JPH10164822A - Permanent motor and motor to which it is applied - Google Patents

Permanent motor and motor to which it is applied

Info

Publication number
JPH10164822A
JPH10164822A JP35313296A JP35313296A JPH10164822A JP H10164822 A JPH10164822 A JP H10164822A JP 35313296 A JP35313296 A JP 35313296A JP 35313296 A JP35313296 A JP 35313296A JP H10164822 A JPH10164822 A JP H10164822A
Authority
JP
Japan
Prior art keywords
magnet
motor
permanent
fixed
basic structure
Prior art date
Legal status (The legal status 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 status listed.)
Pending
Application number
JP35313296A
Other languages
Japanese (ja)
Inventor
Minoru Sugiyama
実 杉山
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
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 Individual filed Critical Individual
Priority to JP35313296A priority Critical patent/JPH10164822A/en
Publication of JPH10164822A publication Critical patent/JPH10164822A/en
Pending legal-status Critical Current

Links

Abstract

PROBLEM TO BE SOLVED: To drive a vehicle through semi-permanent thrust due to magnetism, convert the thrust into turning effort to inexhaustibly generate electric power, or utilize it as it is as a motor to drive various things. SOLUTION: In a track of A and B base boards 3, 4, three or four movable magnets 5 are placed in the magnetic field of each stationary magnet board 2 as required. Or, movable magnets 5 are continuously placed in the track. Thus, the movable magnets 5 are made to escape from a strong magnetic field applied to them when they pass through the narrowest portion of the stationary magnet track, by the sum of thrust of the movable magnets 5 in the magnetic field of other stationary magnets, and motion is thereby sustained. When the shape of the stationary magnet track is changed, the movable magnets 5 move along the track when they pass through it; therefore, this is applicable to various uses as well as to ordinary motors and linear motor cars.

Description

【発明の詳細な説明】DETAILED DESCRIPTION OF THE INVENTION

【0001】[0001]

【産業上の利用分野】当発明の産業上における利用分野
は、あまりにも広範である。当発明の諸請求項からも御
分かりいただけようが、あらゆる推進構造駆動力(モー
ター)、発電機構として利用可能である。
The field of industrial use of the present invention is too broad. As can be seen from the claims of the present invention, any propulsion structure driving force (motor) and power generation mechanism can be used.

【0002】[0002]

【従来の技術】今日、推進構造は化石燃料(石油等)を
燃焼させて得る電力により、モーターを回す事により行
っているが、これら電力の多くが結局の所、上記化石燃
料天然ガス等を燃やす事によって得られる。又、昨今、
原子力発電等も盛んになったが、その莫大な費用及びコ
ントロールの難しさ、又、危険性の著しさから世界各地
で原子力発電所反対の気運が高まっている。又、一部太
陽発電、風力発電等研究されているが、天候に左右され
る事、大でその信頼度は低いと言わざるを得ない。
2. Description of the Related Art At present, a propulsion structure is operated by rotating a motor with electric power obtained by burning fossil fuels (such as petroleum). However, most of these electric powers end up with the fossil fuel natural gas or the like. Obtained by burning. Also, recently
Nuclear power generation and the like have also become popular, but their huge costs, difficulty in controlling them, and the seriousness of their danger have led to increasing opposition to nuclear power plants around the world. Some research has been conducted on solar power generation, wind power generation, etc., but it depends on the weather and its reliability is low.

【0003】[0003]

【発明が解決しようとする課題】上記、従来の技術の項
にも記した通り、今日そのエネルギーを発生させる手段
は、そのほとんどが化石燃料の燃焼にある。従って、こ
れらがその帰結として必然的に発生させる炭酸ガスは、
既に我々人類の基底をなす自然環境を、致命的な状況に
追い込んでいる事は、諸々の兆候より明らかである。
As described above in the section of the prior art, most of the means for generating energy today are based on the combustion of fossil fuels. Therefore, the carbon dioxide that these inevitably generate as a consequence is
It is clear from various signs that we are already driving the natural environment that underlies humanity into a deadly situation.

【0004】[0004]

【課題を解決する手段】当発明は、上記課題の根源をな
す化石燃料の消費による大気汚染と有毒物質の発生を伴
わず、主に永久磁石のみをエネルギー発生機構とし、あ
くまでも安価で特に高等な技術を必要とせず、永久磁石
の交換又は充足のみを行えばその投入エネルギーは全く
不用であり、あくまでもフリーでクリーンなエネルギー
を、半ば永久的に可能ならしめる当発明の利益は疑う余
地はなく、又、人類の究極の目的でもあった。
SUMMARY OF THE INVENTION The present invention does not involve air pollution and the generation of toxic substances due to the consumption of fossil fuel, which is the source of the above-mentioned problems, and mainly uses only permanent magnets as an energy generation mechanism. If no technology is required and only the replacement or filling of the permanent magnet is performed, the input energy is completely unnecessary, and there is no doubt the benefit of the present invention that enables free and clean energy to be made semi-permanently, It was also the ultimate purpose of mankind.

