WO2020024094A1 - 磁力马达的结构 - Google Patents

磁力马达的结构 Download PDF

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Publication number
WO2020024094A1
WO2020024094A1 PCT/CN2018/097732 CN2018097732W WO2020024094A1 WO 2020024094 A1 WO2020024094 A1 WO 2020024094A1 CN 2018097732 W CN2018097732 W CN 2018097732W WO 2020024094 A1 WO2020024094 A1 WO 2020024094A1
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WO
WIPO (PCT)
Prior art keywords
magnetic
rotating
output member
sheet body
oscillating
Prior art date
Application number
PCT/CN2018/097732
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English (en)
French (fr)
Inventor
张勋
Original Assignee
张勋
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 张勋 filed Critical 张勋
Priority to PCT/CN2018/097732 priority Critical patent/WO2020024094A1/zh
Publication of WO2020024094A1 publication Critical patent/WO2020024094A1/zh

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Classifications

    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02K—DYNAMO-ELECTRIC MACHINES
    • H02K1/00—Details of the magnetic circuit
    • H02K1/06—Details of the magnetic circuit characterised by the shape, form or construction
    • H02K1/22—Rotating parts of the magnetic circuit

Definitions

  • the invention relates to a structure of a magnetic motor, in particular to a structure of a magnetic motor capable of retaining rotational power.
  • the most commonly mentioned and used alternative energy sources are solar energy, hydraulic power, and wind power generation.
  • the above-mentioned alternative energy sources have certain effects based on the current research results, but in addition to the above-mentioned methods, There are methods to use magnetic energy as a substitute for energy, but as far as current magnetic motors are concerned, the effect of saving power is not complete, so how to use magnetic motors to save power to achieve the effect of generating electricity is a problem that needs to be solved. .
  • the creator of the present invention in view of the above-mentioned shortcomings, collected relevant information, evaluated and considered from various parties, and based on years of experience accumulated in this industry, through continuous trial-and-error and modification, the present invention was finally designed.
  • An object of the present invention is to provide a structure of a magnetic motor capable of storing rotational power.
  • the present invention mainly adopts the following technical means to achieve the above purpose.
  • a structure of a magnetic motor mainly includes: a body; a rotating component, the rotating component is disposed in the base; and the rotating component includes a rotary output member, a swing member, a plurality of magnetic seat components, and at least one A magnetic disc member, the rotary output member is pivotally disposed in the seat body, the magnetic disc member is disposed on the rotary output member, and a plane between the magnetic disc member and the plane of the rotary output member forms a predetermined angle,
  • the swinging member is pivotally connected to the base, and the swinging member is located at one side of the rotary output member.
  • the magnetic seat assembly is disposed on the swinging member, and is positioned corresponding to the magnetic disc member;
  • the magnetic sheets are respectively disposed on the magnetic seat components and are located at a side adjacent to the magnetic disc member.
  • the base body includes a first sheet body, a second sheet body provided at one side of the first sheet body, and a base that simultaneously connects the first sheet body and the second sheet body, and the rotation The component is disposed between the first sheet body and the second sheet body.
  • each magnetic seat assembly includes an elastic element and a oscillating magnetic element.
  • the elastic element is disposed between the oscillating member and the seat body, and the oscillating magnetic element is disposed on the oscillating member and is positioned corresponding to the magnetic disc. Pieces.
  • the magnetic base assembly includes a plurality of oscillating magnetic elements, the oscillating magnetic elements are respectively disposed at two sides of the oscillating member, and are positioned corresponding to the magnetic disc member.
  • the magnetic disc member includes a fixing portion and a plurality of rotating magnetic elements provided on the fixing portion.
  • the rotating magnetic element is provided with at least one element fixing portion, and the rotating magnetic element is fixed in the fixing portion through the element fixing portion.
  • the rotary output member is connected to a power source member.
  • the rotary output member is connected to a power output member.
  • the base body is provided with a braking element connected to the rotary output member.
  • the brake element is one of a drum brake or a disc brake.
  • the present invention utilizes the rotating component and the magnetic isolation sheet to achieve the effect of retaining the rotational power, wherein the plane of the rotary output member and the plane of the magnetic disc member form a predetermined angle, that is, both It is not parallel, but the swinging member is located at one side of the rotating output member, the position of the magnetic seat assembly will correspond to the magnetic disc member, and the magnetic forces at the sides of the magnetic seat assembly and the magnetic disc member adjacent to each other will repel each other.
