JPH04300773A - Method and device for controlling axle box supporting rigidity of truck on railway rolling stock - Google Patents

Method and device for controlling axle box supporting rigidity of truck on railway rolling stock

Info

Publication number
JPH04300773A
JPH04300773A JP8964391A JP8964391A JPH04300773A JP H04300773 A JPH04300773 A JP H04300773A JP 8964391 A JP8964391 A JP 8964391A JP 8964391 A JP8964391 A JP 8964391A JP H04300773 A JPH04300773 A JP H04300773A
Authority
JP
Japan
Prior art keywords
bogie
axle
rigidity
axle box
vehicle
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
JP8964391A
Other languages
Japanese (ja)
Other versions
JP3020638B2 (en
Inventor
Koichi Yamada
幸一 山田
Kakumi Mori
加久見 森
Tetsuo Meji
目時 哲郎
Kazuaki Hino
日野 和明
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.)
Nippon Steel Corp
Central Japan Railway Co
Original Assignee
Sumitomo Metal Industries Ltd
Central Japan Railway Co
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 Sumitomo Metal Industries Ltd, Central Japan Railway Co filed Critical Sumitomo Metal Industries Ltd
Priority to JP3089643A priority Critical patent/JP3020638B2/en
Publication of JPH04300773A publication Critical patent/JPH04300773A/en
Application granted granted Critical
Publication of JP3020638B2 publication Critical patent/JP3020638B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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Abstract

PURPOSE:To reduce lateral pressure of a front shaft outer track side at the time of passing a curved railway by switching for control steering device supporting rigidity, which uses front and rear asymmetric rigidity supporting method, of a front shaft side and a rear shaft side separately. CONSTITUTION:Air springs 5 of a front shaft 3 side and air springs 6 of a rear shaft 4 side of a front truck 1 and a rear truck 2 are connected respectively by separate pipelines 7, 8, and they are connected to a main air reservoir 14 by a pipeline 15 through solenoid valves 9, 10. The solenoid valves 9, 10 are switched by a forward and backward switching relay 11. Supporting rigidity of the front shaft side and the rear shaft side are separately controlled. Consequently, a steering device is operated effectively by a simple control equipment in response to the condition of a track.

Description

【発明の詳細な説明】[Detailed description of the invention]

【0001】0001

【産業上の利用分野】この発明は鉄道車両用台車の軸箱
支持装置において、軸箱支持前後剛性を線路状況に応じ
て制御するための制御装置およびその制御方法に関する
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a control device and method for controlling the longitudinal rigidity of the axle box support in accordance with track conditions in an axle box support device for a bogie for a railway vehicle.

【0002】0002

【従来の技術】旅客車両の大型化と走行性能の向上に伴
い、台車はすべて2軸以上のボギー台車が使用されてお
り、車体の曲線通過が容易にできるように構成されてい
る。
BACKGROUND OF THE INVENTION As passenger vehicles have become larger and their running performance has improved, bogies with two or more axles have been used for all bogies, and are constructed so that the vehicle body can easily pass through curves.

【0003】鉄道車両は、曲線を通過するとき、車輪が
転動する方向とレールの方向が常に一致しておれば、ス
ムーズな曲線通過ができる。近年来そのための自己操舵
台車が研究されている。
[0003] When a railway vehicle passes through a curve, if the direction in which the wheels roll and the direction of the rail always match, the railway vehicle can smoothly pass through the curve. Self-steering carts for this purpose have been researched in recent years.

【0004】車軸をラジアル方向に自己操舵させるには
、一般に軸箱を前後方向に対し柔支持する必要がある。 しかし、一方、舵行動に対しては、前後方向に軸箱を剛
支持することが望ましい。したがって、この相矛盾する
特性を両立させる必要がある。
[0004] In order to self-steering the axle in the radial direction, it is generally necessary to flexibly support the axle box in the longitudinal direction. However, on the other hand, for steering action, it is desirable to rigidly support the axle box in the longitudinal direction. Therefore, it is necessary to reconcile these contradictory characteristics.

