JP3123573U

JP3123573U - Multi-pole power generator

Info

Publication number: JP3123573U
Application number: JP2006003474U
Authority: JP
Inventors: 蒼林許; 恒毅林; 頌剛林; 曜仲蔡
Original assignee: 良峰塑膠機械股▲ふん▼有限公司
Priority date: 2006-05-10
Filing date: 2006-05-10
Publication date: 2006-07-20
Anticipated expiration: 2016-05-10

Abstract

【課題】多磁極発電装置の提供。
【解決手段】本考案は一種の多磁極発電装置に関わるもので、整流蓄電装置に接続して、適切な電力を電子製品に提供する。この発電装置は主に外周面に誘導コイルを巻き込む中空搬送体、該搬送体内部に一つ以上の摺動磁石を該中空搬送体両端部の外周面に設ける。Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設ける。一つの特徴は、該摺動磁石に重り部材を設け、誘導コイルを完全にカットして、電磁誘導効率を向上する。もう一つの特徴は、該中空搬送体の内壁と摺動磁石の外周面は異なる輪郭の組み合わせにより、より良い摺動空間を提供し、摺動磁石の摺動過程における空気圧縮抵抗力を軽減できる。
【選択図】図４A multi-pole power generator is provided.
The present invention relates to a kind of multi-pole power generation device, and is connected to a rectifying power storage device to provide appropriate power to an electronic product. In this power generation apparatus, a hollow carrier in which an induction coil is mainly wound on an outer peripheral surface, and one or more sliding magnets are provided on the outer peripheral surfaces of both ends of the hollow carrier. N pole and S pole are provided in accordance with the same pole magnet of the sliding magnet provided at the end. One feature is that a weight member is provided on the sliding magnet, and the induction coil is completely cut to improve electromagnetic induction efficiency. Another feature is that a combination of different contours on the inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet provides a better sliding space and can reduce air compression resistance in the sliding process of the sliding magnet. .
[Selection] Figure 4

Description

本考案は一種の発電装置、特に一種の揺動式磁石の同性反発特性により、電気を発生する多磁極発電装置に関わるものである。 The present invention relates to a kind of power generation apparatus, and more particularly to a multi-pole power generation apparatus that generates electricity due to the same repulsive characteristics of a kind of oscillating magnet.

情報技術の進歩につれて、電子消費製品もますます普及して来た。特に、電気を提供する電池は使用寿命のほか、環境保護対策したグリーン製品が要求される。このため、電池の蓄電、充電能力の改良、または繰り返して使用可能なニッケル水素電池、リチウムイオン電池、太陽電池などの製品は、すべて環境保護対策に配慮したものである。 As information technology has advanced, electronic consumer products have become increasingly popular. In particular, batteries that provide electricity are required to have green products with environmental protection measures in addition to their service life. For this reason, all products such as nickel-metal hydride batteries, lithium ion batteries, solar batteries, etc. that can be used to recharge batteries, improve their storage capacity, or can be used repeatedly, take environmental protection measures into consideration.

本考案による発電装置は、一種の揺動式多磁極発電装置に関わるものである。主に磁石の同性反発特性を利用し、誘導コイルを備える経路の両端部に固定磁石を設け、経路の内部に摺動磁石を設けて、往復運動により誘導コイル内部に磁場を変化することにより、誘導起電力を発生し電気を提供する。この種の設計は特許文献１で公開されている。 The power generator according to the present invention relates to a kind of oscillating multi-pole power generator. By mainly using the repulsive characteristics of the magnet, by providing fixed magnets at both ends of the path with the induction coil, by providing sliding magnets inside the path, and by changing the magnetic field inside the induction coil by reciprocating motion, Generates electromotive force and provides electricity. This type of design is disclosed in US Pat.

しかしながら、前記公知技術の多磁極発電装置の磁石組は密閉したブッシングに組み込まれていたため、磁石組がブッシング内部での摺動は空気圧縮抵抗力により、磁石組の摺動エネルギーを妨げるばかりでなく、誘導起電力の発生に影響を与える。さらに、誘導コイルは電磁誘導法則により、摺動磁石の摺動方向において、反対磁場を形成するため、発生する誘導起電力が大きいほど、反対磁場に対する影響が大きい。よって、摺動磁石組の摺動エネルギーが妨げられ、揺動発電の不順と磁力線カットに影響する。そのため、特許文献２、特許文献３、特許文献４において、それぞれに解決手段が開示されている。複数の磁石を串刺して一体化することにより、磁石全体の重量を向上するほか、磁性液体を潤滑剤にとして、磁石と運動経路との摩擦力を低減して、磁石組の摺動エネルギーを向上している。 However, since the magnet assembly of the known multi-pole power generator is incorporated in a sealed bushing, the sliding of the magnet assembly inside the bushing not only hinders the sliding energy of the magnet assembly due to the air compression resistance force. Affects the generation of induced electromotive force. Furthermore, since the induction coil forms an opposite magnetic field in the sliding direction of the sliding magnet according to the electromagnetic induction law, the greater the induced electromotive force generated, the greater the influence on the opposite magnetic field. Therefore, the sliding energy of the sliding magnet set is hindered, which affects the oscillating power generation failure and the magnetic field line cut. Therefore, in Patent Document 2, Patent Document 3, and Patent Document 4, solving means are disclosed respectively. In addition to increasing the weight of the entire magnet by staking multiple magnets together, magnetic fluid is used as a lubricant to reduce the frictional force between the magnet and the motion path, thereby improving the sliding energy of the magnet assembly. is doing.