【0005】[0005]

【作用】本発明の基本メカニズムは、ある直線に対して
磁場を斜めに形成して設置し、その直線上に軌道拘束し
て、可動可能な磁石を上記磁場と引き合う磁極を向けて
設置すると、上記磁場が直線に対して狭まる方向に磁石
はスライドして、進行する事の発見より始まる。従っ
て、図1のように永久磁石で挟み込む中間層を設けて、
その中央にそれら永久磁石の極面と引き合うよう可動磁
石(5)を設置してやれば、可動磁石(5)は前進を続
ける事となる。しかし、当発明においてはA、B軌道が
対称に形成されたのでは両面の吸引力も又対称となり、
一番磁極の狭まった所で可動磁石(5)は停止してしま
う(強磁場の合力により)。従って、例えばA基定基板
上の固定磁石軌道が一番狭まった時に、すでにB基定基
板の固定磁石軌道の磁極が可動磁石を捕らえていれば、
固定磁石aにより加速された可動磁石はその磁場を飛び
出して固定磁石bの磁場内に入り、今度は固定磁石bの
磁極により引っ張られ加速される事になる。つまり、A
軌道加速、飛び出し離脱、B軌道に手渡し、B軌道によ
り加速、飛び出し離脱、A軌道に手渡し、という一連の
作用が連続的につながって結局推力の維持につながる事
となる。又、本発明請求項には上記作用の離脱をよりス
ムースにおこなわしめる為、各軌道の最狭域、つまり、
先端部を可動磁石(5)の軌道より交互に、又は同一方
向に離脱させて本来、最狭部にて吸着が最も強まり推力
にブレーキとなってしまう構造だが、磁場面積を減少さ
せる事によって和らげ、次の極面軌道にスムースに手渡
し出来るように設計されている。
According to the basic mechanism of the present invention, a magnetic field is formed obliquely with respect to a certain straight line, the orbit is constrained on the straight line, and a movable magnet is installed with its magnetic pole facing the magnetic field. It starts with the discovery that the magnet slides in the direction in which the magnetic field narrows with respect to the straight line and moves. Therefore, an intermediate layer sandwiched between permanent magnets is provided as shown in FIG.
If a movable magnet (5) is installed at the center thereof to attract the pole faces of the permanent magnets, the movable magnet (5) will continue to move forward. However, in the present invention, if the A and B orbits are formed symmetrically, the suction force on both sides also becomes symmetrical,
The movable magnet (5) stops at the place where the magnetic pole is narrowest (due to the resultant force of the strong magnetic field). Therefore, for example, when the fixed magnet trajectory on the A-based substrate is the narrowest, if the magnetic pole of the fixed magnet trajectory on the B-based substrate already captures the movable magnet,
The movable magnet accelerated by the fixed magnet a jumps out of the magnetic field and enters the magnetic field of the fixed magnet b, and is pulled and accelerated by the magnetic pole of the fixed magnet b. That is, A
A series of actions such as orbital acceleration, jumping out and leaving, handing to B orbit, and accelerating, popping out and handing out to A orbit by B orbit, are continuously connected, and eventually lead to maintenance of thrust. Further, in order to make the decoupling of the above-mentioned operation smoother, the narrowest area of each orbit, that is,
The tip is separated from the orbit of the movable magnet (5) alternately or in the same direction, so that the suction will be the strongest at the narrowest part and the thrust will be braked. It is designed so that it can be handed smoothly to the next polar orbit.

【0006】[0006]

【実施例】ここでは、本発明の実施例を図1についても
う一度見る。軌道Aには極面を下に向けた固定磁石a
が、固定磁石基板a(2)に固定され、A軌道基板上に
等間隔に設止置されている。B軌道には、同様に固定磁
石bが今度はA軌道の極面と反対の極面を向けて、設置
されている。ただし、その設置方法は図1のように非対
称である。つまり、当両軌道間の中間層(1)を通る中
間磁極体たる可動磁石(5)が磁極の狭まり方向(矢
印)に進行する時、例えばA軌道一つであれば最狭部に
て磁極が一番強くなるので、可動磁石はそこで吸着され
停止してしまう。しかし、その過程での加速による推力
と隣のB軌道の固定磁石の磁場の力との和が、A軌道最
狭部の吸着力を上回れば、当可動磁石の運動は維持され
る事となり、これは例えば図3のごとく円軌道に形成し
てやれば、半永久的に回転運動を継続する永久モーター
となる。又、完全永久モーターとはいかないまでも、本
発明の永久モーター基本構造応用型の諸可制御モーター
によれば、通常のモーターに比して、その入力は格段に
少なくて済む。
BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 shows an embodiment of the present invention. Track A has a fixed magnet a with its pole face down.
Are fixed to the fixed magnet substrate a (2) and are disposed at equal intervals on the A track substrate. Similarly, the fixed magnet b is installed on the B orbit with the polar surface opposite to the polar surface of the A orbit. However, the installation method is asymmetric as shown in FIG. That is, when the movable magnet (5) as an intermediate magnetic pole body passing through the intermediate layer (1) between the two orbits advances in the direction in which the magnetic pole narrows (arrow), for example, if there is only one A orbit, the magnetic pole is at the narrowest part. Is strongest, and the movable magnet is attracted and stopped there. However, if the sum of the thrust due to acceleration in the process and the force of the magnetic field of the fixed magnet in the adjacent B orbit exceeds the attraction force of the narrowest part of the A orbit, the motion of the movable magnet will be maintained, If this is formed in a circular orbit as shown in FIG. 3, for example, it becomes a permanent motor that continues rotating motion semipermanently. Further, even if it is not a complete permanent motor, according to the various controllable motors applied to the basic structure of the permanent motor according to the present invention, the input can be remarkably reduced as compared with a normal motor.