【0005】従来の自己操舵台車としては、前後の輪軸
と軸箱をそれぞれサブフレームに取付け、対角上にクロ
スアンカーで前後を結ぶ構成としており、曲線上で一方
の輪軸がレールに沿って曲げ変位を起こすと、クロスア
ンカーのリンク作用によって他方の輪軸が反対方向に曲
げ変位を強制され、スムーズに前後の輪軸がラジアル位
置をとるような仕組みになっている。そして、直線路で
は互いにリンクによって拘束され剛支持となり、蛇行動
に有利とされている。
[0005] Conventional self-steering bogies have a structure in which the front and rear wheel sets and axle boxes are each attached to a subframe, and the front and rear wheels are connected diagonally with cross anchors, so that one wheel set bends along the rail on a curve. When displacement occurs, the link action of the cross anchor forces the other wheel set to bend in the opposite direction, allowing the front and rear wheel sets to smoothly assume their radial positions. On a straight road, they are restrained by links and rigidly supported, which is said to be advantageous for meandering behavior.

【0006】また、軸箱支持装置は、曲線路を安定して
通過するには前後方向支持剛性を減少させることが有効
である。そのため、従来より軸箱支持剛性を可変にして
輪軸の操舵を行なう機構が種々工夫されている。その中
の一つに図5に示す改良されたウイングばね型式の軸箱
支持装置がある。
[0006] Furthermore, in order for the axle box support device to stably pass through curved roads, it is effective to reduce the support rigidity in the longitudinal direction. For this reason, various mechanisms have been devised in the past for steering wheel axles by varying the axle box support rigidity. One of these is an improved wing spring type axle box support device shown in FIG.

【0007】すなわち、軸箱16の前後に設けたばね座
17に軸ばね18をはめ、その軸ばねのばね座19にテ
ーパー孔20を設ける。さらに、そのテーパー孔20の
周囲に積層ゴム21を設置する。そして、積層ゴム21
の上面は、台車の側ばり22に設けた支持枠23の下面
に当接する。
That is, the shaft spring 18 is fitted into spring seats 17 provided at the front and rear of the shaft box 16, and a tapered hole 20 is provided in the spring seat 19 of the shaft spring. Further, a laminated rubber 21 is installed around the tapered hole 20. And laminated rubber 21
The upper surface abuts the lower surface of a support frame 23 provided on the side beam 22 of the truck.

【0008】上記支持枠23には上部にピストン24の
上端部を摺動自在に支持する案内筒25が設けられ、ピ
ストン24にはめられる。そして、ピストン24の中央
部にフランジ状の支持部材27が設けられており、その
支持部材27上に設けたばね受座28と案内筒25の上
面との間にコイルばね29を設け、かつ支持枠23の下
側面とピストンの支持部材27との間に操舵装置用の空
気ばね30を介在する。
[0008] The support frame 23 is provided with a guide cylinder 25 on the upper part thereof, which slidably supports the upper end of the piston 24, and is fitted into the piston 24. A flange-shaped support member 27 is provided at the center of the piston 24, and a coil spring 29 is provided between a spring seat 28 provided on the support member 27 and the upper surface of the guide tube 25, and a support frame An air spring 30 for the steering device is interposed between the lower surface of the piston 23 and the piston support member 27.

【0009】この空気ばね30は通常は圧力空気が抜き
取られ、コイルばね29の復元力によりピストンの先端
テーパー部26はテーパー孔20に隙間なくはまり、通
常の直線高速走行に必要な支持剛性が与えられている。
Pressure air is normally extracted from the air spring 30, and due to the restoring force of the coil spring 29, the tapered end portion 26 of the piston fits into the tapered hole 20 without any gap, providing the support rigidity necessary for normal straight-line high-speed running. It is being

【0010】そして、前後方向の剛性を減少して曲線路
通過に必要な操舵性を得る際は、空気ばね30に圧力空
気を充填してコイルばね29の復元力に抗してピストン
24を押し上げ、テーパー孔20とピストンのテーパー
部26との間に隙間を生じさせる。
When the stiffness in the longitudinal direction is reduced to obtain the steering performance necessary for passing through a curved road, the air spring 30 is filled with pressurized air to push up the piston 24 against the restoring force of the coil spring 29. , a gap is created between the tapered hole 20 and the tapered portion 26 of the piston.

