JPH02151207A - Power supply controller for carrying truck - Google Patents

Power supply controller for carrying truck

Info

Publication number
JPH02151207A
JPH02151207A JP30186588A JP30186588A JPH02151207A JP H02151207 A JPH02151207 A JP H02151207A JP 30186588 A JP30186588 A JP 30186588A JP 30186588 A JP30186588 A JP 30186588A JP H02151207 A JPH02151207 A JP H02151207A
Authority
JP
Japan
Prior art keywords
power supply
truck
blockage
supply line
power
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP30186588A
Other languages
Japanese (ja)
Inventor
Tsugushige Hidaka
日高 貢成
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.)
JFE Steel Corp
Original Assignee
Kawasaki Steel Corp
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 Kawasaki Steel Corp filed Critical Kawasaki Steel Corp
Priority to JP30186588A priority Critical patent/JPH02151207A/en
Publication of JPH02151207A publication Critical patent/JPH02151207A/en
Pending legal-status Critical Current

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  • Electric Propulsion And Braking For Vehicles (AREA)
  • Train Traffic Observation, Control, And Security (AREA)

Abstract

PURPOSE:To enable speed control of any truck in any block with a travel pattern having a plurality of speeds by switching each driver for performing constant speed control according to travel commands for predetermined speeds of a truck controller. CONSTITUTION:When a truck V1 is run at a high speed, a feeder switch 4A1 closes to feed power from a high speed driver 11 through a bus M1 to a block 21 so as to feed power through a trolley shoe S to the truck V1. The striker of the truck V1 subsequently touches a truck position detector to start ON operation. Consequently, a command is provided from a switching computer 7 which received the ON signal and a switchgear 4B1 closes while a switchgear 4A1 opens. When the truck V1 advances to next block, power supply from the driver 11 to the block 21 is blocked and power supply is switched to a block 22 and thereby the truck V1 continues smooth advance while being fed with power from the feeder 1 for the block 22. Power supply is switched sequentially from the block 21 to 22 to 23... as the truck V1 advances.

Description

【発明の詳細な説明】 〔産業上の利用分野〕 この発明は、同一軌道上を走行する搬送台車が多く、シ
ステム変更の多い搬送台車系において、速度制御と切替
制御とを同時に行え、且つ装置を安価に構成した搬送台
車の給電制御装置に関する。
[Detailed Description of the Invention] [Field of Industrial Application] This invention provides a system that can simultaneously perform speed control and switching control in a transport vehicle system in which many transport vehicles run on the same track and the system changes frequently. The present invention relates to a power supply control device for a transport vehicle that is configured at low cost.

〔従来の技術〕[Conventional technology]

一般に製鉄所などでは金属ストリップコイルやスラブ等
を工程間で搬送するのに、2本のレール軌道上を走行す
る駆動モータ付搬送台車設備が使用されている。
BACKGROUND OF THE INVENTION Generally, in steel works, etc., transport vehicle equipment with a drive motor that runs on two rail tracks is used to transport metal strip coils, slabs, etc. between processes.

これらの搬送台車は同一軌道上に複数台用意され、台車
の駆動モータには地上に設置された複数台のインバータ
等の動力源から給電線を介してそれぞれ駆動電力が供給
され、制御装置からの指令で台車の発進、走行、停止等
の走行状態の制御がなされる。そして、上記走行制御に
際して台車の衝突を防止するため、給電線を一定間隔毎
に多数の絶縁セクション(閉塞と呼ぶ)に分割し、1個
の閉塞内には1台の台車しか入れない制御を行う。
A plurality of these transport vehicles are prepared on the same track, and the drive motors of the trolleys are each supplied with drive power from power sources such as multiple inverters installed on the ground via power lines, and The commands control the running status of the bogie, such as starting, running, and stopping. In order to prevent bogie collisions during the travel control described above, the power supply line is divided into a number of insulated sections (called blockages) at regular intervals, and control is carried out so that only one bogie can enter one blockage. conduct.

この際、台車の位置に合わせて動力源を切替える必要が
ある。
At this time, it is necessary to switch the power source according to the position of the truck.

