JPS61218360A - Permanent magnet prime mover - Google Patents

Permanent magnet prime mover

Info

Publication number
JPS61218360A
JPS61218360A JP5891785A JP5891785A JPS61218360A JP S61218360 A JPS61218360 A JP S61218360A JP 5891785 A JP5891785 A JP 5891785A JP 5891785 A JP5891785 A JP 5891785A JP S61218360 A JPS61218360 A JP S61218360A
Authority
JP
Japan
Prior art keywords
permanent magnets
reverse
force
permanent magnet
pole
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
JP5891785A
Other languages
Japanese (ja)
Inventor
Shin Yoneda
伸 米田
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 JP5891785A priority Critical patent/JPS61218360A/en
Publication of JPS61218360A publication Critical patent/JPS61218360A/en
Pending legal-status Critical Current

Links

Classifications

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

Abstract

PURPOSE:To save energy by oppositely disposing permanent magnets, reducing reverse repelling force and reverse attracting force to increase forward repelling force and forward attracting force, thereby obtaining a motion of the prescribed direction even without input. CONSTITUTION:A plurality of permanent magnets 2, 3 are sequentially mounted in reverse polarity on a stationary side nonmagnetic plate 5, and opposed to a permanent magnet 1 mounted on a moving side nonmagnetic plate 4. A magnetic metal 7 such as an iron plate is mounted at least on either one side permanent magnet to reduce repelling force or attracting force of the direction reverse to the prescribed moving direction 6. The gap size of the permanent magnets may be increased or the shapes may be altered inserted of mounting the metal 7. Thus, since the moving force of the prescribed direction is obtained only with the permanent magnets, energy can be saved.

Description

【発明の詳細な説明】 本発明は永久磁石による原動機関に関するものであり、
主として、永久磁石を使用して強力な無人力運動を発生
させる原動機の提供を目的とする。
[Detailed Description of the Invention] The present invention relates to a power engine using a permanent magnet,
The main objective is to provide a prime mover that uses permanent magnets to generate powerful unmanned motion.

従来の永久磁石による運動においては、無人力の場合、
逆反撥力、進級引力の共存する故に一方向運動の発生は
、困難であった。
In conventional permanent magnet motion, in the case of unmanned operation,
It was difficult to generate unidirectional motion because of the coexistence of reverse repulsion and progressive attraction.

本発明においては、主極(こ接して、鉄板、磁性金属、
永久磁石等を附設するか、磁極の接近部、離脱部分の形
状、相互間隔等を、変化させることにより、逆反撥力、
逆吸引力等を減少させ、順方向反撥力、順方向吸引力を
出力とする、一方向運動を可能とした特徴をもつもので
ある。
In the present invention, the main pole (in contact with iron plate, magnetic metal,
Reverse repulsive force,
It has the feature of reducing reverse attraction force, outputting forward repulsion force and forward attraction force, and enabling unidirectional movement.

本発明における運動の発生方法について、第1図、第2
図、第3図の実施例により説明する。
Regarding the method of generating motion in the present invention, FIGS.
This will be explained with reference to the embodiments shown in FIGS.

第1図(イ)は、4.の運動板に、1.の永久磁石単極
を設け、対向して5.の固定板に、2.の3゜の、N%
 S%の複合棒を設けた配置であり、本配置の特徴は、
運動有効距離を長くすることが出来る点にある。
Figure 1 (a) shows 4. On the exercise board, 1. A permanent magnet single pole is provided and facing 5. on the fixed plate of 2. of 3°, N%
This is an arrangement with S% compound rods, and the features of this arrangement are:
The point is that the effective movement distance can be increased.

また2、3.の固定側極暑こ附設した7、の鉄板は、1
.の運動側棒が他の並設極の推力(こより2の同極性反
撥極(こむかい接近進入まる場合、抵抗となる逆反撥力
の、約75%を減少させる効果がある。主極(こ鉄板を
附設すれば、主極の、反対極性に鉄板は磁化され、補助
永久磁石を附設したと同様の特性となる。磁力の制御は
、鉄板の寸法、質量等の選択により拡い範囲の調整が可
能である。
Also 2, 3. The iron plate of 7, which has a very hot plate attached to the fixed side, is 1
.. When the moving side rod approaches the thrust of other parallel poles (the same polar repulsive pole of 2), it has the effect of reducing about 75% of the reverse repulsive force that becomes resistance. If an iron plate is attached, the iron plate will be magnetized with the opposite polarity to the main pole, and the characteristics will be the same as when an auxiliary permanent magnet is attached.Magnetic force can be controlled over a wide range by selecting the dimensions, mass, etc. of the iron plate. is possible.