【0011】[0011]

【発明が解決しようとする課題】上記ウイングばね型式
の箱軸支持装置は、直線路走行時は剛支持とし、曲線路
通過時は前後方向に柔支持し制御され曲線通過が容易と
なる。しかし、その支持剛性の切換えは、手動で圧力空
気を空気ばねに充填または空気ばねから抜き取ることに
よりなされており、自動的に実施させることができなか
った。
The wing spring type box axle support device is rigidly supported when traveling on a straight road, and is flexibly supported in the longitudinal direction when traveling on a curved road, making it easier to travel on curved roads. However, the support rigidity can be changed by manually filling or extracting pressurized air into or from the air spring, and cannot be performed automatically.

【0012】この発明は、上記欠点を除き、曲線路通過
時の前軸外軌側の横圧を低減し、速度を向上できる箱軸
支持剛性制御装置およびその制御方法を提供するもので
ある。
[0012] The present invention provides a box shaft support rigidity control device and a control method therefor, which eliminates the above-mentioned drawbacks, reduces the lateral force on the front shaft outer track side when passing through a curved road, and improves speed.

【0013】[0013]

【課題を解決するための手段】上記目的を達成するため
、この発明の鉄道車両用台車の軸箱支持剛性制御装置は
、箱軸の前後に設けたばね座と側ばりとの間に、軸ばね
と前後方向に柔らかいばね性を有する積層ゴムを組合せ
てなる軸箱支持装置の前後方向支持剛性を変化させるた
めに、剛性を増加させる際の操作をコイルばねで行ない
、剛性を減少させる際の操作を空気ばねで行なうように
構成した操舵装置において、前台車と後台車の前軸側空
気ばねおよび前台車と後台車の後軸側空気ばねをそれぞ
れ別個の配管で接続し、かつ前後進切替えリレー回路に
より切替え自在の電磁弁を介して上記配管をそれぞれ元
空気溜に接続する。
[Means for Solving the Problems] In order to achieve the above object, the axle box support rigidity control device for a railway vehicle bogie of the present invention provides an axle box support rigidity control device for a bogie for a railway vehicle, in which an axle spring is provided between a spring seat provided at the front and rear of a box axle and a side beam. In order to change the longitudinal support rigidity of the axle box support device, which is made by combining laminated rubber with soft spring properties in the longitudinal direction, the operation to increase the rigidity is performed using a coil spring, and the operation to decrease the rigidity is performed using a coil spring. In a steering system configured to use air springs, the front axle side air springs of the front bogie and the rear bogie, and the rear axle side air springs of the front bogie and the rear bogie are connected through separate piping, and a forward/reverse switching relay is provided. Each of the pipes is connected to the source air reservoir via a solenoid valve that can be switched by a circuit.

【0014】上記軸箱支持剛性制御装置の制御方法は、
軸箱支持前後剛性を1車両中、前台車と後台車の前軸側
を常時柔支持とし、かつ前台車と後台車の後軸側を常時
剛支持に制御する。
The control method of the axle box support rigidity control device is as follows:
The longitudinal rigidity of the axle box support is controlled so that the front axle sides of the front bogie and the rear bogie are always supported in a flexible manner, and the rear axle sides of the front bogie and the rear bogie are always supported rigidly in one vehicle.

【0015】また、軸箱支持剛性制御装置の他の制御方
法は、車両の走行中に曲線路を検知し、曲線路通過時は
軸箱支持前後剛性を1車両中、前台車と後台車の前軸側
を柔支持とし、かつ前台車と後台車の後軸側を剛支持に
制御する。
Another control method for the axle box support rigidity control device is to detect a curved road while the vehicle is running, and when passing through the curved road, adjust the axle box support longitudinal rigidity of the front bogie and rear bogie of each vehicle. The front axle side is controlled to be a flexible support, and the rear axle sides of the front bogie and rear bogie are controlled to be rigid support.

【0016】[0016]

【作用】この発明の軸箱支持剛性制御装置は、車体に取
付けられた前後進切替えリレー回路の信号を電磁弁に伝
送することにより、自由自在に1車両中、前台車および
後台車の前軸側または後軸側の軸箱支持前後剛性を堅く
あるいは柔らかく制御することができる。
[Operation] The axle box support rigidity control device of the present invention transmits a signal from a forward/reverse switching relay circuit attached to the vehicle body to a solenoid valve, thereby freely controlling the front axle of the front bogie and rear bogie in one vehicle. The longitudinal rigidity of the axle box support on the side or rear axle side can be controlled to be stiff or soft.