【0007】[0007]

【発明の効果】以上の通り、当発明は先人によりほぼ開
発不可能と黙されていた、というより一般常識化してい
た永久磁石のみをそのエネルギー源とした、永続的な回
転運動により、人類がその全生活の基定をなすクリーン
で設備費だけの低コスト、安全かつ、コンパクトであく
までもフリーなエネルギーで、直接的な推力、駆動力と
して用いる他、発電機に接続すれば電気として取り出す
事が出来る、究極の発明である。
As described above, the present invention has been imputed to be almost impossible to develop by the predecessor. Is the clean, low-cost only equipment cost that is the basis of the whole life, is safe, compact and free of energy, and is used as direct thrust and driving power, and when connected to a generator, it can be extracted as electricity This is the ultimate invention.

【図面の簡単な説明】[Brief description of the drawings]

【図1】 側面図 本発明の基本となる磁極軌道の説
明図。
FIG. 1 is a side view of a magnetic pole trajectory which is the basis of the present invention.

【図2】 平面図 本発明の基本となる固定磁石軌道
の説明図。
FIG. 2 is a plan view illustrating a fixed magnet trajectory which is the basis of the present invention.

【図3】 平面図 本発明の基本となる固定磁石円軌
道の説明図。
FIG. 3 is a plan view illustrating a fixed magnet circular orbit as a basis of the present invention.

【図4】 正面断面図 カプセル型ロケットモーター
可動部の断面構造である。
FIG. 4 is a front sectional view showing a sectional structure of a movable portion of the capsule rocket motor.

【図5】 正面断面図 トンネル軌道の断面図であ
る。
FIG. 5 is a sectional front view of the tunnel track.

【図6】 側面断面図 対称挟み込み固定磁石、可動
電磁石の作用例の説明。
FIG. 6 is a side cross-sectional view illustrating an example of the operation of a symmetric sandwiching fixed magnet and a movable electromagnet.

【図7】 側面図 固定磁石軌道最狭部の吸着による
推力ダウンを電磁石により逆に推力に転化する構造説明
である。
FIG. 7 is a side view illustrating a structure in which thrust reduction due to suction at the narrowest portion of the fixed magnet track is converted into thrust by an electromagnet.

【図8】 側面図 推力強化型永久モーター基本構造
の説明図。
FIG. 8 is a side view illustrating the basic structure of a thrust-enhanced permanent motor.

【図9】 正面断面図 マグネット軸受の構造説明
図。
FIG. 9 is a front sectional view illustrating the structure of a magnet bearing.

【符号の説明】[Explanation of symbols]

1=中間層 2=固定磁石基板 3=基定基板A 4=基定基板B 5=可動磁石 6=可動磁石移動線 7=両固定磁石基板の中央線 8=両固定磁石基板の末端部 9=可動磁石円基板 10=電磁石 11=電磁石先端部 12=挟み込み固定磁石a 13=挟み込み固定磁石b 14=挟み込み固定磁石軌道a、bの最狭部 15=スウィッチ電導体 16=弧上形成コネクター 17=マグネット軸受 18=シャフト 19=軸受内反応ローター 1 = Intermediate layer 2 = Fixed magnet substrate 3 = Reference substrate A 4 = Reference substrate B 5 = Movable magnet 6 = Movable magnet moving line 7 = Center line of both fixed magnet substrates 8 = Terminal portion of both fixed magnet substrates 9 = Movable magnet circular substrate 10 = electromagnet 11 = electromagnet tip 12 = sandwiching fixed magnet a 13 = sandwiching fixed magnet b 14 = narrowest portion of sandwiching fixed magnet tracks a and b 15 = switch conductor 16 = connector formed on arc 17 = Magnet bearing 18 = Shaft 19 = Reaction rotor in bearing

Claims (22)