また、閉塞内のある位置における積降しのためのステー
ションに定位置停止させる必要があり、そのために走行
時の速度制御が必要となる。このような場合、最も簡単
な構成は、第3図に示すように閉塞ごとに駆沖装置(地
上直動カ源)を設けるものがある。すなわち搬送台車■
は図示しないレール上を自刃走行できるようにモータM
を備え、そのモータMに駆動電力を供給する給電線1は
、レール沿いに配設され且つ互に絶縁された多数の閉M
2 i  (i=1.2,3.・・・・・・)に分割さ
れていて、この閉塞21に1:lで対応するごとく駆動
装置(動力源)31が設けられている。また対応する閉
塞21と動力源31とを連絡する給電路51毎に給電路
開閉器41を配設している。
In addition, it is necessary to stop the vehicle at a fixed position at a loading/unloading station within the blockage, which requires speed control during travel. In such a case, the simplest configuration is one in which an off-shore drive device (a direct-motion power source on the ground) is provided for each blockage, as shown in FIG. In other words, the transport vehicle■
The motor M is installed so that the blade can run on a rail (not shown).
A power supply line 1 that supplies driving power to the motor M includes a large number of closed M lines arranged along the rail and insulated from each other.
2 i (i=1.2, 3, . . . ), and a driving device (power source) 31 is provided so as to correspond to each blockage 21 at a ratio of 1:1. Further, a power supply line switch 41 is provided for each power supply line 51 that connects the corresponding blockage 21 and the power source 31.

これらの開閉器41を、給電切替制御装置7がらの指令
で、台車の進行に応じて開閉することにより、各閉塞2
1への給電を制御する。すなわち、台車Vが閉塞2.に
あるときは、開閉器41を閉じることにより、給電路5
.を経て動力#31がら閉塞2に給電し、モータMには
トロリーシューSを経て電力が供給され、台車Vが走行
する。そして台車■が閉塞2□に移る直前になると開閉
器4□が閉じ、41は開く。これにより、動力源が3.
がら3□に切替えられて、モータMは閉塞2.がら給電
されることになる。以下同様に台車Vの進行とともに給
電される閉塞21を順次i=x、2.3.・・・・・・
と移動させて給電制御がなされる。その間、同一の閉塞
21内に1台以上の台車が進入することばないがら衝突
は防止される。
Each blockage 2 is opened and closed by opening and closing these switches 41 according to the progress of the trolley based on commands from the power supply switching control device 7.
Controls power supply to 1. In other words, the truck V is blocked 2. When the switch 41 is closed, the power supply line 5 is closed.
.. Power #31 is supplied to the blockage 2 via the trolley shoe S, and power is supplied to the motor M via the trolley shoe S, so that the trolley V runs. Then, just before the cart ■ moves to the blockage 2□, the switch 4□ closes and the switch 41 opens. This makes the power source 3.
motor M is switched to block 2. Power will be supplied to the Similarly, as the trolley V advances, the blockages 21 that are supplied with electricity are sequentially set to i=x, 2.3.・・・・・・
Power supply control is performed by moving the During this time, collisions are prevented even though more than one truck enters the same blockage 21.

しかし、上記第3図に示す方法は動力源31が各閉寒2
1毎に設けられるから設備費が嵩むという問題がある。
However, in the method shown in FIG. 3 above, the power source 31 is
There is a problem that the equipment cost increases because it is provided for each unit.

そこで、第4図に示すような母線方式の走行制御方式の
ものが提案されている。
Therefore, a bus bar system running control system as shown in FIG. 4 has been proposed.

これは、台車■と同数だけ用意した駆動装置(電力源)
31を一箇所にまとめて置くとともに各動力源31毎の
母線Miを給電線lに沿って配設し、その各々の母線M
iと各閉塞21とを並列給電路開閉器4Ai〜4Fiを
介して給電路51で接続したものである。
This is a drive device (power source) prepared in the same number as the trolley ■.
31 are placed together in one place, and a bus line Mi for each power source 31 is arranged along the power supply line l, and each bus line M
i and each blockage 21 are connected by a power supply line 51 via parallel power supply line switches 4Ai to 4Fi.

そして、軌道上の台車■の進行に合わせて給電切替制御
装置7からの指令で、開閉器4Ai→4旧→4Ci・・
・・・・と順次開閉させることにより、給電される閉塞
2jを2.→2z→23・・・・・・と移動させていく
Then, in response to a command from the power supply switching control device 7 as the bogie ■ moves on the track, switches 4Ai → 4 old → 4Ci...
. . . By sequentially opening and closing the blockage 2j to be supplied with electricity, 2. →2z→23... and so on.

この場合は、どの閉塞21に対しても、給電切替制御装
置7の指令で動力源31を自在に切替えて制御すること
が可能であり、従って台車■と同数の前記従来例と比べ
て数少ない給電R3iであっても、隣接する閉塞にまで
台車を接近させることができる。
In this case, it is possible to freely switch and control the power source 31 for any blockage 21 by commands from the power supply switching control device 7, and therefore, the power source 31 can be freely switched and controlled with respect to any blockage 21. Even with R3i, it is possible to bring the cart close to an adjacent blockage.