【0017】また、前後進切替えリレー回路の接続部位
を変えることにより目的に応じて、軸箱支持前後剛性を
1車両中、前台車と後台車の前軸側を常時柔支持し、前
台車と後台車の後軸側を常時剛支持としたり、さらに直
線路走行時はすべての軸箱支持前後剛性を剛支持してい
るものを曲線路通過時には、1車両中、前台車と後台車
の前軸側を柔支持とし、前台車と後台車の後軸側を剛支
持に制御することができる。
Furthermore, by changing the connection part of the forward/reverse switching relay circuit, depending on the purpose, the front and rear axle box support rigidity can be adjusted so that the front axle sides of the front bogie and rear bogie are always supported flexibly in one vehicle, and the front bogie and The rear axle side of the rear bogie is always rigidly supported, and when traveling on a straight road, all the axle boxes are rigidly supported in the front and rear. The shaft side can be controlled as flexible support, and the rear axle sides of the front truck and rear truck can be controlled as rigid support.

【0018】以上の前後進切替えリレーの信号入力操作
は車上から迅速かつ確実に行われ、操舵装置を線路の状
況に応じて有効に作動させることができる。
The above-described signal input operation of the forward/reverse switching relay is performed quickly and reliably from onboard the vehicle, and the steering system can be operated effectively according to track conditions.

【0019】[0019]

【実施例】この発明の実施例を図面に基いて説明する。 図1はこの発明の実施による1車両の軸箱支持剛性制御
装置の要部を示す説明図であり、その軸箱支持装置は図
5に示すウイングばね型式のものを装備しているが、図
には前台車1および後台車2ともに軸箱支持装置に設け
た操舵装置用の空気ばね5、6のみで示した。
[Embodiment] An embodiment of the present invention will be explained based on the drawings. FIG. 1 is an explanatory diagram showing the main parts of an axle box support rigidity control device for a vehicle according to the present invention, and the axle box support device is equipped with the wing spring type shown in FIG. Both the front bogie 1 and the rear bogie 2 are shown with only air springs 5 and 6 for the steering device provided on the axle box support device.

【0020】図1において、前台車1および後台車2の
前軸3側の操舵装置用の空気ばね5、5を前軸側配管7
で接続し、同じく前台車1および後台車2の後軸4側の
操舵装置用の空気ばね6、6を後軸側配管8で接続する
。そして、それぞれの配管途中において電磁弁9、10
を有する配管15で元空気溜14に接続する。
In FIG. 1, the air springs 5, 5 for the steering device on the front axle 3 side of the front bogie 1 and the rear bogie 2 are connected to the front axle side piping 7.
Similarly, the air springs 6, 6 for the steering device on the rear axle 4 side of the front bogie 1 and the rear bogie 2 are connected via the rear axle side piping 8. Then, solenoid valves 9 and 10 are installed in the middle of each piping.
It is connected to the source air reservoir 14 through a piping 15 having a diameter.

【0021】上記電磁弁9、10は前後進切替えリレー
11に接続され、運転台に設けた切替えスイッチ(図面
省略)により切替えるように設ける。すなわち、前軸側
配管7の電磁弁9は前進用切替えリレー12に、後軸側
配管8の電磁弁10は後進用切替えリレー13に接続す
る。上記切替えリレー回路により、電磁弁9、10が励
磁状態の場合、元空気溜14より給気が行われ空気ばね
5、6すなわち図5に示す空気ばね30が膨張し、ピス
トン24はコイルばね29の復元力に抗して押し上げら
れ、テーパー孔20とテーパー部26の間に隙間が生じ
、軸箱前後方向支持は柔支持となる。また電磁弁9、1
0が消磁状態の場合、空気ばね5、6は排気状態となり
、図5においてコイルばね29の復元力によりピストン
24が押し上げられ軸箱前後方向支持は剛支持となる。
The electromagnetic valves 9 and 10 are connected to a forward/reverse switching relay 11, and are provided so as to be switched by a switch (not shown) provided in the driver's cab. That is, the solenoid valve 9 of the front shaft piping 7 is connected to the forward switching relay 12, and the solenoid valve 10 of the rear shaft piping 8 is connected to the reverse switching relay 13. When the solenoid valves 9 and 10 are in an excited state by the switching relay circuit, air is supplied from the source air reservoir 14, the air springs 5 and 6, that is, the air spring 30 shown in FIG. The axle box is pushed up against the restoring force, a gap is created between the tapered hole 20 and the tapered part 26, and the support in the longitudinal direction of the axle box becomes flexible support. Also, the solenoid valves 9, 1
0 is in the demagnetized state, the air springs 5 and 6 are in the exhaust state, and in FIG. 5, the piston 24 is pushed up by the restoring force of the coil spring 29, and the support in the longitudinal direction of the axle box becomes rigid support.