【特許請求の範囲】[Claims] 【請求項1】「永久モーターの基本構造」図1のように
平行線の中間層(1)を設けて、その上下基定基板A、
Bに三角柱に形成した固定磁石基板(2)を一枚又は複
数枚の磁石を一極を同方向に向けて、基定基板A(3)
に接着し、又、平行線反対位置にある基定基板B(4)
にも同様に、ただし、極面は固定磁石基板aに反対極面
を向けて設置する。この時、図1のように固定磁石基板
は対象位置ではなく交互に一部分ずつが重なり合うよう
に設置される。そして、当中間層(1)に中間磁極体た
る可動磁石(5)を両固定磁石a、bに対極を向けて適
便可動設置して、当中間層(1)内にある両固定磁石
a、bの交互の磁場の吸着力によりバランスよく引っ張
られて手渡される事により、永続的な運動を実行する構
造とした事を特徴とする、永久モーターの基本構造。
1. "Basic structure of permanent motor" As shown in FIG. 1, an intermediate layer (1) of parallel lines is provided, and upper and lower base substrates A,
A fixed substrate (2) formed in a triangular prism on B and one or a plurality of magnets are oriented with one pole in the same direction.
And the base substrate B (4) at the position opposite to the parallel line
Similarly, the pole face is set with the opposite pole face facing the fixed magnet substrate a. At this time, as shown in FIG. 1, the fixed magnet substrates are set so that they are not part of the target position but alternately partially overlap. Then, the movable magnet (5) as an intermediate magnetic pole body is appropriately and movably installed in the intermediate layer (1) with the counter electrodes facing the fixed magnets a and b, and the fixed magnet a in the intermediate layer (1) is disposed. The basic structure of a permanent motor, characterized in that the structure is such that a permanent movement is performed by being pulled and handed in a well-balanced manner by the attracting force of the alternating magnetic field of b and b.
【請求項2】「磁場均一化型永久モーターの基本構造」
図2は図1の永久モーターの基本構造の平面図である
が、可動磁石移動線(6)が本発明請求項1の固定磁石
基板の中央線(7)に同位するのではなく、図2の如く
固定磁石基板が交互に、又は一方向にその末端部(8)
をある角度を持たせて、可動磁石移動線(6)から上下
基定基板A、B上をスライドし離脱させて固定し、本発
明請求項1から来る構造上の可動磁石(5)に対する位
置変化に伴う磁場密度を、均一化させ、その運動をスム
ースとした事を特徴とした、磁場均一化型永久モーター
の基本構造。
2. The basic structure of a permanent magnetic motor with a uniform magnetic field
FIG. 2 is a plan view of the basic structure of the permanent motor of FIG. 1, but the movable magnet moving line (6) is not located at the same position as the center line (7) of the fixed magnet substrate according to claim 1 of the present invention. The fixed magnet substrates are alternately or unidirectionally as shown in FIG.
With a certain angle, slide on the upper and lower base boards A and B from the movable magnet moving line (6) and separate and fix the same, and the position with respect to the structural movable magnet (5) coming from the present invention. The basic structure of a permanent magnetic motor with a uniform magnetic field, characterized by the uniformity of the magnetic field density accompanying the change and the smooth movement.
【請求項3】「挟み込み磁極運動型永久モーター基本構
造」本発明請求項1及び2の永久モーター基本構造にお
いて、中間磁極体たる可動磁石を固定し、本来の固定磁
石軌道、本発明にあっては基定基板A、Bを一体構造と
して運動構造を持たせた、挟み込み磁極運動型永久モー
ター基本構造。
3. The basic structure of the permanent motor of the present invention, wherein the movable magnet as the intermediate magnetic pole member is fixed and the original fixed magnet track is provided. Is a sandwiched magnetic pole motion type permanent motor basic structure in which the base substrates A and B are integrally formed to have a motion structure.
【請求項4】「可動磁石を電磁石に置き変えた永久モー
ター基本構造応用型可制御モーター」本発明請求項1及
び2の中間磁極体たる可動磁石(5)を電磁石に置き変
え、可制御構造とした事を特徴とした永久モーター基本
構造応用型可制御モーター。
4. A controllable motor in which the movable magnet is replaced with an electromagnet and the permanent magnet is of a basic structure application type, wherein the movable magnet (5) serving as the intermediate magnetic pole body according to claim 1 and 2 is replaced with an electromagnet. A controllable motor that applies a permanent motor basic structure.
【請求項5】「固定磁石を電磁石に置き変えた永久モー
ター基本構造応用型可制御モーター」本発明請求項1、
及び2の固定磁石a、bを電磁石に置換せしめた事を特
徴とする、永久モーター基本構造応用型可制御モータ
ー。
5. The controllable motor according to the present invention, wherein the permanent magnet is replaced by an electromagnet, and the permanent motor basic structure is applied.
And a permanent motor basic structure application type controllable motor characterized in that the fixed magnets a and b of the second and third aspects are replaced with electromagnets.
【請求項6】「円軌道永久モーター及び諸応用型可制御
円軌道モーター」本発明請求項1及び2の基定基板を円
形に形成し、図3の如く固定磁石基板を設け、中間磁極
体たる可動磁石も中央に軸受けを備えた可動磁石円基板
(9)に適便単数又は複数個、時に間断なく円軌道周縁
部に固定し、円運動を行わせる構造とした事を特徴とす
る円軌道永久モーター、及び本発明請求項4、5の制御
機能を備えた応用型可制御円軌道モーター。
6. A circular orbital permanent motor and various types of controllable circular orbital motors according to the first and second aspects of the present invention, wherein the base substrate is formed in a circular shape, and a fixed magnet substrate is provided as shown in FIG. The circle is characterized in that the movable magnet is also fixed to a movable magnet circular substrate (9) provided with a bearing in the center, conveniently singular or plural, and is sometimes fixed to the periphery of the circular orbit without interruption, so as to perform a circular motion. An orbitable permanent orbit motor and an applied controllable circular orbit motor having a control function according to claims 4 and 5 of the present invention.