磁石組の摺動エネルギーは複数の磁石の串刺し接続と液体の増加により改善されている。しかしながら、コストが高くなるほか、生産プロセスがより煩雑になりかねない。 The sliding energy of the magnet set is improved by the splicing connection of a plurality of magnets and the increase of liquid. However, it can be costly and the production process can be more complicated.

米国特許第６７６８２３０号明細書US Pat. No. 6,768,230 米国特許第６７９８０９０号明細書US Pat. No. 6,798,090 米国特許第６２２０７１９号明細書US Pat. No. 6,220,719 米国特許第６８１２５８３号明細書US Pat. No. 6,812,583

本考案は一種の構造簡単、生産プロセス簡素化、コスト軽減を実現しながら、より良い電力効果を発生する多磁極発電装置を提供し、適切な重量を維持することにより、磁石の摺動過程における摺動エネルギーの損失、磁力線カット誘導の影響を軽減するほか、磁石の摺動過程による空気圧縮抵抗力を低下し、揺動発電が順調に行えて、より良い電力効果を発生することを主な目的とする。 The present invention provides a multi-pole power generation device that generates a better power effect while realizing a kind of structural simplicity, production process simplification, and cost reduction, and by maintaining an appropriate weight, in the sliding process of the magnet In addition to reducing the effects of sliding energy loss and magnetic field line cutting induction, the main feature is that the air compression resistance due to the sliding process of the magnet is reduced, and the oscillating power generation can be performed smoothly, producing a better power effect. Objective.

前記の目的を達成するため、本考案による多磁極発電装置は主に、中空搬送体に両端部と開口部をそれぞれ設け、その外周面に誘導コイルを巻き込む。一つ以上の摺動磁石を該中空搬送体内部に設ける。固定磁石を該中空搬送体両端部の外周面にそれぞれ設け、Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設ける。重り部材を該摺動磁石に設ける。蓋体を該開口部に設ける。前記の構造により、摺動磁石と重り部材は中空搬送体内部において、良好な摺動エネルギーにより、順調に往復運動を行い、誘導コイルを完全にカットして、電磁誘導効率を向上する。 In order to achieve the above object, the multi-pole power generator according to the present invention mainly has both ends and an opening provided in a hollow carrier, and an induction coil is wound around the outer peripheral surface thereof. One or more sliding magnets are provided inside the hollow carrier. Fixed magnets are provided on the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are provided in accordance with the same pole magnets of the sliding magnets provided at the ends. A weight member is provided on the sliding magnet. A lid is provided in the opening. With the above structure, the sliding magnet and the weight member smoothly reciprocate with good sliding energy inside the hollow carrier, and the induction coil is completely cut to improve electromagnetic induction efficiency.

本考案による多磁極発電装置のもう一つの特徴は、該中空搬送体の内壁と該摺動磁石の外周面は異なる輪郭の組み合わせにより、より良い摺動空間を提供し、磁石の摺動過程における空気圧縮抵抗力を軽減できる。 Another feature of the multi-pole power generator according to the present invention is that the inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet provide a better sliding space by combining different contours, and in the sliding process of the magnet Air compression resistance can be reduced.