【0022】なお、電気系統にトラブルが生じた場合に
は、操舵装置用の各空気ばね5、6は排気状態に保たれ
軸箱前後方向支持は剛支持となるフェールセーフ機能を
有する。
[0022] In the event that a trouble occurs in the electrical system, each of the air springs 5 and 6 for the steering system is maintained in an exhaust state, and the axle box has a fail-safe function in which the longitudinal support is rigidly supported.

【0023】次に、上記軸箱支持剛性制御装置を使って
、この発明による制御方法の実施例を図2〜図4に基い
て説明する。図2は、1車両中前台車1と後台車2の前
軸3側の軸箱支持を常時柔支持とし、前台車1と後台車
2の後軸4側の軸箱支持を常時剛支持とする場合の一例
である。車両に取付けられている主電動機前後切替えリ
レー回路を操舵装置前後進切替えリレー回路に接続して
なり、運転台に取付けられている前後進切替えスイッチ
を操作することにより、自動的に1車両中前台車と後台
車の前軸側は柔支持し、前台車と後台車の後軸側は剛支
持とする。
Next, an embodiment of the control method according to the present invention using the axle box support rigidity control device described above will be described with reference to FIGS. 2 to 4. In Fig. 2, the axle box support on the front axle 3 side of the front bogie 1 and rear bogie 2 in one vehicle is always flexible support, and the axle box support on the rear axle 4 side of the front bogie 1 and rear bogie 2 is always rigid support. This is an example of a case where The traction motor forward/reverse switching relay circuit installed on the vehicle is connected to the steering device's forward/reverse switching relay circuit, and by operating the forward/reverse switching installed on the driver's cab, the forward/reverse switching of one vehicle is automatically performed. The front axle sides of the bogie and rear bogie are supported flexibly, and the rear axle sides of the front bogie and rear bogie are rigidly supported.

【0024】図3は、車両の走行中に曲線路を検知し、
曲線路通過時のみ1車両中前台車と後台車の前軸側を柔
支持とする場合の一例である。この場合の制御は、先頭
車両の前台車の車体上に取着されている角度計測用ジャ
イロより常時車体ローリング角を計測し、定値以上にな
った場合に、操舵装置の前後進切替えリレー回路が自動
的に作動し、1車両中前台車と後台車の前軸側は柔支持
し、前台車と後台車の後軸側は剛支持とする。
FIG. 3 shows the detection of a curved road while the vehicle is running;
This is an example of a case in which the front axle sides of the front bogie and the rear bogie of one vehicle are provided with flexible support only when passing through a curved road. Control in this case involves constantly measuring the vehicle body rolling angle using an angle measuring gyro mounted on the body of the front bogie of the leading vehicle, and when it exceeds a certain value, the forward/reverse switching relay circuit of the steering system is activated. It operates automatically, and the front axles of the front and rear bogies in one vehicle are supported flexibly, while the rear axles of the front and rear bogies are rigidly supported.

【0025】図4は、車両の走行中に車輪に作用する横
圧を検知し、曲線路通過時のみ1車両中前台車と後台車
の前軸側を柔支持する場合である。先頭車両の前台車の
前軸側に横圧測定用輪軸を取着し、常時横圧を測定し定
値以上になった場合に操舵装置前後切替えリレー回路の
前進切替えリレーが自動的に作動し、1車両前台車と後
台車の前軸側は柔支持し、前台車と後台車の後軸側は剛
支持とする。
FIG. 4 shows a case where the lateral pressure acting on the wheels is detected while the vehicle is running, and the front axle sides of the front bogie and rear bogie of one vehicle are flexibly supported only when passing through a curved road. A wheel axle for measuring lateral pressure is attached to the front axle side of the front bogie of the leading vehicle, and the lateral pressure is constantly measured. When the lateral pressure exceeds a set value, the forward switching relay of the steering device front/rear switching relay circuit is automatically activated. 1 The front axle sides of the front bogie and rear bogie of one vehicle are supported flexibly, and the rear axle sides of the front bogie and rear bogie are rigidly supported.