  • the user needs to use external power to rotate the rotary output member. When the rotary output member rotates, it will drive the magnetic disc member to rotate.
  • the plane of the magnetic disc member and the plane of the rotary output member form a The predetermined angle makes the magnetic disc member closer to the swinging member on one side and farther away from the swinging member on the other side.
  • the magnetic seat member and The magnetic force of the magnetic disc pieces repels, and the magnetic force of the magnetic seat assembly is adjusted by the magnetic isolation plate, so a repulsive force is generated to keep them away from each other, and because the magnetic disc pieces are in a rotating state Therefore, the repulsive force will cooperate with the direction of rotation to form a thrust to promote its continuous rotation, and when one side of the swinging member is pushed away from the magnetic disc member due to the magnetic seat assembly, the other side will swing due to the lever
  • the principle is close to the magnetic disc member, so when the magnetic disc member approaches the other side of the swinging member again, it will generate a thrust force according to the above-mentioned action through the magnetic seat assembly provided on the other side, so that it continues to rotate. In this
  • FIG. 1 is a perspective view of a preferred embodiment of the present invention.
  • FIG. 2 is a power schematic diagram of a preferred embodiment of the present invention.
  • FIG. 3 is a schematic close view of a preferred embodiment of the present invention.
  • FIG. 4 is a schematic diagram of mutual exclusion in a preferred embodiment of the present invention.
  • FIG. 5 is a schematic diagram of a thrust force according to a preferred embodiment of the present invention.
  • FIG. 6 is a perspective view of still another preferred embodiment of the present invention.
  • FIG. 7 is an exploded view of still another preferred embodiment of the present invention.
  • FIG. 8 is a schematic close view of another preferred embodiment of the present invention.
  • FIG. 9 is a schematic diagram of repulsion according to another preferred embodiment of the present invention.
  • FIG. 10 is a schematic thrust diagram of still another preferred embodiment of the present invention.
  • FIG. 11 is a schematic diagram of a brake according to another preferred embodiment of the present invention.
  • FIG. 12 is a schematic diagram of power generation according to another preferred embodiment of the present invention.
  • FIG. 13 is a perspective view of another preferred embodiment of the present invention.
  • FIG. 14 is a schematic diagram (1) of rotation of another preferred embodiment of the present invention.
  • FIG. 15 is a schematic rotation diagram (2) of still another preferred embodiment of the present invention.
  • FIG. 16 is a schematic diagram (1) of pushing according to another preferred embodiment of the present invention.
  • FIG. 17 is a schematic diagram (a) of swinging according to another preferred embodiment of the present invention.
  • FIG. 18 is a schematic diagram of pushing (II) according to another preferred embodiment of the present invention.
  • FIG. 19 is a schematic diagram (II) of another preferred embodiment of the present invention.
  • FIG. 1 is a perspective view of a preferred embodiment of the present invention. It can be clearly seen from the figure that the present invention includes:
  • a base body 1 and a base body 1 include a first sheet body 11, a second sheet body 12 provided at one side of the first sheet body 11, and a base connecting the first sheet body 11 and the second sheet body 12 at the same time. 13;
  • a rotating assembly 2 includes a rotating output member 21, a swinging member 22, two magnetic seat assemblies 221, and a magnetic disc member 3.
  • the rotating output member 21 is pivotally disposed in the base body 1 and located at the first position.
  • the swinging member 22 is pivotally connected to the base body 1, and the magnetic seat assembly 221 is disposed on the swinging member 22 and is located at two sides of the swinging member 22 respectively.
  • the magnetic disc member 3 is disposed on the rotary output member 21, and the plane of the magnetic disc member 3 and the plane of the rotary output member 21 will form a predetermined angle to prevent the two from being parallel to each other;
  • Each magnetic base assembly 221 includes an elastic element 223 and a oscillating magnetic element 222.
  • the elastic element 223 is disposed between the oscillating element 22 and the base body 1, and the oscillating magnetic element 222 is disposed on the oscillating element 22 and is located adjacent to the magnetic disc element 3.