【請求項7】「永久モーター基本構造応用型トンネル軌
道ロケットモーター」図4の如く、移動物体たる運動中
間磁極体をカプセルに磁極付きの翼を形成した形状と
し、かつ、翼先端に必要に応じて車輪を付し、図4の為
のトンネル軌道を当発明請求項の1、2、3、4、5の
A、B軌道にて実施する為に図5のようなトンネルを形
成し、且つ、当断面のN、S斜線部の内側面に磁極の
N、Sのどちらか一極が来るようにするか、N、S極で
サンドイッチにし、運動磁極体の翼部をも本請求項7の
N、S斜線部内側面の磁極に同極を向けた事を特徴とす
る、反発スライド機構付き永久モーター基本構造応用型
トンネル軌道ロケットモータ
7. "Tunnel orbit rocket motor applying a basic structure of a permanent motor" As shown in FIG. 4, a moving intermediate magnetic body as a moving object is formed into a capsule with wings with magnetic poles, and the tip of the wing is provided as required. 4 to form a tunnel as shown in FIG. 5 in order to carry out the tunnel track for FIG. 4 on the A, B tracks of claims 1, 2, 3, 4, and 5 of the present invention, and The magnetic pole body may be arranged so that either one of the magnetic poles N and S comes to the inner surface of the hatched portion of the cross section of the N and S poles, or the N and S poles are sandwiched, and the wings of the moving magnetic pole body are also provided. Tunnel rocket motor with basic structure applied to permanent motor basic structure with repulsive slide mechanism, characterized in that the same pole is directed to the magnetic pole on the inner side of the N, S diagonal shaded area
【請求項8】「永久モーター基本構造応用型、対称挟み
込み固定磁石可動電磁石併用式強化軌道モーター」当発
明請求項1、2の永久モーター基本構造を応用するが、
固定磁石基板を交互に設置するのではなく、図6のよう
に対称位置に設置して、中間磁極体たる可動磁石を電磁
石(10)とし、当電磁石の先端部(11)が挟み込み
固定磁石a(12)、b(13)の先端部に来た時にス
ウィッチが切れ、又、逆に先端部が挟み込み固定磁石a
(12)、b(13)の末端部に来た時に電磁石(1
0)のスウィッチが入り、挟み込み固定磁石a(1
2)、b(13)により吸引加速されて、推力を維持す
る構造とした事を特徴とする、永久モーター基本構造応
用型、対称挟み込み固定磁石可動電磁石併用式強化軌道
モーター。
8. A permanent motor basic structure applied type, symmetrical sandwiching fixed magnet movable electromagnet combined use reinforced orbital motor. The permanent motor basic structure of claim 1 or 2 of the present invention is applied.
Rather than alternately installing fixed magnet substrates, they are installed at symmetrical positions as shown in FIG. 6, and the movable magnet serving as the intermediate magnetic body is an electromagnet (10), and the tip (11) of the electromagnet is sandwiched between the fixed magnets a. (12), b (13), when the switch comes to the tip, the switch is cut off.
(12) When the electromagnet (1) comes to the end of b (13),
0), and the sandwiched fixed magnet a (1)
2) A permanent-motor-based reinforced orbital motor combined with a symmetric sandwiching fixed magnet movable electromagnet, characterized in that it is structured to maintain the thrust by being sucked and accelerated by b (13).
【請求項9】「固定磁石最狭部電磁石置換型、永久モー
ター基本構造応用型可制御モーターと電磁石スウィッチ
構造」図7の如く、挟み込み固定磁石軌道a、bの最狭
部を永久磁石ではなく電磁石とし、可動磁石が両固定磁
石軌道の最狭部(14)を通過する際の強磁場による吸
着作用による推力ダウンを、可動磁石の反応面の極と同
極の磁場を可動磁石の通過時に適便発生させて、推力維
持を計るとともに逆に推力を付加する構造としている。
電磁石のスウィッチ構造としては、ここでは、可動磁石
側面中央部から円柱様のスウィッチ電導体(15)を水
平に突き出させ、そのスウィッチ電導体(15)が各固
定磁石軌道の最狭部に設置された両電磁石のコイル端子
と接続され、図7の如く、薄板様で弧状に形成されたコ
ネクター(16)を接触通過すると、電流回路が形成さ
れて電磁石が作用する事を特徴とした、固定磁石最狭部
電磁石置換型、永久モーター基本構造応用型可制御モー
ターと電磁石スウィッチ構造。
9. "Narrowest fixed magnet portion electromagnet replacement type, permanent motor basic structure application type controllable motor and electromagnet switch structure" As shown in FIG. 7, the narrowest portions of the sandwiched fixed magnet tracks a and b are not permanent magnets. An electromagnet is used to reduce the thrust due to the attraction effect of the strong magnetic field when the movable magnet passes through the narrowest part (14) of both fixed magnet tracks. It is designed to generate thoroughgoing flight, maintain thrust, and add thrust.
As the switch structure of the electromagnet, here, a column-like switch conductor (15) is projected horizontally from the center of the side surface of the movable magnet, and the switch conductor (15) is installed at the narrowest portion of each fixed magnet track. A fixed magnet, which is connected to the coil terminals of the two electromagnets and, when in contact with and passes through a thin plate-like connector (16) formed in an arc shape as shown in FIG. 7, a current circuit is formed and the electromagnet acts. Controllable motor and electromagnet switch structure with electromagnet replacement at the narrowest part, permanent motor basic structure application type.
【請求項10】「永久磁石電磁石一体構造による、固定
磁石最狭部強磁場離脱構造」本発明請求項9の固定磁石
最狭部電磁石置換型の電磁石部を、永久磁石の中央に穴
を開けて、その穴にコイルを巻いた鉄芯を通して、電気
回路を形成して本発明のA、B軌道の一方又は両方によ
り最狭部を形成した事を特徴とした、永久磁石電磁石一
体構造による固定磁石最狭部強磁場離脱構造。