【0026】[0026]

【発明の効果】この発明は、1車両中前台車と後台車の
前軸側の操舵装置用の空気ばねと後軸側の操舵装置用の
空気ばねをそれぞれ別個の配管で接続し、前後切替えリ
レー回路により作動する電磁弁を介して元空気溜に接続
するから、前後非対称剛性支持方式の操舵装置を有効に
作動させることができる。また、曲線路の検知をも含め
前後切替えリレーへの信号入力操作はすべて車上で行な
うため、軌道上の設備がいらない。そのため、簡易な構
造の制御機器により操舵装置を有効に作動できる。
[Effects of the Invention] This invention connects the air springs for the steering device on the front axle side and the air springs for the steering device on the rear axle side of the front bogie and rear bogie in one vehicle through separate piping, and switches between the front and rear bogies. Since it is connected to the source air reservoir via a solenoid valve operated by a relay circuit, it is possible to effectively operate a front-rear asymmetric rigid support steering system. In addition, all signal input operations to the front/rear switching relay, including detection of curved roads, are performed onboard the vehicle, so no equipment on the track is required. Therefore, the steering device can be effectively operated by a control device with a simple structure.

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

【図1】この発明の実施による鉄道車両用台車の箱支持
剛性制御装置の要部を示す説明図である。
FIG. 1 is an explanatory diagram showing the main parts of a box support rigidity control device for a railway vehicle bogie according to an embodiment of the present invention.

【図2】この発明の制御の一実実施例で前後進切替えリ
レーへの入力信号源を主電動機前後進切替えスイッチと
した場合の制御方法の説明図である。
FIG. 2 is an explanatory diagram of a control method when the input signal source to the forward/reverse switching relay is a traction motor forward/reverse switching switch in an embodiment of the control of the present invention.

【図3】同じく前後進切替えリレーへの入力信号源を角
度計測用ジャイロとした場合の制御方法の説明図である
FIG. 3 is an explanatory diagram of a control method when the input signal source to the forward/reverse switching relay is a gyro for angle measurement.

【図4】同じく前後進切替えリレーへの入力信号源を横
圧測定用輪軸とした場合の制御方法の説明図である。
FIG. 4 is an explanatory diagram of a control method when the input signal source to the forward/reverse switching relay is a wheel axle for measuring lateral pressure.

【図5】この発明の実施対象となる鉄道車両用台車の軸
箱支持装置の一部を示す断面図である。
FIG. 5 is a sectional view showing a part of an axle box support device for a railway vehicle bogie to which the present invention is implemented.

【符号の説明】[Explanation of symbols]

1  前台車 2  後台車 3  前軸 4  後軸 5、6  操舵装置用の空気ばね 7  前軸側配管 8  後軸側配管 9、10  電磁弁 11  前後進切替えリレー 12  前進用切替えリレー 13  更新用切替えリレー 14  元空気溜 15  配管 16  軸箱 17  ばね座 18  軸ばね 19  ばね座 20  テーパー孔 21  積層ゴム 22  側ばり 23  支持枠 24  ピストン 25  案内筒 26  テーパー部 27  支持部材 28  ばね受座 29  コイルばね 30  操舵装置用の空気ばね 1 Front bogie 2 Rear truck 3 Front axis 4 Rear axis 5, 6 Air spring for steering system 7 Front shaft side piping 8 Rear shaft side piping 9, 10 Solenoid valve 11 Forward/forward switching relay 12 Forward switching relay 13 Update switching relay 14 Former air reservoir 15 Piping 16 Axle box 17 Spring seat 18 Axial spring 19 Spring seat 20 Tapered hole 21 Laminated rubber 22 Side beam 23 Support frame 24 Piston 25 Guide tube 26 Taper part 27 Support member 28 Spring catch 29 Coil spring 30 Air spring for steering system

Claims (3)