  • the magnetic disc member 3 includes a fixed portion 31 provided on the rotating output member 21 and a plurality of rotating magnetic elements 32 provided in the fixed portion 31, and the rotating magnetic element 32 and the swing magnetic element 222 are adjacent to each other at a side.
  • the magnetic forces thereof repel each other, for example, when the side of the rotating magnetic element 32 adjacent to the swing magnetic element 222 is N pole, the side of the swing magnetic element 222 adjacent to the rotating magnetic element 32 is N pole, and vice versa;
  • Each magnetic base assembly 221 is provided with a magnetic isolation sheet 4 and the magnetic lines of force generated by the adjustable oscillating magnetic element 222.
  • the material of the magnetic isolation sheet 4 is iridium gold.
  • FIG. 1 to FIG. 5 It is a perspective view to a thrust diagram of the preferred embodiment of the present invention.
  • the power source member 14 may be an electric motor or other tools that can drive the rotary member.
  • the power source member 14 is not limited, thereby rotating the rotary output member 21.
  • the rotary output member 21 rotates, That is, the magnetic disc member 3 will be driven to rotate. Because the magnetic disc member 3 and the rotary output member 21 form a predetermined angle, the swing member 22 will be parallel to the plane of the rotary output member 21 when it is not swung and no stress is applied.
  • the two oscillating magnetic elements 222 are both disposed near one side of the second sheet body 12, so the magnetic disc member 3 will be closer to the oscillating magnetic element 222 on one side and farther away from the oscillating magnetic element on the other side. 222, when the magnetic disk member 3 approaches the swing member 22 at a side adjacent to the swing member 22, the rotating magnetic element 32 located on the magnetic disk member 3 will approach the swing magnetic member 222 located on the swing member 22, due to the rotating magnetism Element 32 and swing magnet The magnetic forces between the elements 222 repel each other, so a repulsive force will be generated.
  • the rotating power of the magnetic disc 3 itself will cooperate with the magnetic isolation plate 4 to adjust the magnetic force of the swing magnetic element 222, and then it will break the repulsive force to bring them closer to each other.
  • the repulsive force will push the swing member 22 and the magnetic disc member 3 away from each other, and the repulsive force will form a thrust force in accordance with the direction of rotation, thereby pushing the magnetic disc member 3 and the rotary output member 21 to continue to rotate.
  • the elastic element 223 When the side of the swinging member 22 swings through the force given by the swinging magnetic element 222, the elastic element 223 is squeezed to generate an elastic force transmitted to the swinging member 22, thereby assisting the swinging member 22 to swing and continuously push away from the magnetic disc.
  • the other side of the swinging member 22 is close to the magnetic disk member 3 due to the principle of leverage, and when the magnetic disk member 3 is adjacent to the swinging member 22
  • the repulsive force is converted into a thrust force by the oscillating magnetic element 222, the rotating magnetic element 32, and the magnetic isolation sheet 4 on the other side through the above-mentioned operation method. Therefore, by pushing the magnetic disc 3 and the rotary output 21 to continue rotating, the rotary power can be retained in the rotary component 2. If the power is quickly lost, the power source 14 can be used to replenish the power to extend the rotation time. .
  • FIG. 6 is a perspective view of another preferred embodiment of the present invention to a schematic diagram of power generation.
  • this embodiment is similar to the above embodiment.
  • the number of the magnetic disk members 3a is two, and the two sides of the two magnetic disk members 3a will be located on the same side of the rotary output member 21a, that is, the two magnetic disk members 3a will approach the swing member 22a at the same time when rotating.
  • the rotating magnetic element 32a in the magnetic disc 3a also has a plurality of element fixing portions 321a, which are fixed perforations in this embodiment, and the fixing portion 31a is a groove, so the rotating magnetic element 32a can be snapped in In the groove, the screws are locked into the component fixing portion 321a to be fixed on the fixing portion 31a, and each magnetic seat assembly 221a includes two swinging magnetic elements 222a, which are respectively located at two sides of the swinging member 22a.
  • the positions correspond to the two magnetic disc members 3a, respectively, and a brake element 15a and a power output element 16a are provided on the seat body 1a, and the brake element 15a and the power output element 16a are connected to the rotary output element 21a.
  • the rotating output member 21a When the rotating output member 21a is given rotational power to rotate it, it will drive the two magnetic disc members 3a to rotate, and when the two magnetic disc members 3a are rotated, the two sides of the two magnetic disc members 3a will approach the swing at the same time.