請求項１の考案は、整流蓄電装置に接続して、適切な電力を電子製品に提供し中空搬送体、固定磁石、重り部材及び蓋体を含み、
該中空搬送体は両端部および一つ以上の開口部を設けるほか、外周面に誘導コイルを設け、更に一つ以上の摺動磁石を該中空搬送体内部に収容し、固定磁石は該中空搬送体両端部の外周面にそれぞれ設け、Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設け、
重り部材は該摺動磁石に設け、蓋体は該開口部に設け、
この構造により、該摺動磁石と重り部材が中空搬送体において、良好な摺動エネルギーを得て、順調な往復運動を行うことにより、誘導コイルを完全にカットして、電磁誘導効率を向上できる、一種の多磁極発電装置としている。
請求項２の考案は、該重り部材と摺動磁石の形状は同様であることを特徴とする、請求項１記載の多磁極発電装置としている。
請求項３の考案は、該重り部材は炭素鋼、真鍮などの材質を用いることを特徴とする、請求項２記載の多磁極発電装置としている。
請求項４の考案は、該固定磁石は環状体磁石、二つの円弧体磁石、または複数の小さい磁石などを設けることを特徴とする、請求項１記載の多磁極発電装置としている。
請求項５の考案は、空気圧縮抵抗力を軽減するため、該摺動磁石の中央部に貫通孔を設けることを特徴とする、請求項４記載の多磁極発電装置としている。
請求項６の考案は、該摺動磁石の外周面はさらに、複数の切り込みを設けることを特徴とする、請求項５記載の多磁極発電装置としている。
請求項７の考案は、該摺動磁石の内壁はさらに、複数の切り込みを設けることを特徴とする、請求項５記載の多磁極発電装置としている。
請求項８の考案は、該中空搬送体の内壁と該摺動磁石の外周面は該中空搬送体の内壁断面に多辺形を設けることに対して、該摺動磁石外周面の断面に円形を設ける、または該中空搬送体内壁の断面に円形を設けることに対して、該摺動磁石外周面の断面に多辺形を設けるなど、異なる輪郭の組み合わせにより、より良い摺動空間を提供し、磁石の摺動過程における空気圧縮抵抗力を軽減できることを特徴とする、請求項２記載の多磁極発電装置としている。
請求項９の考案は、空気圧縮抵抗力を軽減するため、該摺動磁石の中央部に貫通孔を設けることを特徴とする、請求項８記載の多磁極発電装置としている。
請求項１０の考案は、該摺動磁石は複数個を設け、同じく磁極を向かい合わせて配列した上、串刺し接続する、または異なる磁極を向かい合わせて配列した上、串刺し接続する、あるいは同磁極と異なる磁極を混在した上、串刺し接続することを特徴とする、請求項１記載の多磁極発電装置としている。
請求項１１の考案は、複数の摺動磁石は接続棒により、串刺し接続するほか、摺動磁石同士の間に仕切り部材を設けることを特徴とする、請求項１０記載の多磁極発電装置としている。
請求項１２の考案は、接続棒はねじ棒、仕切り部材はナット、またはらせん状挿入部材、ワッシャーなどの仕切り物体など、仕切り機能を有する部材であることを特徴とする、請求項１１記載の多磁極発電装置としている。
請求項１３の考案は、整流蓄電装置に接続して、適切な電力を電子製品に提供する、
中空搬送体に両端部と一つ以上の開口部を設け、その外周面に誘導コイルを巻き込む、一つ以上の摺動磁石組を該中空搬送体に設ける、
固定磁石、該中空搬送体両端部の外周面にそれぞれ設け、Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設ける、
蓋体、該開口部に設け、
該中空搬送体の内壁と摺動磁石の外周面は異なる輪郭の組み合わせにより、より良い摺動空間を提供し、摺動磁石の摺動過程における空気圧縮抵抗力を軽減する特徴を有する、一種の多磁極発電装置としている。
請求項１４の考案は、該摺動磁石は複数個を設け、同じく磁極を向かい合わせて配列した上、串刺し接続する、または異なる磁極を向かい合わせて配列した上、串刺し接続する、あるいは同磁極と異なる磁極を混在した上、串刺し接続することを特徴とする、請求項１３記載の多磁極発電装置としている。
請求項１５の考案は、空気圧縮抵抗力を軽減するため、すべての摺動磁石の中央部はさらに貫通孔を設けることを特徴とする、請求項１４記載の多磁極発電装置としている。
請求項１６の考案は、該中空搬送体内壁の断面は円形を設けることに対して、該摺動磁石外周面の断面は多辺形を設けることを特徴とする、請求項１５記載の多磁極発電装置としている。
請求項１７の考案は、該中空搬送体内壁の断面は多辺形を設けることに対して、該摺動磁石外周面の断面は円形を設けることを特徴とする、請求項１５記載の多磁極発電装置としている。
請求項１８の考案は、該固定磁石は環状体磁石、二つの円弧体磁石、または複数の小さい磁石などを設けることを特徴とする、請求項１３記載の多磁極発電装置としている。
請求項１９の考案は、摺動磁石は複数の接続棒により串刺し接続するほか、摺動磁石同士の間に仕切り部材を設けることを特徴とする、請求項１４記載の多磁極発電装置としている。
請求項２０の考案は、接続棒はねじ棒、仕切り部材はナット、またはらせん状挿入部材、ワッシャーなどの仕切り物体など、仕切り機能を有する部材であることを特徴とする、請求項１９記載の多磁極発電装置としている。
請求項２１の考案は、整流蓄電装置に接続して、適切な電力を電子製品に提供する、
中空搬送体、両端部および一つ以上の開口部を設けるほか、外周面に誘導コイルを設ける、
一つ以上の摺動磁石を該中空搬送体内部に設ける、固定磁石を該中空搬送体両端部の外周面にそれぞれ設け、Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設ける、蓋体を該開口部に設ける、一種の多磁極発電装置としている。 The invention of claim 1 is connected to a rectifying power storage device and provides appropriate power to an electronic product, including a hollow carrier, a fixed magnet, a weight member, and a lid,
In addition to providing both ends and one or more openings, the hollow carrier is provided with an induction coil on the outer peripheral surface, and further accommodates one or more sliding magnets inside the hollow carrier, and a fixed magnet is provided in the hollow carrier. Provided on the outer peripheral surfaces of both ends of the body, the N pole and the S pole are provided in accordance with the same pole magnet of the sliding magnet provided at the end,
A weight member is provided on the sliding magnet, and a lid is provided on the opening.
With this structure, the sliding magnet and the weight member can obtain good sliding energy and perform a smooth reciprocating motion in the hollow carrier, thereby completely cutting the induction coil and improving the electromagnetic induction efficiency. It is a kind of multi-pole power generator.
The invention of claim 2 is the multi-pole power generator according to claim 1, wherein the weight member and the sliding magnet have the same shape.
The invention of claim 3 is the multi-pole power generator according to claim 2, wherein the weight member is made of a material such as carbon steel or brass.
The invention of claim 4 is the multi-pole power generator according to claim 1, wherein the fixed magnet is provided with an annular magnet, two arc magnets, or a plurality of small magnets.
The invention of claim 5 is the multi-pole power generator according to claim 4, wherein a through-hole is provided in the center of the sliding magnet in order to reduce air compression resistance.
The invention of claim 6 is the multi-pole power generator according to claim 5, wherein the outer peripheral surface of the sliding magnet is further provided with a plurality of cuts.
The invention according to claim 7 is the multi-pole power generator according to claim 5, wherein the inner wall of the sliding magnet is further provided with a plurality of cuts.
