)、コイル(7)、コイル(8)、を巻き回して固定子としている。Four mouth-shaped laminated iron cores (9) are provided radially in four directions so as to surround a circle formed by the rotation of the rotor magnet, and each mouth-shaped laminated iron core (9) is provided with a coil (5), a coil ( 6) The coil (7) and the coil (8) are wound to form a stator.
回転子磁石の磁石(1)、磁石(4)の磁力線がコイル(5)、コイル(6)を貫通して構成される磁気回路(12)を記している。The magnetic circuit (12) is shown in which the magnetic lines of force of the magnet (1) and magnet (4) of the rotor magnet penetrate through the coil (5) and the coil (6).
図3は、図1に記す回転方向に90度、回転したときを記した正面図である。FIG. 3 is a front view illustrating a state where the rotation is performed by 90 degrees in the rotation direction illustrated in FIG.
回転子磁石が90度、回転し磁石(1)、磁石(4)の磁力線で構成される磁気回路(12)がコイル(7)、コイル(8)を貫通するとき、コイル(5)、コイル(6)では貫通する磁力線が変化するため、電磁誘導の法則に基づいてコイル(5)、コイル(6)の両端に起電圧(16)が生じ、負荷(10)を介して起電流(15)が流れる。When the rotor magnet rotates 90 degrees and the magnetic circuit (12) composed of the magnetic lines of the magnet (1) and magnet (4) passes through the coil (7) and coil (8), the coil (5), coil In (6), the line of magnetic force penetrating changes, so that an electromotive voltage (16) is generated at both ends of the coil (5) and the coil (6) based on the law of electromagnetic induction, and an electromotive current (15) is generated via the load (10). ) Flows.
図4は、図3に記す矢印Bから見た起磁力(14)が口型積層鉄芯(9)内で構成する閉磁口の磁気回路を記した側面断面図である。FIG. 4 is a side sectional view showing a magnetic circuit of a closed magnetic opening in which the magnetomotive force (14) viewed from the arrow B shown in FIG. 3 is configured in the mouth-type laminated iron core (9).
負荷(10)を介してコイル(5)、コイル(6)に起電流(15)が流れる際に生じる起磁力(14)は、口型積層鉄芯(9)内で閉磁路の磁気回路を構成し、口型積層鉄芯(9)内に閉じ込められるため、回転子磁石は電磁力の作用をほとんど受けずに回転することが可能となる。The magnetomotive force (14) generated when the electromotive current (15) flows through the coil (5) and the coil (6) through the load (10) is generated by the magnetic circuit of the closed magnetic circuit in the mouth type laminated iron core (9). Since it is configured and confined in the mouth-shaped laminated iron core (9), the rotor magnet can rotate with almost no action of electromagnetic force.
回転子磁石が常時回転することで、上記に説明してきた通り磁力線の変化がコイル(5)、コイル(6)、コイル(7)、コイル(8)に対して繰り返され、電磁誘導の法則に基づいて低消費エネルギーで発電し、電力を取出すことが可能となった。By constantly rotating the rotor magnet, the change in the magnetic field lines is repeated for the coil (5), the coil (6), the coil (7), and the coil (8) as described above, and the electromagnetic induction law is obeyed. Based on this, it became possible to generate electricity with low energy consumption and extract the power.
図5は、1個の口型積層鉄芯(9)の積層構成を記した正面図である。FIG. 5 is a front view showing a laminated structure of one mouth-type laminated iron core (9).
表面を絶縁処理した口型平行四辺形の薄いケイ素合金鋼板を回転子から放出される磁力線と平行方向に複数枚積層して1個の口型積層鉄芯(9)を構成している。A single mouth-shaped laminated iron core (9) is formed by laminating a plurality of thin parallel-sided silicon alloy steel plates with a mouth-shaped parallelogram in the direction parallel to the lines of magnetic force emitted from the rotor.
平行四辺形からなる口型積層鉄芯(9)の内、1辺を回転子磁石の接触面とし、回転子の回転によって形成される円に沿って、その1辺の接触面が円状になるよう積層している。One side of the mouth-shaped laminated iron core (9) made of parallelogram is the contact surface of the rotor magnet, and the contact surface of that side is circular along the circle formed by the rotation of the rotor. They are stacked so that
図6は、1個の口型積層鉄芯(9)を側面から見た図である。FIG. 6 is a side view of one mouth-type laminated iron core (9).
本発明の口型鉄芯コイルを用いた低消費エネルギー高出力発電機は、以上説明した構成からなるため、以下に記載するような効果を奏する。Since the low power consumption high output power generator using the iron core coil of the present invention has the above-described configuration, the following effects can be obtained.
請求項1に記載する磁力放出面を有する回転子磁石は口型積層鉄芯(9)内で2つの特殊な磁気回路を構成することでコイル(5)、(6)、(7)、(8)に対しては電磁誘導の法則に基づいて仕事をすることが出来るが、請求項2に記載する磁力放出面のない口型積層鉄芯(9)内に閉じ込められた、コイル(5)、(6)、(7)、(8)に流れる誘導起電流によって生じる起磁力(14)の磁力線は、回転子磁石に対して電磁力を作用させる仕事をすることが出来ないのである。The rotor magnet having a magnetic force release surface according to
本発明の発電機を用いることで、従来の発電機で消費する力学的エネルギーの大半を占めていた、回転方向と正反対の方向に生じる電磁力を、強制的に押し切るために必要としてきたエネルギーが不必要なものとなり、発電には多大の消費エネルギーを必要とする、という現在、直面していた最大の課題を克服し、低消費エネルギーで高出力の発電機を実現し提供することが出来る。By using the generator of the present invention, the energy required to forcibly cut off the electromagnetic force generated in the direction opposite to the rotation direction, which accounted for most of the mechanical energy consumed by the conventional generator, is reduced. Overcoming the biggest problem that is currently faced, that it becomes unnecessary and requires a great deal of energy for power generation, it is possible to realize and provide a generator with low energy consumption and high output.
1 磁石
2 磁石
3 磁石
4 磁石
5 コイル
6 コイル
7 コイル
8 コイル
9 口型積層鉄芯
10 負荷
11 回転軸
12 磁気回路
13 磁気回路
14 起磁力
15 起電流
16 起電圧DESCRIPTION OF
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JP2003290906A JP2005033974A (en) | 2003-07-05 | 2003-07-05 | Low consumption energy/high output generator using ring type core and coil |
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Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
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JP5920905B1 (en) * | 2015-12-25 | 2016-05-18 | 株式会社空 | Electric motor |
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Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JP5920905B1 (en) * | 2015-12-25 | 2016-05-18 | 株式会社空 | Electric motor |
WO2017110444A1 (en) * | 2015-12-25 | 2017-06-29 | 株式会社空 | Electric motor |
CN108292885A (en) * | 2015-12-25 | 2018-07-17 | 株式会社空 | Motor |
CN108292885B (en) * | 2015-12-25 | 2019-12-17 | 株式会社空 | Electric motor |
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