JP2000261902A - Induction current collector - Google Patents

Induction current collector

Info

Publication number
JP2000261902A
JP2000261902A JP11061821A JP6182199A JP2000261902A JP 2000261902 A JP2000261902 A JP 2000261902A JP 11061821 A JP11061821 A JP 11061821A JP 6182199 A JP6182199 A JP 6182199A JP 2000261902 A JP2000261902 A JP 2000261902A
Authority
JP
Japan
Prior art keywords
coil
current collecting
magnetic field
current collector
collecting coil
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.)
Granted
Application number
JP11061821A
Other languages
Japanese (ja)
Other versions
JP3592573B2 (en
Inventor
Toshiaki Murai
敏昭 村井
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.)
Railway Technical Research Institute
Original Assignee
Railway Technical Research Institute
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Filing date
Publication date
Application filed by Railway Technical Research Institute filed Critical Railway Technical Research Institute
Priority to JP06182199A priority Critical patent/JP3592573B2/en
Publication of JP2000261902A publication Critical patent/JP2000261902A/en
Application granted granted Critical
Publication of JP3592573B2 publication Critical patent/JP3592573B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

Links

Abstract

PROBLEM TO BE SOLVED: To obtain an induction current collector, which eliminates unbalance of amplitude and phase of a velocity electromotive force of a three-phase circuit, and prevents decrease of current collection power by eliminating the speed electromotive force due to a higher harmonic component magnetic field which is twice a spatial higher harmonic magnetic field to be used. SOLUTION: In an induction current collector used as a power source on a vehicle of a superconducting magnetic levitation equipment, current collecting coils 103A, 103B, 103B' are positioned between a superconducting coil 101 and a levitation coil 102, and arranged in two layers on the surface of a low- temperature vessel outer tank installed on a truck 104 of a rolling stock. A magnetic pole pitch of the current collecting coil 103A is made equal to τ/2, corresponding to that spatial higher harmonic magnetic field. In order to make the current collecting coil 103A a three-phase circuit, a coil pitch τ2 of the current collecting coil 103A is set to τ/3. The position of the current collecting coil 103B is shifted with respect to the current collecting coil 3A by τ/2 which is the magnetic pole pitch of the secondary spatial harmonic magnetic field, and the winding direction is set opposite. As a result, a three-phase circuit is constituted.

Description

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

【0001】[0001]

【発明の属する技術分野】本発明は、超電導磁気浮上式
鉄道の車上電源として使用される誘導集電装置に係り、
特に、その誘導集電装置の集電コイル配置に関するもの
である。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an induction current collector used as an on-board power supply of a superconducting maglev railway.
In particular, the present invention relates to a current collecting coil arrangement of the induction current collecting device.

【0002】[0002]

【従来の技術】超電導磁気浮上装置をその車両支持に用
いる超電導磁気浮上式鉄道において、高速時に非接触で
車上に電力を供給する方法として誘導集電装置が検討さ
れている。
2. Description of the Related Art In a superconducting magnetic levitation railway using a superconducting magnetic levitation device for supporting a vehicle, an induction current collector has been studied as a method of non-contact power supply to a vehicle at a high speed.

【0003】誘導集電装置は、主に集中型誘導集電装置
と分散型誘導集電装置の2種類があり、その参考文献と
して、以下に挙げるようなものがある。 (1)Toshiaki MURAI,Shunsuk
e FUJIWARA,Hitoshi HASEGA
WA,Kaoru NEMOTO,Hiroyuki
WATANABE,Yoko FURUKAWA,Ma
satoshiSHINOBU,Motohiro I
GARASHI,Satoru INADAMA,Hi
denari AKAGI,Masao OKI:“D
evelopment of Linear Gene
rators for Superconductin
g Maglev ”,Proceedings of
the 15th International Co
nference onMagnetically L
evitated Systems andLinea
r Drives,pp.262−267(1998.
4) (2)Eiji SAWANO,Takuji SAS
AKI,Yoshihiro JIZO, Koji
IKESHITA:“Inductive Power
Collection System for Ma
glev Vehicles”,Proceeding
s of the International Co
nference on Speedup Techn
ologyfor Railway and Magl
ev Vehicles, pp.186−191(1
993.11) (3)村井、長谷川、藤原:「側壁浮上方式における誘
導集電の特性改善」、電気学会論文誌D,117巻1
号、pp.81−90(1997.1) 従来の分散型誘導集電装置の基本全体構成を図5に示
す。図5(a)はその誘導集電装置の全体模式図、図5
(b)は図5(a)のA部拡大図である。
There are mainly two types of inductive current collectors, a centralized type inductive current collector and a distributed type inductive current collector, and the following references are available as references. (1) Toshiaki MURAI, Shunsuk
e FUJIWARA, Hitoshi HASEGA
WA, Kaoru NEMOTO, Hiroyuki
WATANABE, Yoko FURUKAWA, Ma
satoshiSHINOBU, Motohiro I
GARASHI, Satoru INADAMA, Hi
denari AKAGI, Masao OKI: "D
evolution of Linear Gene
actors for Superconductor
g Maglev ", Proceedings of
the 15th International Co
nreference on Magnetically L
Evated Systems and Linea
r Drives, pp. 262-267 (1998.
4) (2) Eiji SAWANO, Takuji SAS
AKI, Yoshihiro JIZO, Koji
IKESHITA: "Inductive Power
Collection System for Ma
glev Vehicles ”, Proceeding
s of the International Co
nreference on Speedup Techn
ology for Railway and Magl
ev Vehicles, pp. 186-191 (1
993.11) (3) Murai, Hasegawa, Fujiwara: "Improvement of Inductive Current Collection Characteristics in Sidewall Levitation System", IEEJ Transactions on Electronics, D, 117 (1)
No. pp. 81-90 (1997. 1) FIG. 5 shows a basic overall configuration of a conventional distributed induction current collector. FIG. 5A is an overall schematic diagram of the induction current collector, and FIG.
FIG. 5B is an enlarged view of a portion A in FIG.

【0004】これらの図においては、1は車両の台車、
2はその台車の側面に配置される超電導磁石の低温容器
外槽、3はその低温容器外槽内に配置される超電導コイ
ル、4はその低温容器外槽表面に配置される集電コイ
ル、5は地上側のガイドウェイ側壁に配置される浮上コ
イル、6は電力変換装置(コンバータ)、7は蓄電池、
8は車内負荷、9はガイドウェイ、9Aはそのガイドウ
ェイ側壁、10は車両である。
In these figures, 1 is a truck of a vehicle,
2, a superconducting magnet outer tub of a superconducting magnet arranged on the side surface of the cart, 3 a superconducting coil arranged in the cryogenic outer casing, 4 a current collecting coil arranged on the surface of the cryogenic outer vessel, 5 Is a floating coil arranged on the guideway side wall on the ground side, 6 is a power converter (converter), 7 is a storage battery,
Reference numeral 8 denotes an in-vehicle load, 9 denotes a guideway, 9A denotes a guideway side wall, and 10 denotes a vehicle.