10. A fixed magnet narrowest portion strong magnetic field departure structure by a permanent magnet electromagnet integrated structure. The electromagnet portion of the fixed magnet narrowest portion electromagnet replacement type according to claim 9 of the present invention is formed by making a hole in the center of a permanent magnet. An electric circuit is formed through an iron core wound with a coil in the hole, and the narrowest portion is formed by one or both of the A and B tracks of the present invention. Strong magnetic field departure structure at the narrowest part of the magnet.
【請求項11】「モーターピニヨンスウィッチによる、
固定磁石最狭部強磁場離脱構造」不導体のピニオンに上
下非接触の2本の電導体ラインを水平に付し、ピニオン
の下部に円柱様の非ギア軸受け部を設け、上記2本の電
導ラインを、一本は不導体内部から他方は表面部を伝わ
せて、軸受部にピニオン同様に上下に非接触にて巻き付
け、その上の電導帯には電源からの入力を、又、下部の
電導帯にはモーターへの入力コードにそれぞれモーター
整流子様のコネクターにて接続し、モーターからの出力
端子を電源に帰線して一回路となす。又、可動磁石の側
面に電導体でピニオンの溝にマッチし、且つ、ピニオン
の側面幅と同じ幅を持つギアを接着継止して、移動して
来た可動磁石が適便ピニオンに接触可動するように構成
して、接触した瞬間にモーターのスウィッチが入り、可
動磁石を強磁場より強制離脱せしめる構造としたモータ
ーピニオンスウィッチによる、固定磁石最狭部強磁場離
脱構造。
11. A motor pinion switch,
Fixed magnetic field narrowest part strong magnetic field departure structure "Two non-contact pinion conductors are horizontally attached to the non-conductive pinion, and a columnar non-gear bearing is provided below the pinion, and the two conductive One line is passed from the inside of the non-conductor to the other and the surface is transmitted, and it is wound up and down in a non-contact manner like a pinion on the bearing part, and the input from the power supply is applied to the conductive band above it, and the lower part is The conduction band is connected to the input cord to the motor with a connector like a motor commutator, and the output terminal from the motor is returned to the power supply to form one circuit. In addition, a gear that matches the groove of the pinion with a conductor on the side surface of the movable magnet and has the same width as the side surface width of the pinion is bonded and bonded, so that the movable magnet that has moved can contact the suitable pinion The motor pinion switch has a structure in which the motor is switched on at the moment of contact, and the movable magnet is forcibly released from the strong magnetic field.
【請求項12】「永久磁石、電磁石一体式永久モーター
基本構造応用型可制御モーター」本発明請求項1、2及
び8の固定磁石軌道にあって、中間磁極体を進行方向に
対し、前方を永久磁石、後方を横倒しにした三角柱様の
電磁石でサンドイッチにした形体をとらせる。継止状態
は一例としては、永久磁石の中央に穴を開けてその穴の
中にコイルを巻いた鉄芯を通過させて永久磁石、電磁石
一体式可動磁石とし、可動磁石にも固定した中間磁極体
としても使用可能とした。又、当永久磁石、電磁石一体
式可動磁石は軌道構造によってはアルターネーティブス
ウィッチにより、極転換を計れる構造とした永久磁石、
電磁石一体式永久モーター基本構造応用型可制御モータ
ー。
12. The controllable motor according to claim 1, 2 or 8, wherein the permanent magnet and the electromagnet integrated permanent motor are applied to the fixed magnet track. A permanent magnet and a triangular prism-shaped electromagnet with the back side down are sandwiched. An example of the stop state is an intermediate magnetic pole in which a permanent magnet and an electromagnet-integrated movable magnet are formed by making a hole in the center of a permanent magnet and passing an iron core with a coil wound in the hole, and fixed to the movable magnet. It can be used as a body. Also, depending on the orbital structure, the permanent magnet and the electromagnet-integrated movable magnet are permanent magnets with a structure that allows pole switching by alternate switching.
An electromagnet-integrated permanent motor basic structure application type controllable motor.
【請求項13】「推力強化型永久モーター基本構造」本
発明請求項の1、2及び8のA、B基定基板軌道におい
て、図8のように一固定磁石基板の磁場内に概ね3〜4
個の可動磁石が適便入るようにするか、又は、間断なく
並べて可動磁石が固定磁石軌道の最狭部を通過する際に
受ける強磁場を他の可動磁石の推力の和で離脱せしめ
て、運動を維持する構造とした推力強化型永久モーター
基本構造。
13. "Basic Structure of Thrust-Enhanced Permanent Motor" According to claims 1, 2 and 8 of the present invention, in the track of the base substrate A, B, as shown in FIG. 4
Make sure that the number of movable magnets fits properly, or disengage the strong magnetic field received when the movable magnets pass through the narrowest part of the fixed magnet orbit by the sum of the thrusts of other movable magnets. Basic structure of a thrust-enhanced permanent motor that maintains movement.
【請求項14】「三角尖頭固定磁石による永久モーター
基本構造」本発明の固定磁石の先端部を三角尖頭とした
事を特徴とする、三角尖頭固定磁石による永久モーター
基本構造。
14. A basic structure of a permanent motor using a fixed triangular-point magnet, characterized in that the fixed magnet according to the present invention has a triangular point at the tip.
【請求項15】「先端部素型固定磁石による永久モータ
ー基本構造」本発明の固定磁石の先端部を先端部に行く
に従い、隙間を広げて形成した事を特徴とする先端部素
型固定磁石による永久モーター基本構造。
15. A basic structure of a permanent motor using a fixed-tip fixed magnet The fixed-magnet of the present invention is characterized in that the fixed magnet is formed such that a gap is widened as the tip of the fixed magnet goes to the tip. Permanent motor basic structure.
【請求項16】「先端部反り返り型固定磁石軌道による
永久モーター基本構造」本発明において、固定磁石基板
の先端部を基定基板より弧状に垂直方向に反り返らせ
て、その底面部に固定磁石を設置して最先端部の磁場が
可動磁石軌道より容易に離脱するように形成して、固定
磁石基定基板に単独で、又は、弧状反り返り部を次の固
定磁石基板の末端部と重複する形態を持たせた、先端部
反り返り型固定磁石軌道による永久モーター基本構造。