  • Piece 22a and simultaneously uses the repulsive force given by the magnetic disc piece 3a and the swinging magnetic element 222a provided on the swinging piece 22a, and then cooperates with the adjustment and rotation power of the magnetic isolation sheet 4a to convert the repulsive force into thrust to push
  • the magnetic disc member 3a and the rotary output member 21a are continuously rotated.
  • the rotating output member 21a will extend a tube body 17a, and the tube body 17a will rotate synchronously with the rotating output member 21a, and the braking element 15a is provided on the tube body 17a.
  • the brake element 15a can be used to stop the tube body 17a to drive the rotation output member 21a to stop the rotation synchronously, and the brake element 15a can be one of a drum brake or a disc brake, which is not limited, and may be other types Brake way.
  • the power output member 16a in this embodiment includes a generator 161a, a disc 162a, and a track 163a capable of driving the generator 161a and the disc 162a to rotate at the same time, thereby transmitting the rotational power of the rotary output member 21a.
  • a generator 161a capable of driving the generator 161a and the disc 162a to rotate at the same time, thereby transmitting the rotational power of the rotary output member 21a.
  • each magnetic base assembly 221b includes two oscillating magnetic elements 222b, and is located at two sides of the oscillating member 22b, and the magnetic disc member 3b is located between the two oscillating magnetic elements 222b, and the rotating magnetic element 32b are respectively located at two sides of the fixed portion 31b to correspond to the swing magnetic elements 222b at the two sides, respectively, and the magnetic isolation sheet 4b is provided on the swing magnetic element 222b and located between the swing magnetic element 222b and the rotating magnetic element 32b. between.
  • the structure of the magnetic motor of the present invention can improve the conventional technology.