【0005】超電導磁気浮上式鉄道において、車両10
を支持する電磁力は、超電導コイル3とその移動によっ
て生じる浮上コイル5の磁界の基本波成分との相互作用
によって発生する。誘導集電装置は、その浮上コイル5
が発生する磁界の高調波成分を利用して、車上にある集
電コイル4にて発電するものである、集電コイル4は、
車両10の進行方向に3相回路を構成し、電力変換器
(コンバータ)6及び蓄電池7を介して車内負荷8に接
続される。
In a superconducting magnetic levitation railway, a vehicle 10
Is generated by the interaction between the superconducting coil 3 and the fundamental wave component of the magnetic field of the levitation coil 5 generated by its movement. The inductive current collector has a floating coil 5
The current collecting coil 4 on the vehicle uses a harmonic component of the magnetic field generated by the power generating coil 4 to generate power.
A three-phase circuit is formed in the traveling direction of the vehicle 10, and is connected to an in-vehicle load 8 via a power converter (converter) 6 and a storage battery 7.

【0006】次に車両10の進行方向における各コイル
の配置を説明する。
Next, the arrangement of each coil in the traveling direction of the vehicle 10 will be described.

【0007】図6は浮上コイルのピッチτ1 が超電導コ
イルの極ピッチτの1/3とした場合の従来の誘導集電
装置における台車片側の各コイルの進行方向の配置の模
式図である。
FIG. 6 is a schematic view showing the arrangement of the coils on one side of the bogie in the conventional induction current collector when the pitch τ 1 of the levitation coils is set to 1 / of the pole pitch τ of the superconducting coils.

【0008】この図において、11は超電導コイル、1
2は集電コイル、13は地上側のガイドウェイ側壁に配
置される浮上コイルである。
In this figure, reference numeral 11 denotes a superconducting coil, 1
Reference numeral 2 denotes a current collecting coil, and 13 denotes a levitation coil arranged on a guideway side wall on the ground side.

【0009】この場合、浮上コイル13は、(6n±
1)次の空間高調波磁界(nは正の整数)を発生し、そ
の空間高調波磁界は低次調波ほど大きいという特徴を持
つ。そのため、5次空間高調波磁界による速度起電力が
得られるように、集電コイル12の磁極ピッチは、その
空間高調波磁界に対応するτ/5の整数倍にとれば良
く、集電コイル12を3相回路にする場合、集電コイル
12のコイルピッチτ2 を、2τ/15の整数倍にする
必要があり、この例では、集電コイル12の磁極ピッチ
を2τ/5とし、集電コイル12のピッチτ2 を4τ/
15としている。この時の集電コイルの磁極ピッチは、
5次以外の空間高調波磁界、特に次に大きい7次空間高
調波磁界の磁極ピッチであるτ/7の整数倍でないた
め、集電コイル12に7次空間高調波磁界による速度起
電力が発生せず、3相回路の速度起電力の振幅及び位相
のバランスが崩れ、その集電電力が低下することはな
い。
In this case, the floating coil 13 is (6n ±
1) The next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is characterized in that the lower harmonics are larger. Therefore, the magnetic pole pitch of the current collecting coil 12 may be set to an integral multiple of τ / 5 corresponding to the spatial harmonic magnetic field so that the speed electromotive force due to the fifth spatial harmonic magnetic field is obtained. Is a three-phase circuit, the coil pitch τ 2 of the current collecting coil 12 needs to be an integral multiple of 2τ / 15. In this example, the magnetic pole pitch of the current collecting coil 12 is 2τ / 5, The pitch τ 2 of the coil 12 is 4τ /
It is set to 15. The magnetic pole pitch of the current collecting coil at this time is
Since it is not an integral multiple of τ / 7, which is the magnetic pole pitch of the spatial harmonic magnetic field other than the fifth order, especially the seventh largest spatial harmonic magnetic field, a velocity electromotive force is generated in the current collecting coil 12 by the seventh spatial harmonic magnetic field. Without this, the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit is not broken, and the collected power does not decrease.

【0010】一方、浮上コイル13は、ガイドウェイ全
線に敷設されるため、そのコスト低減が重大な課題とな
っており、その浮上コイルピッチτ1 を2倍として、そ
の数量を半分にすることが望まれている。
On the other hand, since the levitation coils 13 are laid on the entire guideway, cost reduction is an important issue. Therefore, it is necessary to double the levitation coil pitch τ 1 and halve the number thereof. Is desired.

【0011】図7は浮上コイルのピッチτ1 が超電導コ
イルの極ピッチτの2/3とした場合の従来の誘導集電
装置における台車片側の各コイルの進行方向の配置の模
式図である。
FIG. 7 is a schematic view of the arrangement of each coil on one side of the bogie in the conventional induction current collector when the pitch τ 1 of the levitation coil is set to 2 of the pole pitch τ of the superconducting coil.

【0012】この図において、11は超電導コイル、1
2は集電コイル、13は地上側のガイドウェイ側壁に配
置される浮上コイルである。
In this figure, reference numeral 11 denotes a superconducting coil, 1
Reference numeral 2 denotes a current collecting coil, and 13 denotes a levitation coil arranged on a guideway side wall on the ground side.