1、の運動価が、2.の反撥極の中心を通過した時点よ
り、6.の運動方向にむかい、2.の反撥極と、3.の
吸引極の合成力が働き、3.の吸引極の中心線を瞬時番
こ通過する。通過時点において、3.の吸引極より発生
する進級引を7゜の鉄板の磁束偏向効果をこより、逆推
力の約75%を減少させて通過することになる、故に通
過時の吸引力船こよる損失は約25%となる、実験では
、18.、!の極面積を有するフェライト磁石の場合、
推力I Kgcmをもって運動距離8 cmを記録した
The kinetic value of 1 is 2. From the point of passing through the center of the repulsive pole of 6. towards the direction of motion, 2. a repulsive pole; 3. The combined force of the attractive poles works, and 3. momentarily passes through the center line of the attraction pole. At the time of passing, 3. Due to the magnetic flux deflection effect of the 7° steel plate, the advancing pull generated from the attraction pole reduces approximately 75% of the reverse thrust, and the loss due to the attraction ship during passage is approximately 25%. In the experiment, 18. ,! For a ferrite magnet with a pole area of
A movement distance of 8 cm was recorded with a thrust of I Kgcm.

故に、損失25%を差引して有効推力は、75.0 g
cm  となる。
Therefore, after deducting the 25% loss, the effective thrust is 75.0 g.
cm.

更に、第1図(()の配置を、直線状tこ、100組設
置した場合、75Kgcmの推力となり、運動側の速度
を毎秒1mとすれば、75Kpms  実効出力60%
 として、約400Wの出力が可能となる。
Furthermore, if 100 sets of the arrangement shown in Figure 1 (() are installed in a straight line, the thrust will be 75 Kgcm, and if the speed on the moving side is 1 m/s, it will be 75 Kpms, effective output 60%.
As a result, an output of approximately 400W is possible.

尚、第1図(イ)において、固定側と運動側の磁極配置
を、交替設置とするも同一効果である。
In addition, in FIG. 1(A), the same effect can be obtained even if the magnetic poles on the stationary side and the moving side are arranged alternately.

運動を停止させるには、対向磁極距離を引放すことによ
り停止するが、手動ブレーキ、誘導発電ブレーキ等によ
り停止させることが有効である。また、復動運動をさせ
るには、固定側磁極のN、S極を反転さすことにより可
能となる。
The movement can be stopped by separating the distance between the opposing magnetic poles, but it is effective to stop the movement by using a manual brake, induction braking, or the like. Furthermore, the double motion can be achieved by reversing the N and S poles of the fixed side magnetic poles.

第1図仲)は、反撥型単極対向方式であり、第1図(ハ
)は、吸引型単極対向方式であるが、単極対向の場合運
動距離は、3cmと短かくなるが推力は同一である。(
ロ))図、(ハ)図は共に7゜の鉄板を附設した逆推力
減少方式である。
Figure 1 (middle) is a repulsion type monopolar facing system, and Figure 1 (c) is an attraction type single polar facing system. In the case of single pole facing, the movement distance is shortened to 3 cm, but the thrust is are the same. (
Figures b)) and (c) both show a reverse thrust reduction method with a 7° iron plate attached.

第2図、(イ)は、極面形状を変化させて接近時の逆反
撥力を減少させる方式である。
FIG. 2, (a) shows a method in which the shape of the pole surface is changed to reduce the reverse repulsive force when approaching.

第2図(ロ)は、2.の固定側、反撥極を斜角配置とし
て、進入時の反撥抵抗を減少させる配置モある。第2図
(ハ)は、極面形状を変化させて、反撥抵抗を減少させ
る方式であり、更に14、の棒保持板にバネを使用し、
進入時の逆反撥力により、極間隔を拡大して、抵抗を減
少さす方式である。
Figure 2 (b) shows 2. There is an arrangement in which the repulsion poles are arranged at an oblique angle on the fixed side to reduce the repulsion resistance upon entry. Figure 2 (c) shows a method of reducing repulsion resistance by changing the shape of the pole surface, and further uses a spring for the rod holding plate 14.
This method uses reverse repulsive force upon entry to expand the pole spacing and reduce resistance.

バネ方式においては、運動側にカムを設はカムの高低に
連動させて、極間距離を変化する方式も有効である。極
間距離変動方式においては、フライホイルを使用し蓄勢
運動をさせ回転推力を出力とする方法も可能である。
In the spring method, a method in which a cam is provided on the moving side and the distance between poles is changed in conjunction with the height of the cam is also effective. In the pole-to-pole distance variation method, it is also possible to use a flywheel to perform energy storage motion and output rotational thrust.

第3図(イ)は、単極相互のT字型配置であるが、1.
の運動側磁極が長い故に、第1図(イ)の複合配置の特
性に同一である。更をこ、固定側磁極を電磁石とした場
合を示す方式である。
Figure 3 (a) shows a T-shaped arrangement of single poles.
Since the magnetic pole on the moving side is long, the characteristics are the same as those of the composite arrangement shown in FIG. 1(a). Furthermore, this method shows the case where the fixed side magnetic pole is an electromagnet.

入力電源を極性反転方式移相入力゛方式とするも有効で
ある。
It is also effective to use a polarity inversion type phase shift input type input power source.