  • the key lies in:
  • the mutually exclusive magnetic force is converted into a thrust force through the magnetic seat assembly 221, the magnetic disc member 3, and the magnetic isolation plate 4, thereby saving the rotational power acting on the rotary output member 21 in the rotating assembly 2.
  • the power source 14 can be used to replenish power.
  • the structure of the magnetic motor of the present invention can really achieve its efficacy and purpose when used.

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  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Dynamo-Electric Clutches, Dynamo-Electric Brakes (AREA)

Abstract

一种磁力马达的结构，主要结构包括一内部设有一转动组件（2）的座体（1），该转动组件（2）包含有一枢设于座体（1）内的旋转输出件（21）、一枢接于座体（1）上的摆动件（22）、多个设于该摆动件（22）上的磁座组件（221）、及至少一设于旋转输出件（21）上的磁性圆盘件（3），且该磁性圆盘件（3）的平面需与旋转输出件（21）的平面形成一预定夹角，而摆动件（22）位于旋转输出件（21）的一侧处，磁座组件（221）上设有多个隔磁片（4）。借上述结构，即可将一旋转动力导入旋转输出件（21）上，让旋转输出件（21）转动，并带动磁性圆盘件（3）转动以配合摆动件（22）、磁座组件（221）、及隔磁片（4）使其持续转动，以保留其转动的动力。

Description

磁力马达的结构 技术领域
本发明涉及一种磁力马达的结构，尤指一种可保留旋转动力的磁力马达的结构。
背景技术
自工业革命以来，许许多多的机械带给人民快速的进步，有人说近百年来人类的进步速度已经是之前几千年来的十数倍，但是相对的，由于各种机械所需要的能源，也导致近百年来对于环境破坏及能源的撷取也是之前几千年来的十数倍。
例如对于石油及天然气等大量的开采，导致存量日益减少，甚至有些供应区快要接近枯竭的状态，而燃烧石油及天然气来产生电力，也造成了相当严重的空气污染以及温室效应的状况，所以如何寻找替代能源即为目前相当热门的议题。
目前而言最常提到并使用的替代能源有太阳能、水力、及风力发电等，上述的替代能源，以目前的研究结果都是有一定程度的效果，但是除了上述的几种方式以外，还有利用磁能来做为代替能源的方法，但就目前的磁力马达而言，其保存动力的效果都还不够完全，所以如何利用磁力马达保存动力借此达到发电的效果，即为需要解决的问题。
所以，要如何解决上述习用的问题与缺失，即为本发明的申请人与从事此行业的相关厂商所亟欲研究改善的方向所在。
故，本发明的创作人有鉴于上述缺失，乃搜集相关资料，经由多方评估及考虑，并以从事于此行业累积之多年经验，经由不断试作及修改，终设计出本发明。
发明内容
本发明的目的在于提供一种能够保存旋转动力的磁力马达的结构。
基于此，本发明主要采用下列技术手段，来实现上述目的。
一种磁力马达的结构，主要包含：一座体；一转动组件，该转动组件设于该座体中，而该转动组件包含有一旋转输出件、一摆动件、多个磁座组件、及至少一磁性圆盘件，该旋转输出件枢设于该座体内，该磁性圆盘件设于该旋转输出件上，且该磁性圆盘件的平面与该旋转输出件的平面形成一预定夹角，该摆动件枢接于该座体上，且该摆动件位于该旋转输出件之一侧处，所述磁座组件设于该摆动件上，并位置对应该磁性圆盘件；及多个隔磁片，所述隔磁片分别设于所述磁座组件上，并位于邻近该磁性圆盘件的一侧处。
进一步，该座体包含有一第一片体、一设于该第一片体一侧处的第二片体、及一同时连接该第一片体与该第二片体的底座，而该转动组件设于该第一片体及该第二片体之间。
进一步，各磁座组件包含有一弹性元件及一摆动磁性元件，该弹性元件设于该摆动件及该座体之间，而该摆动磁性元件设于该摆动件上，并位置对应该磁性圆盘件。
进一步，该磁座组件包含有多个摆动磁性元件，所述摆动磁性元件分别设于该摆动件的两侧处，并位置对应该磁性圆盘件。