【0013】この場合、浮上コイル13は(3n±1)
次の空間高調波磁界(nは正の整数)を発生し、その空
間高調波磁界は低次調波ほど大きいという特徴を持つ。
そのため、2次空間高調波磁界による速度起電力が得ら
れるように、集電コイル12の磁極ピッチは、その空間
高調波磁界に対応するτ/2の整数倍にとれば良く、集
電コイル12を3相回路にする場合、集電コイル12の
コイルピッチτ2 を、τ/3の整数倍にする必要があ
り、この例では、集電コイル12の磁極ピッチをτ/2
とし、集電コイル12のピッチτ2 をτ/3としてい
る。この時の集電コイル12の磁極ピッチは、2次以外
の空間高調波磁界、特に次に大きい4次空間高調波磁界
の磁極ピッチであるτ/4の整数倍であるため、集電コ
イル12に4次空間高調波磁界による速度起電力が発生
し、3相回路の速度起電力の振幅及び位相のバランスが
崩れ、集電電力が低下する。
In this case, the floating coil 13 is (3n ± 1)
A next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is characterized in that the lower harmonics are larger.
Therefore, the magnetic pole pitch of the current collecting coil 12 may be set to an integral multiple of τ / 2 corresponding to the spatial harmonic magnetic field so that the speed electromotive force due to the second spatial harmonic magnetic field is obtained. Is a three-phase circuit, the coil pitch τ 2 of the current collecting coil 12 needs to be an integral multiple of τ / 3. In this example, the magnetic pole pitch of the current collecting coil 12 is τ / 2
And the pitch τ 2 of the current collecting coil 12 is τ / 3. At this time, the magnetic pole pitch of the current collecting coil 12 is an integral multiple of τ / 4, which is the magnetic pole pitch of the spatial harmonic magnetic field other than the second-order spatial harmonic field, particularly the next largest fourth-order spatial harmonic magnetic field. Then, a speed electromotive force is generated by the fourth-order spatial harmonic magnetic field, and the amplitude and phase balance of the speed electromotive force of the three-phase circuit are lost, so that the collected power decreases.

【0014】この例に示すように、系の構成上、浮上コ
イル13が誘導集電装置にて利用したい空間高調波磁界
の2倍の空間高調波磁界を発生し、その影響が無視でき
ない場合、集電コイル12の3相回路の速度起電力の振
幅及び位相のバランスが崩れ、集電電力が低下するとい
う問題がある。
As shown in this example, if the levitation coil 13 generates a spatial harmonic magnetic field twice as large as the spatial harmonic magnetic field desired to be used in the inductive current collector due to the configuration of the system, and its influence cannot be ignored. There is a problem that the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit of the current collecting coil 12 is broken, and the current collected is reduced.

【0015】本発明は、上記問題点を除去し、集電コイ
ルを、3相隔極接続されたコイルと、そのコイルに対し
て、その位置を利用したい磁界の磁極ピッチ分ずらし、
またその巻線方向を反対にして、3相隔極接続したコイ
ルを組み合わせた構成にすることによって、誘導集電装
置にて利用したい空間高調波磁界の2倍の高調波成分磁
界による速度起電力を消去することにより、3相回路の
速度起電力の振幅及び位相のバランスの崩れをなくし、
集電電力の低下を防止する誘導集電装置を提供すること
を目的とする。
According to the present invention, the above-mentioned problems are eliminated, and the current-collecting coil is shifted from the coil connected to the three-phase pole by the magnetic pole pitch of the magnetic field whose position is to be used, with respect to the coil.
In addition, by making the winding direction opposite and combining the coils connected in three-phase poles, the velocity electromotive force due to the harmonic component magnetic field twice as high as the spatial harmonic magnetic field to be used in the inductive current collector is obtained. By eliminating, the three-phase circuit eliminates the imbalance in the amplitude and phase of the speed electromotive force,
It is an object of the present invention to provide an inductive power collecting device that prevents a reduction in power collected.

【0016】[0016]

【課題を解決するための手段】本発明は、上記目的を達
成するために、 〔1〕超電導磁気浮上式鉄道の車上電源として使用され
る誘導集電装置において、3相隔極接続されたコイル
と、このコイルに対して、その位置を利用したい磁界の
磁極ピッチずらし、またその巻線方向を反対にして、前
記3相隔極接続したコイルを組み合わせた集電コイル配
置を有するものである。 〔2〕超電導磁気浮上式鉄道の車上電源として使用され
る誘導集電装置において、車両の台車の進行方向にて、
3相隔極接続されたコイルと、このコイルに対して、そ
の位置を利用したい磁界の磁極ピッチ分ずらし、またそ
の巻線方向を反対にして、前記3相隔極接続したコイル
を組み合わせた集電コイル配置を有するものである。 〔3〕超電導磁気浮上式鉄道の車上電源として使用され
る誘導集電装置において、車両の台車の左右にて、3相
隔極接続されたコイルと、このコイルに対して、その位
置を利用したい磁界の磁極ピッチ分ずらし、またその巻
線方向を反対にして、前記3相隔極接続したコイルを組
み合わせた集電コイル配置を有するものである。
SUMMARY OF THE INVENTION In order to achieve the above object, the present invention provides: [1] a coil connected in three-phase poles in an induction current collector used as an on-board power supply of a superconducting magnetic levitation railway. With respect to this coil, there is provided a collector coil arrangement in which the position is shifted by the magnetic pole pitch of the magnetic field to be used, and the winding direction is reversed, and the coils connected with the three-phase separated poles are combined. [2] In an induction current collector used as an on-board power supply of a superconducting magnetic levitation railway, in a traveling direction of a bogie of the vehicle,
A three-phase-separated-coil-collecting coil and a current-collecting coil combining the three-phase-separated-coiled coil with its position shifted by the magnetic pole pitch of the magnetic field to be used and its winding direction reversed. It has an arrangement. [3] In an induction current collector used as an on-board power source of a superconducting magnetic levitation railway, it is desired to use coils connected to three-phase poles on the left and right sides of a bogie of the vehicle and the positions of the coils. A current collecting coil arrangement is provided in which the three-phase-separated coils are combined with the magnetic field shifted by the magnetic pole pitch and the winding direction is reversed.

【0017】[0017]

【発明の実施の形態】以下、本発明の実施の形態につい
て図面を参照しながら説明する、図1は本発明の第1実
施例を示す誘導集電装置における各コイルの車両の進行
方向の配置の模式図である。
DESCRIPTION OF THE PREFERRED EMBODIMENTS Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 shows an arrangement of coils in an induction current collector according to a first embodiment of the present invention in a traveling direction of a vehicle. FIG.

【0018】この図において、101は超電導コイル、
102は浮上コイル、103A,103B,103B′
は集電コイル、104は車両の台車である。
In this figure, 101 is a superconducting coil,
102 is a floating coil, 103A, 103B, 103B '
Is a current collecting coil, and 104 is a truck of the vehicle.

【0019】この実施例の誘導集電装置は、図1に示す
ように、車両の台車104の両側に設けられる低温容器
外槽(図示なし)の内部に搭載される超電導コイル10
1が極ピッチτを有するように配置される。
As shown in FIG. 1, the induction current collector of this embodiment is a superconducting coil 10 mounted inside a low-temperature container outer tank (not shown) provided on both sides of a truck 104 of a vehicle.
1 are arranged to have a pole pitch τ.

【0020】一方、地上側のガイドウェイ側壁(図示な
し)に配置される浮上コイル102は、前記超電導コイ
ル極ピッチτの2/3ピッチを有するように配置され
る。
On the other hand, the levitation coils 102 disposed on the guideway side walls (not shown) on the ground side are disposed so as to have a pitch of 2/3 of the superconducting coil pole pitch τ.