第3図(ロ)は、7.の鉄板付設方法により、単極反撥
方式を回転型としたものであり、推力を増大さすには、
軸方向に多数並設とする方法が有効である。N、Sin
こよる、複合極配置方式も°可能である。
Figure 3 (b) shows 7. This is a rotating version of the single-pole repulsion method due to the method of attaching the steel plate, and to increase the thrust,
An effective method is to install a large number of them in parallel in the axial direction. N.Sin
Accordingly, a composite pole arrangement method is also possible.

第1む!ばU相#友媛面転逢動を歯車W′酢七・て合成
出力とした方式である。
No. 1! This is a system in which the U-phase #friends-face transfer motion is combined with the gear W' and a combined output.

上記の各方式は、全て同一の運動原理によるも°のであ
り、各方式を単独で使用するか、各方式の複合設置とし
て製造する等によって永久磁石原動機を成立させるもの
である。
All of the above-mentioned methods are based on the same principle of motion, and a permanent magnet prime mover can be established by using each method alone or by manufacturing a combined installation of each method.

′ 更に、フェライト磁石にかえて、アルニコ磁石、希
土類コバルト磁石等を使用するか、多数極並設等により
大容量原動機の製造も可能であり、無人力において、発
電機の駆□動、車輌、船舶等の動力機関として作動する
ことが可能となり、直線運動としては、永久磁石等(こ
よる反撥源」二方式を並用すれば、全く無人力のリニア
モーターカーの製造も可能となリ、省工序ルギー問題に
、絶大な効果を有する重要な発明である。
Furthermore, it is also possible to manufacture large-capacity prime movers by using alnico magnets, rare earth cobalt magnets, etc. instead of ferrite magnets, or by arranging multiple poles in parallel. It is now possible to operate as a power engine for ships, etc., and for linear motion, if two methods such as permanent magnets (repulsion sources) are used together, it is possible to manufacture completely unmanned linear motor cars. This is an important invention that has a tremendous effect on solving the engineering problem.

【図面の簡単な説明】[Brief explanation of the drawing]

第1図、第2図、第3図は実施例の動作説明図である。 名称番号は各図共通である。 FIG. 1, FIG. 2, and FIG. 3 are explanatory diagrams of the operation of the embodiment. The name number is common to each figure.

Claims (1)

【特許請求の範囲】 永久磁石と永久磁石か、永久磁石と電磁石 等の磁界を対向させて、固定側と運動側に設置し、永久
磁石の磁極に接して、鉄板等の磁性金属を附設するか、
対向磁極の間隔、形状等を変化する等により、運動方向
に対する、逆反撥力、逆吸引力等を減少させて一方向運
動を発生させ、固定側と運動側に、対向磁極を多数並設
することにより、直進運動、回転運動等を連続させる如
くして成る永久磁石原動機。
[Claims] Permanent magnets or permanent magnets or permanent magnets and electromagnets are installed on the stationary side and the moving side with their magnetic fields facing each other, and a magnetic metal such as an iron plate is attached in contact with the magnetic poles of the permanent magnets. mosquito,
By changing the spacing, shape, etc. of the opposing magnetic poles, the reverse repulsive force, reverse attractive force, etc. in the direction of movement are reduced to generate unidirectional movement, and a large number of opposing magnetic poles are arranged in parallel on the fixed side and the moving side. A permanent magnet prime mover that continuously performs linear motion, rotational motion, etc.
JP5891785A 1985-03-23 1985-03-23 Permanent magnet prime mover Pending JPS61218360A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP5891785A JPS61218360A (en) 1985-03-23 1985-03-23 Permanent magnet prime mover

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP5891785A JPS61218360A (en) 1985-03-23 1985-03-23 Permanent magnet prime mover

Publications (1)

Publication Number Publication Date
JPS61218360A true JPS61218360A (en) 1986-09-27

Family

ID=13098172

Family Applications (1)

Application Number Title Priority Date Filing Date
JP5891785A Pending JPS61218360A (en) 1985-03-23 1985-03-23 Permanent magnet prime mover

Country Status (1)

Country Link
JP (1) JPS61218360A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO1992022123A1 (en) * 1991-06-03 1992-12-10 Magma Corporation Magnetically driven motor
WO2014077322A1 (en) * 2012-11-15 2014-05-22 Tochihira Hirotoshi Magnet motor and drive mechanism
JP5727079B1 (en) * 2014-09-09 2015-06-03 博敏 栃平 Magnet drive mechanism

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO1992022123A1 (en) * 1991-06-03 1992-12-10 Magma Corporation Magnetically driven motor
WO2014077322A1 (en) * 2012-11-15 2014-05-22 Tochihira Hirotoshi Magnet motor and drive mechanism
JP2014100027A (en) * 2012-11-15 2014-05-29 Hirotoshi Tochihira Magnet motor and drive mechanism
JP5727079B1 (en) * 2014-09-09 2015-06-03 博敏 栃平 Magnet drive mechanism
WO2016039145A1 (en) * 2014-09-09 2016-03-17 博敏 栃平 Magnet driving mechanism

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