16. The basic structure of a permanent motor using a fixed-magnet orbit in which a fixed portion of a fixed magnet substrate is curved in a vertical direction in an arc shape from a base substrate. Is installed so that the magnetic field at the foremost end is easily separated from the movable magnet track, and the fixed magnet base substrate alone or the arc-shaped bent portion overlaps with the end of the next fixed magnet substrate. Permanent motor basic structure with a curved, fixed-point orbit at the tip.
【請求項17】「水平方向弧状固定磁石基板による永久
モーター基本構造」本発明における円軌道永久モーター
基本構造において、その固定磁石基板を三角柱を横倒し
にした構造から円軌道の可動磁石に適便作用するよう
に、各々の固定磁石基板を円軌道に合わせて水平方向に
弧状に形成するか、もしくは、ある部位より徐々に傾斜
させて、最終的にその傾斜開始部位で傾斜が終了する円
軌道周縁部を唯一の固定磁石基板にて形成して、その反
応効率を向上させた事を特徴とする、水平方向弧状固定
磁石基板による永久モーター基本構造。
17. The basic structure of a permanent motor with a horizontal arc-shaped fixed magnet substrate In the basic structure of a circular orbit permanent motor according to the present invention, the fixed magnet substrate has a structure in which a triangular prism is turned sideways, and a convenient action is provided for a movable magnet in a circular orbit. So that each fixed magnet substrate is formed in an arc shape in the horizontal direction in accordance with the circular orbit, or gradually inclined from a certain portion, and finally the peripheral edge of the circular orbit where the inclination ends at the inclination start portion The basic structure of a permanent motor with a horizontal arc-shaped fixed magnet substrate, characterized in that the part is formed by only one fixed magnet substrate and its reaction efficiency is improved.
【請求項18】「両固定磁石、可動磁石一体成型円軌道
永久モーター基本構造」本発明請求項17の円軌道永久
モーター基本構造において、両固定磁石軌道も可動磁石
もドーナツ盤状に一体成型して、諸々の効率を向上せし
めた、両固定磁石可動磁石一体成型円軌道永久モーター
基本構造。
18. A basic structure of a circular orbit permanent motor integrally formed with both fixed magnets and a movable magnet. In the basic structure of a circular orbit permanent motor according to claim 17, both the fixed magnet and the movable magnet are integrally formed into a donut shape. The basic structure of a circular orbit permanent motor integrated with both fixed magnets and movable magnets with improved efficiency.
【請求項19】「他磁極ヘッド付き可動磁石」本発明に
おける可動磁石(5)の進行方向の先端部に、当可動磁
石の磁極と直角になる磁極を持つ磁石を、当可動磁石の
厚さとほぼ同様となるように固着せしめた他磁極ヘッド
付き可動磁石。
19. "Movable magnet with other magnetic pole head" A magnet having a magnetic pole perpendicular to the magnetic pole of the movable magnet is provided at the tip of the movable magnet (5) in the traveling direction in the present invention. A movable magnet with another magnetic pole head that is fixed in almost the same way.
【請求項20】「反発推進型永久モーター基本構造」本
発明の両基定基板A、Bにあって、固定磁石の極に反発
するように可動磁石を装備して、吸引型とは全く逆方向
に反発推力により運動させるように構成した、反発推進
型永久モーター基本構造。
20. "Basic structure of repulsive propulsion type permanent motor" In both base substrates A and B of the present invention, a movable magnet is provided so as to repel poles of a fixed magnet, and is completely opposite to a suction type. The basic structure of the repulsion propulsion type permanent motor, which is configured to move by the repulsive thrust in the direction.
【請求項21】「マグネット軸受付き永久モーター」本
発明請求項6等の円軌道永久モーターにおいて、永久モ
ーターの効率を高め、発熱等を抑える目的で図9のよう
な内空円盤形で、内壁面がN、Sどちらか一極になる構
造をも持つマグネット軸受(17)を形成し、永久モー
ターのシャフト(18)にも軸受内反応ローター(1
9)をマグネット軸受内の磁極に反発する磁極を向け
て、軸受内反応ローター(19)が軸受に接触する事な
く、回転するように構成した。又、内壁面がN、S、2
極に構成された場合も軸受内反応ローターをその極面に
反発する2極として構成すれば、同様の効果を得られ
る、マグネット軸受付き永久モーター。
21. Permanent motor with magnet bearing The circular orbit permanent motor according to claim 6 of the present invention has an inner disk shape as shown in FIG. 9 for the purpose of increasing the efficiency of the permanent motor and suppressing heat generation. A magnet bearing (17) having a structure in which the wall surface becomes one of N and S poles is formed, and a reaction rotor (1) in the bearing is formed on the shaft (18) of the permanent motor.
9) is configured such that the reaction rotor (19) in the bearing rotates without contacting the bearing with the magnetic pole repelling the magnetic pole in the magnet bearing. Also, the inner wall surface is N, S, 2
A permanent motor with a magnet bearing can achieve the same effect if the reaction rotor in the bearing is configured as a two-pole repelling against the pole surface even when configured as a pole.
【請求項22】「複数マグネット軸受付き永久モータ
ー」当発明請求項21のマグネット軸受を両支持部に複
数個、連結して、軸受に掛かる力を分散した事を特徴と
する、複数マグネット軸受付き永久モーター。
22. A "permanent motor with a plurality of magnet bearings", wherein a plurality of the magnet bearings according to the present invention are connected to both support portions to disperse a force applied to the bearings. Permanent motor.
JP35313296A 1996-11-25 1996-11-25 Permanent motor and motor to which it is applied Pending JPH10164822A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP35313296A JPH10164822A (en) 1996-11-25 1996-11-25 Permanent motor and motor to which it is applied