【0021】また、集電コイル103A、103B、1
03B′は、超電導コイル101と浮上コイル102間
に位置し、車両の台車104に設けられる低温容器外槽
(図示なし)の表面に、2層に配置される。
The current collecting coils 103A, 103B, 1
03B 'is located between the superconducting coil 101 and the levitation coil 102, and is arranged in two layers on the surface of a low-temperature container outer tank (not shown) provided on the truck 104 of the vehicle.

【0022】この場合、浮上コイル102は(3n±
1)次の空間高調波磁界(nは正の整数)を発生し、そ
の空間高調波磁界は低次調波ほど大きく、2次及び4次
の空間高調波磁界が大きい。そのため、2次空間高調波
による速度起電力が得られるように、集電コイル103
Aの磁極ピッチを、その空間高調波磁界に対応するτ/
2とし、また集電コイル103Aを3相回路にするた
め、集電コイル103Aのコイルピッチτ2 をτ/3と
する。集電コイル103Bは、集電コイル103Aに対
して、その位置を2次の空間高調波磁界の磁極ピッチで
あるτ/2ずらし、その巻線方向を反対にし(図の−は
反対向きであることを示す)、図に示すような3相回路
を構成する。この場合、集電コイル103Bは、集電コ
イル103Aに対して、その位置が2次の空間高調波磁
界の磁極ピッチ分ずれているので、集電コイル103A
と反対向きの2次の空間高調波磁界が鎖交することとな
り、またその巻線方向が反対であるため、最終的に、そ
の速度起電力は集電コイル103Aと同位相のものが得
られる。
In this case, the floating coil 102 is (3n ±
1) The next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is larger for lower harmonics, and the second and fourth spatial harmonic magnetic fields are larger. Therefore, the current collecting coil 103 is set so that the speed electromotive force due to the second spatial harmonic is obtained.
The magnetic pole pitch of A is given by τ /
2, and the coil pitch τ 2 of the current collecting coil 103A is set to τ / 3 in order to form the current collecting coil 103A into a three-phase circuit. The position of the current collecting coil 103B is shifted from the current collecting coil 103A by τ / 2, which is the magnetic pole pitch of the secondary spatial harmonic magnetic field, and the winding direction is reversed (-in the figure is opposite direction). And a three-phase circuit as shown in the figure. In this case, the position of the current collecting coil 103B is shifted from the current collecting coil 103A by the magnetic pole pitch of the secondary spatial harmonic magnetic field.
The secondary spatial harmonic magnetic field in the opposite direction is linked, and the winding direction is opposite, so that the velocity electromotive force finally has the same phase as that of the current collecting coil 103A. .

【0023】一方、4次の空間高調波磁界に関して、集
電コイル103Bは、集電コイル103Aに対して、そ
の位置が4次の空間高調波磁界の磁極ピッチτ/4の2
倍ずれているので、集電コイル103Aと同じ向きの4
次の空間高調波磁界が鎖交することとなり、またその巻
線方向が反対であるため、最終的に、その速度起電力は
集電コイル103Aと逆位相のものが得られ、消去され
る。
On the other hand, with respect to the fourth-order spatial harmonic magnetic field, the position of the current collecting coil 103B is equal to that of the current collecting coil 103A by two times the magnetic pole pitch τ / 4 of the fourth-order spatial harmonic magnetic field.
Since it is twice as large, the same direction as the current collecting coil 103A
The next spatial harmonic magnetic field is linked and the winding direction is opposite, so that the velocity electromotive force finally has a phase opposite to that of the current collecting coil 103A and is eliminated.

【0024】なお、この実施例の配置において、集電コ
イル103Bの両端にある集電コイル103B′は、集
電コイル103A,103Bと比較して、その長さが短
く、またそのピッチが異なるので、その速度起電力の振
幅、位相が若干異なることになるが、集電コイル全体か
ら見ると、その数量は少ないので、その影響はほとんど
ない。
In the arrangement of this embodiment, the current collecting coils 103B 'at both ends of the current collecting coil 103B have a shorter length and a different pitch than the current collecting coils 103A and 103B. Although the amplitude and the phase of the speed electromotive force are slightly different, the number is small when viewed from the entire current collecting coil, so that there is almost no influence.

【0025】すなわち、この実施例の集電コイル配置に
よれば、不必要な4次の空間高調波磁界による速度起電
力が発生せず、利用したい2次の空間高調波磁界による
速度起電力のみが得られるため、従来のように3相回路
の速度起電力の振幅及び位相のバランスが崩れることな
く、その結果、その集電電力が低下しないことになる。
That is, according to the current collecting coil arrangement of this embodiment, unnecessary speed electromotive force due to the fourth spatial harmonic magnetic field is not generated, and only the speed electromotive force due to the secondary spatial harmonic magnetic field to be used is used. Is obtained, the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit is not disturbed unlike the related art, and as a result, the collected power does not decrease.

【0026】図2は本発明の第2実施例を示す誘導集電
装置における各コイルの車両の進行方向の配置の模式図
である。
FIG. 2 is a schematic diagram showing the arrangement of coils in the vehicle traveling direction in an induction current collector according to a second embodiment of the present invention.

【0027】この図において、201は超電導コイル、
202は浮上コイル、203A,203Bは集電コイ
ル、204は車両の台車である。
In this figure, 201 is a superconducting coil,
202 is a floating coil, 203A and 203B are current collecting coils, and 204 is a vehicle bogie.

【0028】この実施例の誘導集電装置は、図2に示す
ように、車両の台車204の両側に設けられる低温容器
外槽(図示なし)の内部に搭載される超電導コイル20
1が極ピッチτを有するように配置される。
As shown in FIG. 2, the induction current collector of this embodiment includes a superconducting coil 20 mounted inside a low-temperature container outer tank (not shown) provided on both sides of a bogie 204 of a vehicle.
1 are arranged to have a pole pitch τ.

【0029】一方、地上側のガイドウェイ側壁(図示な
し)に配置される浮上コイル202は、前記超電導コイ
ル極ピッチτの2/3ピッチを有するように配置され
る。
On the other hand, the levitation coils 202 arranged on the guideway side walls (not shown) on the ground side are arranged to have a pitch of 2/3 of the superconducting coil pole pitch τ.