进一步，该磁性圆盘件包含有一固定部、及多个设于该固定部上的旋转磁性元件。
进一步，该旋转磁性元件上设有至少一元件固定部，该旋转磁性元件通过所述元件固定部固定于该固定部内。
进一步，该旋转输出件连接一动力来源件。
进一步，该旋转输出件连接一动力输出件。
进一步，该座体上设有一连接该旋转输出件的煞车元件。
进一步，该煞车元件为鼓式煞车或碟式煞车其中之一。
采用上述技术手段后，本发明利用转动组件及隔磁片，使其达到能保留旋转动力的效果，其中旋转输出件的平面及磁性圆盘件的平面会形成一预定夹角，也就是二者并不会平行，而摆动件位于旋转输出件的一侧处，磁座组件的位置则会对应磁性圆盘件，且磁座组件与磁性圆盘件相互邻近的一侧处的磁力会互相排斥，借由上述的结构，用户需先利用外部动力使旋转输出件转动，当旋转输出件转动时，即会带动磁性圆盘件转动，由于磁性圆盘件的平面与旋转输出件的平面形成一预定夹角，因此磁性圆盘件会有一侧较为邻近摆动件，另一侧处则会较为远离摆动件，当磁性圆盘件接近设于摆动件上的磁座组件时，由于磁座组件及磁性圆盘件的磁力相斥，且磁座组件的磁力会经由隔磁片调整，故会产生一相斥力使其相互远离，且因为磁性圆盘件处于旋转的状态下，因此相斥力会配合旋转的方向形成一推力，以推动其持续旋转，而当摆动件其中一侧因磁座组件被推离磁性圆盘件时，其另一侧处即会因杠杆摆动的原理靠近磁性圆盘件，故当磁性圆盘件再次接近摆动件的另一侧时，就会经由设于另一侧上的磁座组件再次依上述的动作产生一推力，使其持续转动，如此一来就可经由磁力的相互作用下，将旋转的动力保存于转动组件中。
借由上述技术，可针对习用的磁力马达保存动力的效果较差的问题点加以突破，达到上述优点。
附图说明
图1为本发明较佳实施例的立体图。
图2为本发明较佳实施例的动力示意图。
图3为本发明较佳实施例的接近示意图。
图4为本发明较佳实施例的相斥示意图。
图5为本发明较佳实施例的推力示意图。
图6为本发明再一较佳实施例的立体图。
图7为本发明再一较佳实施例的分解图。
图8为本发明再一较佳实施例的接近示意图。
图9为本发明再一较佳实施例的相斥示意图。
图10为本发明再一较佳实施例的推力示意图。
图11为本发明再一较佳实施例的煞车示意图。
图12为本发明再一较佳实施例的发电示意图。
图13为本发明又一较佳实施例的立体透视图。
图14为本发明又一较佳实施例的转动示意图（一）。
图15为本发明又一较佳实施例的转动示意图（二）。
图16为本发明又一较佳实施例的推动示意图（一）。
图17为本发明又一较佳实施例的摆动示意图（一）。
图18为本发明又一较佳实施例的推动示意图（二）。
图19为本发明又一较佳实施例的摆动示意图（二）。
【符号说明】
座体1、1a
第一片体11
第二片体12
底座13
动力来源件14
煞车元件15a
动力输出件16a
发电机161a
圆盘162a
履带163a
管体17a
转动组件2
旋转输出件21、21a
摆动件22、22a、22b
磁座组件221、221a、221b
摆动磁性元件222、222a、222b
弹性元件223
磁性圆盘件3、3a、3b
固定部31、31a、31b
旋转磁性元件32、32a、32b
元件固定部321a
隔磁片4、4a、4b。
具体实施方式
为达成上述目的及功效，本发明所采用的技术手段及构造，兹绘图就本发明较佳实施例详加说明其特征与功能如下，以利完全了解。
请参阅图1所示，为本发明较佳实施例的立体图，由图中可清楚看出本发明包括：
一座体1，座体1包含有一第一片体11、一设于第一片体11一侧处的第二片体12、及一同时连接第一片体11及第二片体12的底座13；
一转动组件2，转动组件2包含有一旋转输出件21、一摆动件22、二磁座组件221、及一磁性圆盘件3，其中旋转输出件21枢设于座体1内，并位于第一片体11及第二片体12之间，而摆动件22枢接于座体1上，磁座组件221则设于摆动件22上，并分别位于摆动件22相对应的两侧处，磁性圆盘件3设于旋转输出件21上，且磁性圆盘件3的平面与旋转输出件21的平面会形成一预定夹角，借此使其二者不会相互平行；
各磁座组件221包含有一弹性元件223及一摆动磁性元件222，弹性元件223设于摆动件22及座体1之间，而摆动磁性元件222设于摆动件22上位于邻近磁性圆盘件3的一侧处；
磁性圆盘件3包含一设于旋转输出件21上的固定部31、及多个设于固定部31内的旋转磁性元件32，且旋转磁性元件32与摆动磁性元件222相互邻近的一侧处，其磁力会相互排斥，例如旋转磁性元件32邻近摆动磁性元件222的一侧处为N极时，摆动磁性元件222邻近旋转磁性元件32的一侧处亦为N极，反之则亦然；及
各磁座组件221上皆设有一隔磁片4，可调整的摆动磁性元件222所产生的磁力线，并且于本实施例中，隔磁片4的材质为铱金。