In the invention of claim 8, the inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet are provided with a polygonal shape in the inner wall cross section of the hollow carrier, whereas the cross section of the outer surface of the sliding magnet is circular. Or providing a better sliding space by combining different contours, such as providing a polygon on the cross section of the outer peripheral surface of the sliding magnet. 3. The multi-pole power generator according to claim 2, wherein the air compression resistance force during the sliding process of the magnet can be reduced.
The invention of claim 9 is the multi-pole power generator according to claim 8, wherein a through-hole is provided in the center of the sliding magnet in order to reduce air compression resistance.
The invention of claim 10 is provided with a plurality of the sliding magnets, which are also arranged with the magnetic poles facing each other and skewered, or arranged with different magnetic poles facing each other, and skewered or connected. The multi-pole power generator according to claim 1, wherein different magnetic poles are mixed and skewered and connected.
The invention of claim 11 is the multi-pole power generator according to claim 10, wherein the plurality of sliding magnets are connected to each other by a connecting rod, and a partition member is provided between the sliding magnets. .
The invention of claim 12 is characterized in that the connecting rod is a screw rod and the partition member is a member having a partition function such as a nut or a partition object such as a helical insertion member or a washer. It is a magnetic pole power generator.
The invention of claim 13 is connected to a rectifying power storage device to provide appropriate power to an electronic product.
The hollow carrier is provided with one or more sliding magnet sets in which both ends and one or more openings are provided in the hollow carrier, and an induction coil is wound around the outer peripheral surface of the hollow carrier.
A fixed magnet is provided on each of the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are provided in accordance with the same pole magnet of the sliding magnet provided at the end.
A lid, provided in the opening,
The inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet are provided with a combination of different contours to provide a better sliding space and to reduce air compression resistance in the sliding process of the sliding magnet. It is a multi-pole power generator.
The invention of claim 14 is provided with a plurality of the sliding magnets, which are also arranged with the magnetic poles facing each other and skewered or connected with different magnetic poles facing each other, and skewered or connected. 14. The multi-pole power generator according to claim 13, wherein different magnetic poles are mixed and skewered and connected.
The invention of claim 15 is the multi-pole power generator according to claim 14, characterized in that in order to reduce the air compression resistance, the central portion of all the sliding magnets is further provided with a through hole.
The invention according to claim 16 is characterized in that the cross section of the hollow conveying body wall is provided with a circular shape, whereas the outer peripheral surface of the sliding magnet is provided with a polygonal shape. It is a power generator.
The invention according to claim 17 is characterized in that the cross section of the hollow conveying body wall is provided with a polygonal shape, whereas the cross section of the outer peripheral surface of the sliding magnet is provided with a circular shape. It is a power generator.
The invention of claim 18 is the multi-pole power generator according to claim 13, wherein the fixed magnet is provided with an annular magnet, two arc magnets, or a plurality of small magnets.
The invention of claim 19 is the multi-pole power generator according to claim 14, wherein the sliding magnet is connected by a plurality of connecting rods, and a partition member is provided between the sliding magnets.
The invention of claim 20 is characterized in that the connecting rod is a screw rod and the partition member is a member having a partition function, such as a nut or a partition object such as a helical insertion member or a washer. It is a magnetic pole power generator.
The invention of claim 21 is connected to a rectifying power storage device to provide appropriate power to an electronic product.
In addition to providing a hollow carrier, both ends and one or more openings, an induction coil is provided on the outer peripheral surface.
One or more sliding magnets are provided inside the hollow carrier, fixed magnets are provided on the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are the same poles of the sliding magnets provided at the ends. A kind of multi-pole power generator is provided in which a lid is provided in the opening.