【0030】集電コイル203A,203Bは、第1実
施例の集電コイル103A,103Bと比較して、その
長さが短いため、超電導コイル201と浮上コイル20
2間に位置し、車両の台車204に設けられる低温容器
外槽(図示なし)の表面に、1層に配置される。
The current collecting coils 203A and 203B are shorter in length than the current collecting coils 103A and 103B of the first embodiment.
It is located between the two, and is arranged in one layer on the surface of a low-temperature container outer tank (not shown) provided on the bogie 204 of the vehicle.

【0031】この場合、浮上コイル202は(3n±
1)次の空間高調波磁界(nは正の整数)を発生し、そ
の空間高調波磁界は低次調波ほど大きく、2次及び4次
の空間高調波磁界が大きい。そのため、2次空間高調波
による速度起電力が得られるように、集電コイル203
Aの磁極ピッチを、その空間高調波磁界に対応するτ/
2とし、また集電コイル203Aを3相回路にするた
め、集電コイル203Aのコイルピッチτ2 をτ/3と
する。
In this case, the floating coil 202 is (3n ±
1) The next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is larger for lower harmonics, and the second and fourth spatial harmonic magnetic fields are larger. Therefore, the current collecting coil 203 is set so that the speed electromotive force due to the second spatial harmonic is obtained.
The magnetic pole pitch of A is given by τ /
2, and the coil pitch τ 2 of the current collecting coil 203A is set to τ / 3 in order to make the current collecting coil 203A a three-phase circuit.

【0032】集電コイル203Bは、集電コイル203
Aに対して、その位置を2次の空間高調波磁界の磁極ピ
ッチであるτ/2分ずらし、その巻線方向を反対にし
(図の−は反対向きであることを示す)、図に示すよう
な3相回路を構成する。この場合、集電コイル203B
は、集電コイル203Aに対して、その位置が2次の空
間高調波磁界の磁極ピッチ分ずれているので、集電コイ
ル203Aと反対向きの2次の空間高調波磁界が鎖交す
ることとなり、またその巻線方向が反対であるため、最
終的に、その速度起電力は集電コイル203Aと同位相
のものが得られる。
The current collecting coil 203B is
With respect to A, the position is shifted by τ / 2, which is the magnetic pole pitch of the second spatial harmonic magnetic field, the winding direction is reversed (-in the figure indicates the opposite direction), and shown in the figure. Such a three-phase circuit is configured. In this case, the current collecting coil 203B
Means that the position is shifted by the magnetic pole pitch of the secondary spatial harmonic magnetic field with respect to the current collecting coil 203A, so that the secondary spatial harmonic magnetic field opposite to the current collecting coil 203A is linked. Since the winding directions are opposite, the speed electromotive force finally has the same phase as that of the current collecting coil 203A.

【0033】一方、4次の空間高調波磁界に関して、集
電コイル203Bは、集電コイル203Aに対して、そ
の位置が4次の空間高調波磁界の磁極ピッチの2倍ずれ
ているので、集電コイル203Aと同じ向きの4次の空
間高調波磁界が鎖交することになり、またその巻線方向
が反対であるため、最終的に、その速度起電力は集電コ
イル203Aと逆位相のものが得られ、消去される。
On the other hand, regarding the fourth spatial harmonic magnetic field, the position of the current collecting coil 203B is shifted from the current collecting coil 203A by twice the magnetic pole pitch of the fourth spatial harmonic magnetic field. Since the fourth-order spatial harmonic magnetic field in the same direction as the current coil 203A is interlinked, and its winding direction is opposite, the velocity electromotive force eventually has an opposite phase to the current collection coil 203A. Things are obtained and erased.

【0034】すなわち、この実施例の集電コイル配置に
よれば、不必要な4次の空間高調波磁界による速度起電
力が発生せず、利用したい2次の空間高調波磁界による
速度起電力のみが得られるため、従来のように、3相回
路の速度起電力の振幅及び位相のバランスが崩れること
なく、その結果、その集電電力が低下しないことにな
る。
In other words, according to the current collecting coil arrangement of this embodiment, no unnecessary speed electromotive force due to the fourth spatial harmonic magnetic field is generated, and only the speed electromotive force due to the secondary spatial harmonic magnetic field to be used is used. Is obtained, the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit is not lost as in the related art, and as a result, the collected power does not decrease.

【0035】図3は本発明の第3実施例を示す誘導集電
装置における各コイルの車両の進行方向の配置の模式図
である。
FIG. 3 is a schematic view showing the arrangement of coils in the traveling direction of a vehicle in an induction current collector according to a third embodiment of the present invention.

【0036】この図において、301は超電導コイル、
302は浮上コイル、303A,303B,303
A′,303B′は集電コイル、304は車両の台車で
ある。
In this figure, 301 is a superconducting coil,
302 is a floating coil, 303A, 303B, 303
A 'and 303B' are current collecting coils, and 304 is a truck of the vehicle.

【0037】この実施例の誘導集電装置は、図3に示す
ように、車両の台車304の両側に設けられる低温容器
外槽(図示なし)の内部に搭載される超電導コイル30
1が極ピッチτを有するように配置される。
As shown in FIG. 3, the induction current collector of this embodiment is a superconducting coil 30 mounted inside a low-temperature container outer tank (not shown) provided on both sides of a truck 304 of a vehicle.
1 are arranged to have a pole pitch τ.

【0038】一方、地上側のガイドウェイ側壁(図示な
し)に配置される浮上コイル302は、前記超電導コイ
ル極ピッチτの2/3ピッチを有するように配置され
る。
On the other hand, the levitation coils 302 arranged on the guideway side walls (not shown) on the ground side are arranged so as to have a pitch of 2/3 of the superconducting coil pole pitch τ.

【0039】集電コイル303A,303A′は、超電
導コイル301と浮上コイル302間に位置し、車両の
台車前側に設けられる低温容器外槽(図示なし)の表面
に、1層に配置される。また、集電コイル303B,3
03B′は、超電導コイル301と浮上コイル302間
に位置し、車両の台車304の後ろ側に設けられる低温
容器外槽(図示なし)の表面に、1層に配置される。
The current collecting coils 303A and 303A 'are located between the superconducting coil 301 and the levitation coil 302, and are arranged in a single layer on the surface of a low-temperature vessel outer tank (not shown) provided in front of the bogie of the vehicle. In addition, the current collecting coils 303B, 3
03B 'is located between the superconducting coil 301 and the levitation coil 302, and is disposed in a single layer on the surface of a low-temperature container outer tank (not shown) provided on the rear side of the truck 304 of the vehicle.