借由上述的说明，已可了解本发明的结构，而依据这个结构的对应配合，即可将旋转的动能保存于转动组件2之中，而详细的解说将于下述说明。
请同时配合参阅图1至图5所示，为本发明较佳实施例的立体图至推力示意图，借由上述构件组构时，由图中可清楚看出，用户须先将转动组件2中的旋转输出件21连接一动力来源件14，动力来源件14可为电动马达或其他可带动其旋转的工具，其并不设限，借此使旋转输出件21转动，当旋转输出件21转动时即会带动磁性圆盘件3转动，由于磁性圆盘件3与旋转输出件21形成一预定夹角，而摆动件22于未摆动及未给予应力时，会与旋转输出件21的平面平行，且二摆动磁性元件222皆设于邻近第二片体12的一侧处，故磁性圆盘件3即会有一侧处较为邻近摆动磁性元件222，而另一侧处即会较为远离摆动磁性元件222，当磁性圆盘件3邻近摆动件22的一侧处接近摆动件22时，位于磁性圆盘件3上的旋转磁性元件32即会靠近位于摆动件22上摆动磁性元件222，因旋转磁性元件32及摆动磁性元件222之间的磁力相斥，故会产生一相斥力，磁性圆盘件3本身旋转的动力会配合隔磁片4调整摆动磁性元件222的磁力后，会突破相斥力使其相互接近，之后相斥力会再将摆动件22及磁性圆盘件3相互推离，且相斥力会配合转动的方向形成一推力，借此推动磁性圆盘件3及旋转输出件21继续转动。
当摆动件22一侧处经由摆动磁性元件222给予的力道摆动时，即会挤压弹性元件223以产生一弹力传输至摆动件22上，借此辅助摆动件22摆动并持续推离磁性圆盘件3，同时，当摆动件22一端处远离磁性圆盘件3时，摆动件22的另一侧处则会因杠杆原理靠近磁性圆盘件3，而当磁性圆盘件3邻近摆动件22的一侧处旋转至摆动件22的另一侧处时，亦会经由上述的动作方式，经由另一侧的摆动磁性元件222、旋转磁性元件32、及隔磁片4将相斥力转换成推力，借此推动磁性圆盘件3及旋转输出件21持续旋转，即可将旋转动力保留于转动组件2中，若动力快流失时，可再使用动力来源件14补充动力，以延长于旋转时间。
再请同时配合参阅图6至图12所示，为本发明再一较佳实施例的立体图至发电示意图，由图中可清楚看出，本实施例与上述实施例为大同小异，于本实施例中，磁性圆盘件3a的数量为二，并且其二者邻近摆动件22a的一侧会位于旋转输出件21a上相同之一边，也就是二磁性圆盘件3a旋转时会同时靠近摆动件22a，而磁性圆盘件3a中的旋转磁性元件32a上还具有多个元件固定部321a，于本实施例中为固定穿孔，而固定部31a则为凹槽，故可将旋转磁性元件32a卡入凹槽内，再将螺丝锁入元件固定部321a中，使其固定于固定部31a上，而各磁座组件221a包含有二摆动磁性元件222a，并分别位于摆动件22a的两侧处，其位置分别对应二磁性圆盘件3a，再于座体1a上设有一煞车元件15a及一动力输出件16a，且煞车元件15a及动力输出件16a皆连接于旋转输出件21a上。
当给予旋转输出件21a旋转动力以使其旋转时，会带动二磁性圆盘件3a转动，而两个磁性圆盘件3a转动时，其二者邻近摆动件22a的一侧处会同时靠近摆动件22a，并同时利用磁性圆盘件3a及设于摆动件22a上的摆动磁性元件222a给予的相斥力，再配合隔磁片4a的调整及旋转的动力来将相斥力转化成推力，以推动磁性圆盘件3a及旋转输出件21a持续转动。
旋转输出件21a会延伸出一管体17a，且管体17a会与旋转输出件21a同步旋转，而煞车元件15a即设置于管体17a上，当使用者需要停下旋转输出件21a时，即可使用煞车元件15a来停止管体17a，以带动旋转输出件21a同步停止旋转，且煞车元件15a可为鼓式煞车或碟式煞车其中之一，其并不设限，亦可为其他种类的煞车方式。
而动力输出件16a于本实施例中为包含有一发电机161a、一圆盘162a、及一能同时带动发电机161a及圆盘162a转动的履带163a，借此将旋转输出件21a的旋转动力传导至发电机161a中，以达到发电的效果。
再请同时配合参阅图13至图19所示，为本发明又一较佳实施例的立体透视图至摆动示意图（二），由图中可清楚看出，本实施例与上述实施例为大同小异，于本实施例中，各磁座组件221b包含有二摆动磁性元件222b，并分别位于摆动件22b的两侧处，且磁性圆盘件3b位于二摆动磁性元件222b之间，且旋转磁性元件32b分别位于固定部31b的两侧处，以分别对应两侧处的摆动磁性元件222b，而隔磁片4b则会设于摆动磁性元件222b上，并位于摆动磁性元件222b及旋转磁性元件32b之间。
当动作时，可先参考图14至图16所示，先给予动力让磁性圆盘件3b旋转，并如图16所示，当磁性圆盘件3b转动至该角度时，其中一侧的旋转磁性元件32b会靠近其中一侧的摆动磁性元件222b，并经由隔磁片4b调整摆动磁性元件222b的磁力线，借此将其相斥的力量收束并配合旋转的动力转化为推力，以推动磁性圆盘件3b转动。