本考案による多磁極発電装置は主に、中空搬送体に両端部と開口部をそれぞれ設け、その外周面に誘導コイルを巻き込む。一つ以上の摺動磁石を該中空搬送体内部に設ける。固定磁石を該中空搬送体両端部の外周面にそれぞれ設け、Ｎ極とＳ極はその端に備える摺動磁石の同じ極の磁石に合わせて設ける。重り部材を該摺動磁石に設ける。蓋体を該開口部に設ける。前記の構造により、摺動磁石と重り部材は中空搬送体内部において、良好な摺動エネルギーにより、順調に往復運動を行い、誘導コイルを完全にカットして、電磁誘導効率を向上する。 The multi-pole power generator according to the present invention is mainly provided with both ends and an opening in a hollow carrier, and an induction coil is wound around the outer peripheral surface thereof. One or more sliding magnets are provided inside the hollow carrier. Fixed magnets are provided on the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are provided in accordance with the same pole magnets of the sliding magnets provided at the ends. A weight member is provided on the sliding magnet. A lid is provided in the opening. With the above structure, the sliding magnet and the weight member smoothly reciprocate with good sliding energy inside the hollow carrier, and the induction coil is completely cut to improve electromagnetic induction efficiency.

図１に示すとおり、本考案による多磁極発電装置１はソケット８０と整流蓄電装置７に備えるコンセント８１に接続して導通する。適切に揺動操作した後、一定の電力を電子製品に提供される。該多磁極発電装置１は主に、中空搬送体２、固定磁石３０、３１、摺動磁石４、および重り部材５より構成する。そのうち、該中空搬送体２に両端部２０、２１を設け、その上、それぞれ開ロ部を設け、並びに蓋体２５を設置し、その外周面４０１に誘導コイル９０を設ける。該固定磁石３０、３１は、環状体（図２、図３であり、固定磁石３０、３１は二つの円弧体磁石、または複数の小さい磁石を外周面４０１に設けても良い。）を該中空搬送体両端部２０、２１の外周面４０１にそれぞれ設ける。そのうち、固定磁石３０の磁極はＳ極を内向きに設け、固定磁石３１の磁石はＮ極を内向きに設ける。該摺動磁石組４に６個の摺動磁石４０を設ける。摺動磁石組４を串刺しするため、各摺動磁石４０に貫通孔４００を設けて、空気圧縮抵抗力を軽減する。該摺動磁石４０は接続棒６０と仕切り部材６１により一体化に串刺し接続する。そのうち、該接続棒６０はねじ棒であっても良い。該仕切り部材６１はナットまたはらせん状挿入部材、ワッシャーなどの仕切り物体を各摺動磁石４０の間に挟んでおき、一体化に串刺し接続した上、該中空搬送体２内部に組み入れる。本実施例において、該摺動磁石組４磁極の配列は、反対磁極を向かい合わせて配列する。該重り部材５は炭素鋼、真鍮などの適切な部材を該摺動磁石組４左右両側に組み込んでおき、該摺動磁石組４に適切な重量を与えることにより、摺動エネルギーの損失を減少し、磁力線カット誘導の影響を減少する。 As shown in FIG. 1, the multi-pole power generator 1 according to the present invention is connected to a socket 80 and an outlet 81 provided in the rectifying power storage device 7 to be conducted. After proper rocking operation, a certain amount of power is provided to the electronic product. The multi-pole power generator 1 is mainly composed of a hollow carrier 2, fixed magnets 30 and 31, a sliding magnet 4, and a weight member 5. Among them, the hollow carrier 2 is provided with both end portions 20 and 21, and furthermore, an opening portion is provided, a lid body 25 is provided, and an induction coil 90 is provided on the outer peripheral surface 401. The fixed magnets 30 and 31 are hollow as shown in FIGS. 2 and 3 (the fixed magnets 30 and 31 may be provided with two arc-shaped magnets or a plurality of small magnets on the outer peripheral surface 401). It is provided on the outer peripheral surface 401 of each end 20 and 21 of the carrier. Among them, the magnetic pole of the fixed magnet 30 is provided with the south pole facing inward, and the magnet of the fixed magnet 31 is provided with the north pole facing inward. Six sliding magnets 40 are provided in the sliding magnet set 4. In order to skew the sliding magnet assembly 4, a through hole 400 is provided in each sliding magnet 40 to reduce the air compression resistance. The sliding magnet 40 is integrally connected by a connecting rod 60 and a partition member 61. Of these, the connecting rod 60 may be a threaded rod. The partition member 61 is formed by sandwiching a partition object such as a nut or a spiral insertion member or a washer between the sliding magnets 40 and connecting them in an integrated manner, and then incorporating them into the hollow carrier 2. In this embodiment, the four magnetic poles of the sliding magnet set are arranged with the opposite magnetic poles facing each other. The weight member 5 includes a suitable member such as carbon steel or brass on both the left and right sides of the sliding magnet assembly 4 to give an appropriate weight to the sliding magnet assembly 4, thereby reducing the loss of sliding energy. And reduce the influence of magnetic field line cutting induction.