【0040】この場合、浮上コイル302は(3n±
1)次の空間高調波磁界(nは正の整数)を発生し、そ
の空間高調波磁界は低次調波ほど大きく、2次及び4次
の空間高調波磁界が大きい。そのため、2次空間高調波
による速度起電力が得られるように、集電コイル303
Aの磁極ピッチを、その空間高調波磁界に対応するτ/
2とし、また、集電コイル303Aを3相回路にするた
め、集電コイル303Aのコイルピッチτ2 をτ/3と
する。
In this case, the floating coil 302 is (3n ±
1) The next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is larger for lower harmonics, and the second and fourth spatial harmonic magnetic fields are larger. Therefore, the current collecting coil 303 is set so that a speed electromotive force due to the second spatial harmonic is obtained.
The magnetic pole pitch of A is given by τ /
2, and the coil pitch τ 2 of the current collecting coil 303A is set to τ / 3 in order to make the current collecting coil 303A a three-phase circuit.

【0041】集電コイル303Bは、集電コイル303
Aに対して、その位置を2次の空間高調波磁界の磁極ピ
ッチであるτ/2ずらし(図中、集電コイル303Aか
ら2次の空間高調波磁界の磁極ピッチであるτ/2の4
倍ずれた位置は集電コイル303Aと同位相であり、そ
の位置からτ/2ずらし)、その巻線方向を反対にし
(図の−は反対向きであることを示す)、図に示すよう
な3相回路を構成する。
The current collecting coil 303B is different from the current collecting coil 303B.
With respect to A, the position is shifted by τ / 2, which is the magnetic pole pitch of the second-order spatial harmonic magnetic field (in the figure, four times of τ / 2, which is the magnetic pole pitch of the second-order spatial harmonic magnetic field, from the current collecting coil 303A).
The double-shifted position has the same phase as that of the current collecting coil 303A and is shifted by τ / 2 from the position), the winding direction is reversed (-in the drawing indicates the opposite direction), and as shown in the drawing. A three-phase circuit is configured.

【0042】この場合、集電コイル303Bは、集電コ
イル303Aに対して、その位置が2次の空間高調波磁
界の磁極ピッチ分ずれているので、集電コイル303A
と反対向きの2次の空間高調波磁界が鎖交することとな
り、また、その巻線方向が反対であるため、最終的に、
その速度起電力は集電コイル303Aと同位相のものが
得られる。
In this case, the position of the current collecting coil 303B is shifted from the current collecting coil 303A by the magnetic pole pitch of the secondary spatial harmonic magnetic field.
And the secondary spatial harmonic magnetic field in the opposite direction is linked, and since the winding direction is opposite, finally,
The speed electromotive force having the same phase as that of the current collecting coil 303A is obtained.

【0043】一方、4次の空間高調波磁界に関して、集
電コイル303Bは、集電コイル203Aに対して、そ
の位置が4次の空間高調波磁界の磁極ピッチの2倍ずれ
ているので、集電コイル303Aと同じ向きの4次の空
間高調波磁界が鎖交することとなり、また、その巻線方
向が反対であるため、最終的に、その速度起電力は集電
コイル303Aと逆位相のものが得られ、消去される。
On the other hand, regarding the fourth-order spatial harmonic magnetic field, the position of the current collecting coil 303B is shifted from the current collecting coil 203A by twice the magnetic pole pitch of the fourth-order spatial harmonic magnetic field. Since the fourth-order spatial harmonic magnetic field in the same direction as the current coil 303A is interlinked, and the winding direction is opposite, the velocity electromotive force eventually has an opposite phase to the current collection coil 303A. Things are obtained and erased.

【0044】なお、この実施例の集電コイル配置におい
て、集電コイル303Aと303Bの境目にある集電コ
イル303A′及び303B′は、集電コイル303
A,303Bと比較して、その長さが短く、また、その
ピッチが異なるので、その速度起電力の振幅、位相が若
干異なることになるが、集電コイル全体から見ると、そ
の数量は少ないので、その影響はほとんどない。
In the arrangement of the current collecting coils of this embodiment, the current collecting coils 303A 'and 303B' at the boundary between the current collecting coils 303A and 303B
A and 303B have shorter lengths and different pitches, so that the amplitude and phase of the speed electromotive force are slightly different, but the number is small when viewed from the entire current collecting coil. So it has little effect.

【0045】すなわち、この実施例の集電コイル配置に
よれば、従来のように不必要な4次の空間高調波磁界に
よる速度起電力が発生せず、利用したい2次の空間高調
波磁界による速度起電力のみが得られるため、3相回路
の速度起電力の振幅及び位相のバランスが崩れることな
く、その結果、その集電電力が低下しないこととなる。
That is, according to the current collecting coil arrangement of this embodiment, the speed electromotive force due to the unnecessary fourth-order spatial harmonic magnetic field is not generated unlike the related art, and the second-order spatial harmonic magnetic field to be used is not generated. Since only the speed electromotive force is obtained, the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit is not lost, and as a result, the collected power does not decrease.

【0046】図4は本発明の第4実施例を示す誘導集電
装置における各コイルの車両の進行方向の配置の模式図
である。
FIG. 4 is a schematic diagram showing the arrangement of each coil in the traveling direction of a vehicle in an induction current collector according to a fourth embodiment of the present invention.

【0047】この図において、401は超電導コイル、
402は浮上コイル、403A,403B,403B′
は集電コイル、404は車両の台車である。
In this figure, 401 is a superconducting coil,
402 is a floating coil, 403A, 403B, 403B '
Denotes a current collecting coil, and 404 denotes a bogie of the vehicle.

【0048】この実施例の誘導集電装置は、図4に示す
ように、車両の台車404の両側に設けられる低温容器
外槽(図示なし)の内部に搭載される超電導コイル40
1が極ピッチτを有するように配置される。
As shown in FIG. 4, the induction current collector of this embodiment is a superconducting coil 40 mounted inside a low-temperature container outer tank (not shown) provided on both sides of a truck 404 of a vehicle.
1 are arranged to have a pole pitch τ.

【0049】一方、地上側のガイドウェイ側壁(図示な
し)に配置される浮上コイル402は、前記超電導コイ
ル極ピッチτの2/3ピッチを有するように配置され
る。
On the other hand, the levitation coils 402 arranged on the guideway side walls (not shown) on the ground side are arranged to have a pitch of 2/3 of the superconducting coil pole pitch τ.

【0050】集電コイル403Aは、超電導コイル40
1と浮上コイル402間に位置し、車両の台車右側に設
けられる低温容器外槽(図示なし)の表面に、1層に配
置される。また、集電コイル403Bは、超電導コイル
401と浮上コイル402間に位置し、車両の台車40
4の左側に設けられる低温容器外槽(図示なし)の表面
に、1層に配置される。
The current collecting coil 403A is connected to the superconducting coil 40
1 and the levitation coil 402, and is disposed in a single layer on the surface of a low-temperature container outer tank (not shown) provided on the right side of the bogie of the vehicle. The current collecting coil 403B is located between the superconducting coil 401 and the floating coil 402,
4 are arranged in a single layer on the surface of a low-temperature container outer tank (not shown) provided on the left side of 4.