再参考图17所示，当相斥力被转化为推力借此带动磁性圆盘件3b转动时，另一侧处的旋转磁性元件32b即会以相斥力挤压其对应位置上的摆动磁性元件222b，借此推动摆动件22b配合磁性圆盘件3b的旋转方向摆动。
再参考图18所示，当磁性圆盘件3b旋转至此处时，就会经由另一侧处的摆动磁性元件222b给予的磁力，经由隔磁片4b调整后，使相斥的磁力转化为推力，再次推动磁性圆盘件3b持续转动，并如图19所示，当磁性圆盘件3b转动时，会再推摆动件22b依照磁性圆盘件3b旋转的方向摆动，借此回到如图16的态样，并重复动作将旋转动力保留于其中。
以上所述仅为本发明的较佳实施例而已，非因此即局限本发明的专利范围，故凡运用本发明说明书及图式内容所为的简易修饰及等效结构变化，均应同理包含于本发明之专利范围内。
所以，本发明的磁力马达的结构可改善习用的技术关键在于：
经由磁座组件221、磁性圆盘件3、及隔磁片4来将相互排斥的磁力转化为推力，借此将作用于旋转输出件21上的旋转动力保存于转动组件2中，若动力快流失时，可再使用动力来源件14补充动力。
综上所述，本发明的磁力马达的结构于使用时，确实能达到其功效及目的。

Claims (10)

  1. 一种磁力马达的结构，其特征在于，主要包含：
    一座体；
    一转动组件，该转动组件设于该座体中，而该转动组件包含有一旋转输出件、一摆动件、多个磁座组件、及至少一磁性圆盘件，该旋转输出件枢设于该座体内，该磁性圆盘件设于该旋转输出件上，且该磁性圆盘件的平面与该旋转输出件的平面形成一预定夹角，该摆动件枢接于该座体上，且该摆动件位于该旋转输出件之一侧处，所述磁座组件设于该摆动件上，并位置对应该磁性圆盘件；及
    多个隔磁片，所述隔磁片分别设于所述磁座组件上，并位于邻近该磁性圆盘件的一侧处。
  2. 如权利要求1所述的磁力马达的结构，其特征在于：该座体包含有一第一片体、一设于该第一片体一侧处的第二片体、及一同时连接该第一片体与该第二片体的底座，而该转动组件设于该第一片体及该第二片体之间。
  3. 如权利要求1所述的磁力马达的结构，其特征在于：各磁座组件包含有一弹性元件及一摆动磁性元件，该弹性元件设于该摆动件及该座体之间，而该摆动磁性元件设于该摆动件上，并位置对应该磁性圆盘件。
  4. 如权利要求1所述的磁力马达的结构，其特征在于：该磁座组件包含有多个摆动磁性元件，所述摆动磁性元件分别设于该摆动件的两侧处，并位置对应该磁性圆盘件。
  5. 如权利要求1所述的磁力马达的结构，其特征在于：该磁性圆盘件包含有一固定部、及多个设于该固定部上的旋转磁性元件。
  6. 如权利要求5所述的磁力马达的结构，其特征在于：该旋转磁性元件上设有至少一元件固定部，该旋转磁性元件通过所述元件固定部固定于该固定部内。
  7. 如权利要求1所述的磁力马达的结构，其特征在于：该旋转输出件连接一动力来源件。
  8. 如权利要求1所述的磁力马达的结构，其特征在于：该旋转输出件连接一动力输出件。
  9. 如权利要求1所述的磁力马达的结构，其特征在于：该座体上设有一连接该旋转输出件的煞车元件。
  10. 如权利要求9所述的磁力马达的结构，其特征在于：该煞车元件为鼓式煞车或碟式煞车其中之一。
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CN105281488A (zh) * 2014-05-28 2016-01-27 许博吉 驱动旋转装置
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CN106936292A (zh) * 2017-04-25 2017-07-07 邢万成 一种磁力同极相斥式的动力机器
TWM569521U (zh) * 2018-06-01 2018-11-01 張勛 Magnetic motor structure

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CN101814872A (zh) * 2010-04-15 2010-08-25 顾庆良 磁悬浮磁能动力机
US9337712B2 (en) * 2011-03-04 2016-05-10 Allen G. Storaasli Eccentric magnetic gear system based on repulsion
CN202957740U (zh) * 2012-11-22 2013-05-29 丁金助 磁能传动装置及具有磁能传动装置的发电机
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