さらに、図４から図７を参照する。本考案による中空搬送体２の内壁２２と摺動磁石４０の外周面４０１は、異なる輪郭の組み合わせにより、より良い摺動空間を提供し、摺動磁石組４の摺動過程における空気圧縮抵抗力を軽減する。図４に示すとおり、中空搬送体２内壁２２の断面は円形に対して、該摺動磁石４０外周面４０１の断面は多辺形である。図５に示すとおり、中空搬送体２内壁２２の断面は円形に対して、該摺動磁石４０外周面４０１の断面は円形のほか、複数の切り込み４０２を設ける。図６に示すとおり、中空搬送体２内壁２２の断面は円形に対して、該摺動磁石４０外周面４０１の断面は円形である。図７に示すとおり、中空搬送体２内壁２２の断面は円形のほか、複数の切り込み２２１を設けるに対して、該摺動磁石４０外周面４０１の断面は円形である。前記のとおり、中空搬送体２内壁２２と摺動磁石４０の外周面４０１は異なる輪郭の組み合わせにより、残された空間は摺動磁石組４の摺動過程における空気圧縮抵抗力を軽減できる。 Furthermore, reference is made to FIGS. The inner wall 22 of the hollow carrier 2 and the outer peripheral surface 401 of the sliding magnet 40 according to the present invention provide a better sliding space by combining different contours, and the air compression resistance force in the sliding process of the sliding magnet assembly 4 Reduce. As shown in FIG. 4, the cross section of the inner wall 22 of the hollow carrier 2 is circular, and the cross section of the outer peripheral surface 401 of the sliding magnet 40 is polygonal. As shown in FIG. 5, the inner wall 22 of the hollow carrier 2 has a circular cross section, and the outer peripheral surface 401 of the sliding magnet 40 has a circular cross section, and a plurality of cuts 402 are provided. As shown in FIG. 6, the cross section of the inner wall 22 of the hollow carrier 2 is circular, and the cross section of the outer peripheral surface 401 of the sliding magnet 40 is circular. As shown in FIG. 7, the cross section of the inner wall 22 of the hollow carrier 2 is circular, and a plurality of cuts 221 are provided, whereas the outer peripheral surface 401 of the sliding magnet 40 is circular. As described above, the inner space 22 of the hollow carrier 2 and the outer peripheral surface 401 of the sliding magnet 40 have different contour combinations, so that the remaining space can reduce the air compression resistance force in the sliding process of the sliding magnet assembly 4.

特に、摺動磁石組４磁極の配列方法は、前記の反対磁極による配列のほか、同極配列、または同極と反対磁極を混合の配列で一体化に串刺し接続することもできる。この構造により、同じくコイルを備える中空搬送体内部に往復運動し、コイルの磁場を変化させ、誘導起電力を発生し、電力提供の効果を実現する。さらに、摺動磁石組４の摺動による摩擦力の軽減を図るため、該摺動磁石組４と中空搬送体２内壁の間、または摺動磁石組４、あるいは中空搬送体２の内壁に摩擦力を低減するための部材を設けても良い。さらに、応用対象物に応じて、図８に示すとおり、本考案による摺動磁石４’は扁平楕円形に設け、その中央部に貫通孔４００’を設ける。この構造により、該中空搬送体２の内壁は楕円形に合わせて設けても、同じく空気圧縮抵抗力を軽減する効果を実現できる。 In particular, the arrangement method of the four magnetic poles of the sliding magnet assembly can be connected in an integrated manner in the same polarity arrangement, or the same polarity and the opposite magnetic pole in a mixed arrangement in addition to the arrangement of the opposite magnetic poles. This structure reciprocates inside a hollow carrier that also has a coil, changes the magnetic field of the coil, generates an induced electromotive force, and realizes the effect of providing power. Further, in order to reduce the frictional force due to the sliding of the sliding magnet assembly 4, friction is generated between the sliding magnet assembly 4 and the inner wall of the hollow carrier 2, or against the sliding magnet assembly 4 or the inner wall of the hollow carrier 2. A member for reducing the force may be provided. Further, according to the application object, as shown in FIG. 8, the sliding magnet 4 'according to the present invention is provided in a flat elliptical shape, and a through hole 400' is provided in the center thereof. With this structure, even if the inner wall of the hollow carrier 2 is provided in an elliptical shape, the effect of reducing the air compression resistance can be realized.