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP35313296A JPH10164822A (en) 1996-11-25 1996-11-25 Permanent motor and motor to which it is applied

Publications (1)

Publication Number Publication Date
JPH10164822A true JPH10164822A (en) 1998-06-19

Family

ID=18428782

Family Applications (1)

Application Number Title Priority Date Filing Date
JP35313296A Pending JPH10164822A (en) 1996-11-25 1996-11-25 Permanent motor and motor to which it is applied

Country Status (1)

Country Link
JP (1) JPH10164822A (en)

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2021125959A (en) * 2020-02-04 2021-08-30 株式会社 片野工業 Thrust generation mechanism
JP2021156334A (en) * 2020-03-26 2021-10-07 株式会社 片野工業 Thrust generation mechanism
JP7153288B1 (en) * 2022-03-01 2022-10-14 株式会社 片野工業 Thrust generation mechanism
JP7154555B1 (en) * 2022-03-01 2022-10-18 株式会社 片野工業 Thrust generation mechanism
WO2023166749A1 (en) * 2022-03-01 2023-09-07 株式会社 片野工業 Thrust generating mechanism

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2021125959A (en) * 2020-02-04 2021-08-30 株式会社 片野工業 Thrust generation mechanism
JP2021156334A (en) * 2020-03-26 2021-10-07 株式会社 片野工業 Thrust generation mechanism
JP7153288B1 (en) * 2022-03-01 2022-10-14 株式会社 片野工業 Thrust generation mechanism
JP7154555B1 (en) * 2022-03-01 2022-10-18 株式会社 片野工業 Thrust generation mechanism
WO2023166749A1 (en) * 2022-03-01 2023-09-07 株式会社 片野工業 Thrust generating mechanism

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