【0051】この場合、浮上コイル402は(3n±
1)次の空間高調波磁界(nは正の整数)を発生し、そ
の空間高調波磁界は低次調波ほど大きく、2次及び4次
の空間高調波磁界が大きい。そのため、2次空間高調波
による速度起電力が得られるように、集電コイル403
Aの磁極ピッチを、その空間高調波磁界に対応するτ/
2とし、また、集電コイル403Aを3相回路にするた
め、集電コイル403Aのコイルピッチτ2 をτ/3と
する。集電コイル403Bは、集電コイル403Aに対
して、その位置を2次の空間高調波磁界の磁極ピッチで
あるτ/2ずらし、その巻線方向を反対にし(図の−は
反対向きであることを示す)、図に示すような3相回路
を構成する。
In this case, the floating coil 402 is (3n ±
1) The next spatial harmonic magnetic field (n is a positive integer) is generated, and the spatial harmonic magnetic field is larger for lower harmonics, and the second and fourth spatial harmonic magnetic fields are larger. Therefore, the current collecting coil 403 is set so that the speed electromotive force due to the second spatial harmonic is obtained.
The magnetic pole pitch of A is given by τ /
2, and the coil pitch τ 2 of the current collecting coil 403A is set to τ / 3 in order to form the current collecting coil 403A into a three-phase circuit. The position of the current collecting coil 403B is shifted from the current collecting coil 403A by τ / 2, which is the magnetic pole pitch of the secondary spatial harmonic magnetic field, and the winding direction is reversed (-in the drawing is the opposite direction). And a three-phase circuit as shown in the figure.

【0052】この場合、集電コイル403Bは、集電コ
イル403Aに対して、その位置が2次の空間高調波磁
界の磁極ピッチずれているので、集電コイル403Aと
反対向きの2次の空間高調波磁界が鎖交することとな
り、また、その巻線方向が反対であるため、最終的に、
その速度起電力は集電コイル403Aと同位相のものが
得られる。
In this case, since the position of the current collecting coil 403B is shifted from the current collecting coil 403A by the magnetic pole pitch of the secondary spatial harmonic magnetic field, the secondary space is opposite to the current collecting coil 403A. Since the harmonic magnetic fields are linked and the winding directions are opposite, eventually,
The speed electromotive force having the same phase as that of the current collecting coil 403A is obtained.

【0053】一方、4次の空間高調波磁界に関して、集
電コイル403Bは、その位置が4次の空間高調波磁界
の磁極ピッチの2倍ずれているので、集電コイル403
Aと同じ向きの4次の空間高調波磁界が鎖交することに
なり、またその巻線方向が反対であるため、最終的に、
その速度起電力は集電コイル403Aと逆位相のものが
得られ、消去される。
On the other hand, with respect to the fourth spatial harmonic magnetic field, the position of the current collecting coil 403B is shifted by twice the magnetic pole pitch of the fourth spatial harmonic magnetic field.
A fourth-order spatial harmonic magnetic field in the same direction as A will be linked, and since the winding directions are opposite, eventually,
The speed electromotive force having a phase opposite to that of the current collecting coil 403A is obtained and erased.

【0054】なお、この実施例の集電コイル配置におい
て、集電コイル403Bの両端にある集電コイル403
B′は、集電コイル403A,403Bと比較して、そ
の長さが短く、またそのピッチが異なるので、その速度
起電力の振幅、位相が若干異なることになるが、集電コ
イル全体から見ると、その数量は少ないので、その影響
はほとんどない。
In the current collecting coil arrangement of this embodiment, the current collecting coils 403 at both ends of the current collecting coil 403B are provided.
B ′ has a shorter length and a different pitch as compared with the current collecting coils 403A and 403B, so that the amplitude and the phase of the speed electromotive force are slightly different, but as seen from the entire current collecting coil. And because the quantity is small, there is almost no effect.

【0055】すなわち、この実施例の集電コイル配置に
よれば、不必要な4次の空間高調波磁界による速度起電
力が発生せず、利用したい2次の空間高調波磁界による
速度起電力のみが得られるため、従来のように3相回路
の速度起電力の振幅及び位相のバランスが崩れることな
く、その結果、その集電電力が低下しない。
In other words, according to the current collecting coil arrangement of this embodiment, no unnecessary speed electromotive force due to the fourth-order spatial harmonic magnetic field is generated, and only the speed electromotive force due to the second-order spatial harmonic magnetic field to be used is used. Is obtained, the balance between the amplitude and the phase of the speed electromotive force of the three-phase circuit is not lost unlike the related art, and as a result, the collected power does not decrease.

【0056】なお、上記した第1実施例から第4実施例
では、集電コイルが超電導コイルと浮上コイルの間に設
けられる場合を示したが、これに限定されるものではな
い。
In the first to fourth embodiments described above, the case where the current collecting coil is provided between the superconducting coil and the levitation coil has been described. However, the present invention is not limited to this.

【0057】また、浮上コイルのピッチが、超電導コイ
ルの種ピッチτの2/3である場合を示したが、これに
限定されるものではない。
Although the case where the pitch of the floating coil is 2/3 of the seed pitch τ of the superconducting coil has been described, the present invention is not limited to this.

【0058】更に、台車左右の超電導コイルの向きが反
対である例を示したが、これに限定されるものではな
い。
Further, an example has been shown in which the directions of the superconducting coils on the left and right sides of the bogie are opposite, but the present invention is not limited to this.

【0059】なお、本発明は上記実施例に限定されるも
のではなく、本発明の趣旨に基づいて種々の変形が可能
であり、これらを本発明の範囲から排除するものではな
い。
The present invention is not limited to the above-described embodiment, and various modifications can be made based on the gist of the present invention, and these are not excluded from the scope of the present invention.

【0060】[0060]

【発明の効果】以上、詳細に説明したように、本発明に
よれば、利用したい空間高調波磁界の2倍で、不必要な
空間高調波磁界による速度起電力は消去され、誘導集電
装置にて利用したい空間高調波磁界による速度起電力の
みが得られるため、3相回路の速度起電力の振幅及び位
相のバランスが崩れることなく、その集電電力が低下し
ない。その結果、浮上コイルのコストを低減できるた
め、そのコイルピッチを拡大した場合においても、良好
な集電特性を得ることができる。
As described above in detail, according to the present invention, the speed electromotive force due to the unnecessary spatial harmonic magnetic field is twice as large as the spatial harmonic magnetic field to be used, and the inductive current collector is eliminated. Since only the speed electromotive force due to the spatial harmonic magnetic field desired to be used is obtained, the balance of the amplitude and phase of the speed electromotive force of the three-phase circuit is not lost, and the collected power does not decrease. As a result, the cost of the levitation coil can be reduced, so that good current collection characteristics can be obtained even when the coil pitch is increased.