引き続きに図９に示すものは、本考案による多磁極発電装置１’の実施例２である。この実施例において、中空搬送体２’の外周面に固定磁石３０’、３１’の形式は実施例１に同じく、環状体磁石を設ける。摺動磁石４’は一つのみを設ける。その代わり、重り部材５’の厚みを増やせることにより、摺動磁石４’のしかるべき重量を維持し、良好な摺動エネルギーを提供して、順調に往復運動を行い、誘導コイル９’を完全にカットすることにより、同じく電磁誘導効率を向上できる。本実施例において、コスト高い摺動磁石４に代わって、コスト低い炭素鋼、真鍮などの重り部材を設け、組み立て工程を簡素化させ、その実用性をさらに向上している。 FIG. 9 shows a second embodiment of the multi-pole power generator 1 'according to the present invention. In this embodiment, the fixed magnets 30 ′ and 31 ′ are provided on the outer peripheral surface of the hollow carrier 2 ′ in the same manner as in the first embodiment, and annular magnets are provided. Only one sliding magnet 4 'is provided. Instead, by increasing the thickness of the weight member 5 ', the appropriate weight of the sliding magnet 4' is maintained, good sliding energy is provided, the reciprocating motion is smoothly performed, and the induction coil 9 'is completely Similarly, the electromagnetic induction efficiency can be improved. In this embodiment, instead of the high-cost sliding magnet 4, weight members such as low-cost carbon steel and brass are provided to simplify the assembly process and further improve its practicality.

前記したとおり、本考案による多磁極発電装置は創作目的に合致するほか、本考案は部材回収車両の振動、空調機の運転による振動、人体の自然振動など振動源の物体に応用することにより、電気に置き換えた上保存しておくことができる。代替え的な電源として、ノートパソコン、デジタルカメラ、ＰＤＡなどの情報製品のほか、携帯電話、懐中電灯などの通信製品に応用できる。 As described above, the multi-pole power generation device according to the present invention meets the purpose of creation, and the present invention can be applied to vibration source objects such as vibration of a material recovery vehicle, vibration due to operation of an air conditioner, natural vibration of the human body, It can be stored after being replaced with electricity. As an alternative power source, it can be applied to information products such as notebook computers, digital cameras and PDAs, as well as communication products such as mobile phones and flashlights.

本考案による多磁極発電装置実施例１の断面図と整流蓄電装置の概略図である。1 is a cross-sectional view of a first embodiment of a multi-pole power generator according to the present invention and a schematic diagram of a rectifying power storage device. 本考案による固定磁石の実施例２である。It is Example 2 of the fixed magnet by this invention. 本考案による固定磁石の実施例３である。It is Example 3 of the fixed magnet by this invention. 本考案による多磁極発電装置の摺動磁石の実施例１である。It is Example 1 of the sliding magnet of the multi-pole power generator by this invention. 本考案による多磁極発電装置の摺動磁石の実施例２である。It is Example 2 of the sliding magnet of the multi-pole power generator by this invention. 本考案による多磁極発電装置の中空搬送体の実施例１である。It is Example 1 of the hollow conveyance body of the multi-pole power generator by this invention. 本考案による多磁極発電装置の中空搬送体の実施例２である。It is Example 2 of the hollow conveyance body of the multi-pole power generator by this invention. 本考案による摺動磁石の扁平楕円形の実施態様である。1 is a flat elliptical embodiment of a sliding magnet according to the present invention. 本考案による多磁極発電装置の実施例２の断面図である。It is sectional drawing of Example 2 of the multi-pole power generator by this invention.

Explanation of symbols

１多磁極発電装置
２中空搬送体
２０、２１中空搬送体両端部
２２中空搬送体内壁
２５蓋体
２２１、４０２切り込み
３０、３１固定磁石
４、４’ 摺動磁石組
４０摺動磁石
４００貫通孔
４０１外周面
５重り部材
６０接続棒
６１仕切り部材
７整流蓄電装置
８０ソケット
８１コンセント
９０コイル DESCRIPTION OF SYMBOLS 1 Multi magnetic pole power generator 2 Hollow carrier 20, 21 Both ends of hollow carrier 22 Hollow carrier inner wall 25 Cover body 221, 402 Incision 30, 31 Fixed magnet 4, 4 'Sliding magnet set 40 Sliding magnet 400 Through-hole 401 Outer peripheral surface 5 Weight member 60 Connecting rod 61 Partition member 7 Rectifying power storage device 80 Socket 81 Outlet 90 Coil

Claims

Connected to the rectifying power storage device, providing appropriate power to the electronic product, including a hollow carrier, a fixed magnet, a weight member and a lid,
In addition to providing both ends and one or more openings, the hollow carrier has an induction coil on the outer peripheral surface, and further accommodates one or more sliding magnets inside the hollow carrier, and a fixed magnet is provided in the hollow carrier. Provided on the outer peripheral surfaces of both ends of the body, the N pole and the S pole are provided in accordance with the same pole magnet of the sliding magnet provided at the end,
A weight member is provided on the sliding magnet, and a lid is provided on the opening.
With this structure, the sliding magnet and the weight member can obtain good sliding energy and perform a smooth reciprocating motion in the hollow carrier, thereby completely cutting the induction coil and improving the electromagnetic induction efficiency. A kind of multi-pole power generator.