【特許請求の範囲】[Claims] 【請求項1】  軸箱の前後に設けたばね座と側ばりと
の間に、軸ばねと前後方向に柔らかいばね性を有する積
層ゴムを組合せてなる軸箱支持装置の前後方向支持剛性
を変化させるために、剛性を増加させる際の操作をコイ
ルばねで行い、剛性を減少させる際の操作を空気ばねで
行う操舵装置において、1車両中前台車と後台車の前軸
側空気ばねおよび前台車と後台車の後軸側空気ばねをそ
れぞれ別個の配管で接続し、かつ前後進切替えリレー回
路により切替え自在の電磁弁を介して上記配管をそれぞ
れ元空気溜に接続した鉄道車両用台車の軸箱支持剛性制
御装置。
[Claim 1] Changing the longitudinal support rigidity of an axle box support device that combines an axle spring and a laminated rubber having soft spring properties in the anteroposterior direction between spring seats and side beams provided at the front and rear of the axle box. Therefore, in a steering system in which coil springs are used to increase the rigidity and air springs are used to decrease the rigidity, air springs on the front axle sides of the front bogie and rear bogie in one vehicle, and An axle box support for a railway vehicle bogie in which the air springs on the rear axle side of the rear bogie are each connected by separate pipes, and each of the above pipes is connected to the source air reservoir via a solenoid valve that can be switched freely by a forward/reverse switching relay circuit. Stiffness control device.
【請求項2】  請求項1記載の鉄道車両用台車の操舵
装置において、軸箱支持前後剛性を1車両中、前台車と
後台車の前軸側を常時柔支持とし、かつ前台車と後台車
の後軸側を常時剛支持に制御することを特徴とする鉄道
車両用台車の軸箱支持剛性制御方法。
2. The steering system for a bogie for a railway vehicle according to claim 1, wherein the front and rear axle box supports are always flexible on the front axle sides of the front bogie and the rear bogie in one vehicle, and the front bogie and the rear bogie are A method for controlling the rigidity of an axle box support for a bogie for a railway vehicle, characterized by controlling the rear axle side to be rigidly supported at all times.
【請求項3】  請求項1記載の鉄道車両用台車の操舵
装置において、車両の走行中に曲線路を検知し、曲線路
通過時は軸箱支持前後剛性を1車両中、前台車と後台車
の前軸側を柔支持とし、かつ前台車と後台車の後軸側を
剛支持に制御し、直線路走行時は1車両中、すべての軸
箱支持前後剛性を剛支持に制御することを特徴とする鉄
道車両用台車の軸箱支持剛性制御方法。
3. In the steering system for a bogie for a railway vehicle according to claim 1, a curved road is detected while the vehicle is running, and when passing through the curved road, the front and rear rigidity of the axle box support is adjusted to the front and rear bogies of one vehicle. The front axle side of the vehicle is controlled to be flexible support, and the rear axle sides of the front bogie and rear bogie are controlled to be rigid support, and when traveling on a straight road, the front and rear rigidity of all axle box supports in one vehicle is controlled to be rigid support. Features: A method for controlling the rigidity of axle box support for bogies for railway vehicles.
JP3089643A 1991-03-27 1991-03-27 Axle box support stiffness control device for railway vehicle bogie and control method therefor Expired - Fee Related JP3020638B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP3089643A JP3020638B2 (en) 1991-03-27 1991-03-27 Axle box support stiffness control device for railway vehicle bogie and control method therefor

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP3089643A JP3020638B2 (en) 1991-03-27 1991-03-27 Axle box support stiffness control device for railway vehicle bogie and control method therefor

Publications (2)

Publication Number Publication Date
JPH04300773A true JPH04300773A (en) 1992-10-23
JP3020638B2 JP3020638B2 (en) 2000-03-15

Family

ID=13976455

Family Applications (1)

Application Number Title Priority Date Filing Date
JP3089643A Expired - Fee Related JP3020638B2 (en) 1991-03-27 1991-03-27 Axle box support stiffness control device for railway vehicle bogie and control method therefor

Country Status (1)

Country Link
JP (1) JP3020638B2 (en)

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WO2013061641A1 (en) * 2011-10-26 2013-05-02 新日鐵住金株式会社 Method and device for steering bogie of railway vehicle, and bogie
JPWO2013061641A1 (en) * 2011-10-26 2015-04-02 新日鐵住金株式会社 Steering method and apparatus for bogie for railway vehicle and bogie
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WO2014196080A1 (en) * 2013-06-07 2014-12-11 株式会社 日立製作所 Railroad vehicle capable of reducing lateral force and lateral force reduction method
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JP6067850B2 (en) * 2013-06-07 2017-01-25 株式会社日立製作所 Railway vehicle and lateral pressure reduction method capable of reducing lateral pressure
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