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

【図1】本発明の第1実施例を示す誘導集電装置におけ
る各コイルの車両の進行方向の配置の模式図である。
FIG. 1 is a schematic diagram of an arrangement of coils in a traveling direction of a vehicle in an induction current collector according to a first embodiment of the present invention.

【図2】本発明の第2実施例を示す誘導集電装置におけ
る各コイルの車両の進行方向の配置の模式図である。
FIG. 2 is a schematic diagram of an arrangement of coils in a traveling direction of a vehicle in an induction current collector according to a second embodiment of the present invention.

【図3】本発明の第3実施例を示す誘導集電装置におけ
る各コイルの車両の進行方向の配置の模式図である。
FIG. 3 is a schematic diagram of an arrangement of coils in a traveling direction of a vehicle in an induction current collector according to a third embodiment of the present invention.

【図4】本発明の第4実施例を示す誘導集電装置におけ
る各コイルの車両の進行方向の配置の模式図である。
FIG. 4 is a schematic view of an arrangement of each coil in a traveling direction of a vehicle in an induction current collector according to a fourth embodiment of the present invention.

【図5】従来の誘導集電装置の基本全体構成を示す模式
図である。
FIG. 5 is a schematic diagram showing a basic overall configuration of a conventional induction current collector.

【図6】浮上コイルのピッチτ1 が超電導コイルの極ピ
ッチτの1/3とした場合の従来の誘導集電装置におけ
る台車片側の各コイルの進行方向の配置の模式図であ
る。
FIG. 6 is a schematic view of the arrangement of each coil on one side of a bogie in a conventional induction current collector when the pitch τ 1 of the levitation coil is set to 1 / of the pole pitch τ of the superconducting coil.

【図7】浮上コイルのピッチτ1 が超電導コイルの極ピ
ッチτの2/3とした場合の従来の誘導集電装置におけ
る台車片側の各コイルの進行方向の配置の模式図であ
る。
FIG. 7 is a schematic diagram of the arrangement of each coil on one side of a bogie in a conventional induction current collector when the pitch τ 1 of the levitation coil is / of the pole pitch τ of the superconducting coil.

【符号の説明】[Explanation of symbols]

101,201,301,401 超電導コイル 102,202,302,402 浮上コイル 103A,103B,103B′,203A,203
B,303A,303B,303A′,303B′,4
03A,403B,403B′ 集電コイル 104,204,304,404 車両の台車
101, 201, 301, 401 Superconducting coils 102, 202, 302, 402 Levitating coils 103A, 103B, 103B ', 203A, 203
B, 303A, 303B, 303A ', 303B', 4
03A, 403B, 403B 'Current collecting coil 104, 204, 304, 404

Claims (3)

【特許請求の範囲】[Claims] 【請求項1】 超電導磁気浮上式鉄道の車上電源として
使用される誘導集電装置において、 3相隔極接続されたコイルと、該コイルに対して、その
位置を利用したい磁界の磁極ピッチ分ずらし、またその
巻線方向を反対にして、前記3相隔極接続したコイルを
組み合わせた集電コイル配置を有することを特徴とする
誘導集電装置。
1. An induction current collector used as an on-board power source of a superconducting magnetic levitation railway, wherein a coil connected in three-phase separation and a position of the coil are shifted by a magnetic pole pitch of a magnetic field whose position is to be used. An induction current collector having a current collecting coil arrangement in which the winding directions are reversed and the coils connected in three-phase separation are combined.
【請求項2】 超電導磁気浮上式鉄道の車上電源として
使用される誘導集電装置において、 車両の台車の進行方向にて、3相隔極接続されたコイル
と、該コイルに対して、その位置を利用したい磁界の磁
極ピッチ分ずらし、またその巻線方向を反対にして、前
記3相隔極接続したコイルを組み合わせた集電コイル配
置を有することを特徴とする誘導集電装置。
2. An induction current collector used as an on-board power supply of a superconducting magnetic levitation railway, comprising: a coil connected in three-phase separation in a traveling direction of a bogie of the vehicle; A current collecting coil arrangement in which the three-phase-separated coils are combined by shifting the magnetic pole pitch of the magnetic field to be used and by reversing the winding direction.
【請求項3】 超電導磁気浮上式鉄道の車上電源として
使用される誘導集電装置において、 車両の台車の左右にて、3相隔極接続されたコイルと、
該コイルに対して、その位置を利用したい磁界の磁極ピ
ッチ分ずらし、またその巻線方向を反対にして、前記3
相隔極接続したコイルを組み合わせた集電コイル配置を
有することを特徴とする誘導集電装置。
3. An induction current collector used as an on-board power supply of a superconducting magnetic levitation railway, comprising:
With respect to the coil, the position is shifted by the magnetic pole pitch of the magnetic field to be used, and the winding direction is reversed.
An induction current collector having a current collecting coil arrangement in which coils connected in phase separation are combined.
JP06182199A 1999-03-09 1999-03-09 Induction current collector Expired - Fee Related JP3592573B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP06182199A JP3592573B2 (en) 1999-03-09 1999-03-09 Induction current collector

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP06182199A JP3592573B2 (en) 1999-03-09 1999-03-09 Induction current collector

Publications (2)

Publication Number Publication Date
JP2000261902A true JP2000261902A (en) 2000-09-22
JP3592573B2 JP3592573B2 (en) 2004-11-24

Family

ID=13182141

Family Applications (1)

Application Number Title Priority Date Filing Date
JP06182199A Expired - Fee Related JP3592573B2 (en) 1999-03-09 1999-03-09 Induction current collector

Country Status (1)

Country Link
JP (1) JP3592573B2 (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2009284695A (en) * 2008-05-23 2009-12-03 Kawasaki Plant Systems Ltd Insulating power feeding device for moving body

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2009284695A (en) * 2008-05-23 2009-12-03 Kawasaki Plant Systems Ltd Insulating power feeding device for moving body
JP4536131B2 (en) * 2008-05-23 2010-09-01 カワサキプラントシステムズ株式会社 Insulated power feeder for moving objects

Also Published As

Publication number Publication date
JP3592573B2 (en) 2004-11-24

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