The multi-pole power generator according to claim 1, wherein the weight member and the sliding magnet have the same shape.

The multi-pole power generator according to claim 2, wherein the weight member is made of a material such as carbon steel or brass.

The multi-pole power generator according to claim 1, wherein the fixed magnet is provided with an annular magnet, two arc magnets, or a plurality of small magnets.

The multi-pole power generator according to claim 4, wherein a through-hole is provided in a central portion of the sliding magnet in order to reduce air compression resistance.

6. The multi-pole power generator according to claim 5, wherein the outer peripheral surface of the sliding magnet is further provided with a plurality of cuts.

6. The multi-pole power generator according to claim 5, wherein the inner wall of the sliding magnet is further provided with a plurality of cuts.

The inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet are provided with a polygonal shape on the inner wall cross section of the hollow carrier, whereas the cross section of the outer peripheral surface of the sliding magnet is provided with a circle or the hollow carrier. Provide a better sliding space by combining different contours, such as providing a circular shape in the cross section of the inner wall of the body wall, and providing a polygonal shape in the cross section of the outer peripheral surface of the sliding magnet. The multi-pole power generator according to claim 2, wherein the air compression resistance can be reduced.

The multi-pole power generator according to claim 8, wherein a through-hole is provided in a central portion of the sliding magnet in order to reduce air compression resistance.

A plurality of the sliding magnets are provided, and the magnetic poles are arranged to face each other and skewered or connected, or different magnetic poles are arranged to face each other and skewed and connected, or magnetic poles different from the magnetic poles are mixed, The multi-pole power generator according to claim 1, wherein the multi-pole power generator is skewered and connected.

The multi-pole power generator according to claim 10, wherein the plurality of sliding magnets are connected to each other by a connecting rod, and a partition member is provided between the sliding magnets.

12. The multi-pole power generation device according to claim 11, wherein the connecting rod is a screw rod, the partition member is a nut, or a partition object such as a partition member such as a spiral insertion member or a washer.

Connect to a rectifying power storage device to provide appropriate power to electronic products,
The hollow carrier is provided with one or more sliding magnet sets in which both ends and one or more openings are provided in the hollow carrier, and an induction coil is wound around the outer peripheral surface of the hollow carrier.
A fixed magnet is provided on each of the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are provided in accordance with the same pole magnet of the sliding magnet provided at the end.
A lid, provided in the opening,
The inner wall of the hollow carrier and the outer peripheral surface of the sliding magnet are provided with a combination of different contours to provide a better sliding space and to reduce air compression resistance in the sliding process of the sliding magnet. Multi-pole power generator.

A plurality of the sliding magnets are provided, and the magnetic poles are arranged to face each other and skewered or connected, or different magnetic poles are arranged to face each other and skewed and connected, or magnetic poles different from the magnetic poles are mixed, The multi-pole power generator according to claim 13, wherein the multi-pole power generator is skewered and connected.

15. The multi-pole power generator according to claim 14, wherein a central portion of all the sliding magnets is further provided with a through hole in order to reduce air compression resistance.

The multi-pole power generating device according to claim 15, wherein the hollow conveying body wall has a circular cross section, whereas the outer peripheral surface of the sliding magnet has a polygonal cross section.

The multi-pole power generating device according to claim 15, wherein the cross section of the inner wall of the hollow conveying body is provided with a polygonal shape, whereas the outer peripheral surface of the sliding magnet is provided with a circular shape.

The multi-pole power generator according to claim 13, wherein the fixed magnet is provided with an annular magnet, two arc magnets, or a plurality of small magnets.

15. The multi-pole power generator according to claim 14, wherein the sliding magnet is connected by a plurality of connecting rods, and a partition member is provided between the sliding magnets.

The multi-pole power generator according to claim 19, wherein the connecting rod is a screw rod, the partition member is a nut, or a partition object such as a spiral insertion member or a washer.

Connect to a rectifying power storage device to provide appropriate power to electronic products,
In addition to providing a hollow carrier, both ends and one or more openings, an induction coil is provided on the outer peripheral surface.
One or more sliding magnets are provided inside the hollow carrier, fixed magnets are provided on the outer peripheral surfaces of both ends of the hollow carrier, and the N pole and the S pole are the same poles of the sliding magnets provided at the ends. A kind of multi-pole power generation device in which a lid is provided at the opening.