〔発明が解決しようとする課題〕[Problem to be solved by the invention]

しかしながら、上記の方法においては、台車Vと少なく
とも同数の各動力源31毎に母yAMiを配設し、その
各々の母線Miと各閉塞21とを給電路開閉器4Ai、
  4旧・・・・・・を介して接続したものであるから
必要開閉器数が動力源台数m×閉塞数2となり、動力源
31と閉塞21が増加するにつれて給電路開閉器数が増
加するという設備上の経済性、保守上の問題がある。
However, in the above method, a bus yAMi is provided for each power source 31, which is at least the same number as the bogies V, and each bus bar Mi and each blockage 21 are connected to the power supply line switch 4Ai,
4.Since the connection is made through old..., the number of required switches is the number of power sources m x the number of blockages 2, and as the number of power sources 31 and blockages 21 increases, the number of power supply line switches increases. There are problems in terms of economics and maintenance of equipment.

その他の問題としても、このようなシステムにつきもの
である台車数を増やす場合に、すべての閉塞にわたって
動力接点を追加し、駆動装置(動力源)を追加するとい
う煩雑な作業が必要となり、また台車の駆動装置の容量
変更に対する追随性が低いという欠点があった。また台
車トラッキングの情報から駆動装置を切替える作業と駆
動装置内部の速度指令を変えるという作業を同時に行な
う煩雑さ、ロジックの煩雑さがあった。
Another problem is that increasing the number of trolleys inherent in such systems requires the tedious task of adding power contacts and additional drives across all occlusions; The drawback was that the ability to follow changes in the capacity of the drive device was low. In addition, it is complicated to simultaneously perform the task of switching the drive device based on the truck tracking information and the task of changing the speed command inside the drive device, and the logic is complicated.

この発明は以上のような従来例における種々の問題点に
かんがみてなされたものであって、各−定速度に制御す
る各駆動装置を、台車制御装置の所定速度別走行指令に
応じて切替える方法とすることにより上記問題点を解決
することを目的としている。
This invention has been made in view of the various problems in the conventional examples as described above, and provides a method for switching each drive device that controls each constant speed in accordance with a traveling command for each predetermined speed from a bogie control device. The purpose is to solve the above problems by doing so.

(課題を解決するための手段〕 この発明は、複数台の搬送台車が走行する軌道沿いに配
設されるとともに多数の閉塞に分割された給電線と、該
給電線を介して各台車に駆動電力を供給する複数の動力
源と、該動力源から前記閉塞への給電路毎に配設された
給電路開閉器と、該給電路開閉器を前記台車の位置に応
じて切替える給電切替装置とを有する搬送台車の給電制
御装置・において、搬送台車の走行速度を規定する複数
の駆動装置を設けるとともに各駆動装置毎の母線を給電
線に沿って配置し、各々の母線と給電線の各閉塞とを搬
送台車の走行速度に応じて順次開閉する接点を有する並
列の給電路開閉器を介して給電路で接続した搬送台車の
給電制御装置としたものである。
(Means for Solving the Problems) The present invention provides a power supply line that is arranged along a track on which a plurality of transport vehicles run and is divided into a large number of blockages, and a power supply line that is connected to each vehicle via the power supply line. a plurality of power sources that supply electric power; a power supply line switch disposed for each power supply line from the power source to the blockage; and a power supply switching device that switches the power supply line switch according to the position of the trolley. In the power supply control device for a transport vehicle having This is a power supply control device for a conveyance vehicle, in which the two are connected by a power supply path through a parallel power supply path switch having contacts that are sequentially opened and closed according to the traveling speed of the conveyance vehicle.

〔作用〕[Effect]

本発明は上記のような構成としたために、例えば経済性
の点について従来例と比較すると、台車の数をn、閉塞
の数をm、走行時の速度パターンを高速、中速、低速の
3通りとすると、駆動装置(動力源)数  接点数 第3図従来例     m        m第4図従
来例     n       nXm本発明    
    3     3×mとなり、駆動装置は最も少
なくて済み、経済性の高いことがわかる。すなわち、走
行速度パターンが高速、中速、低速の3通り必要である
場合、駆動装置は3台でよい(但し、駆動装置の容量は
全台車を同時に動作させる分の容量を要する)。
Since the present invention has the above-mentioned configuration, for example, when compared with the conventional example in terms of economy, the number of bogies is n, the number of blockages is m, and the speed pattern during traveling is 3 types: high speed, medium speed, and low speed. Number of drive devices (power sources) Number of contacts Fig. 3 Conventional example m m Fig. 4 Conventional example n nXm Invention
33×m, which requires the least number of drive devices and is highly economical. That is, if three traveling speed patterns, high speed, medium speed, and low speed, are required, three drive devices are sufficient (however, the capacity of the drive device must be sufficient to operate all the bogies at the same time).

また任意の台車を任意の閉塞において、3通りの速度を
選択することにより走行制御を可能とする。これにより
上記の如く駆動装置の台数、接点数を顕著に減少するこ
とが可能となり、大規模システムになるほど従来例に対
する経済性等が大きくなる。
Furthermore, it is possible to control the running of any bogie by selecting three speeds when the bogie is in any blockage. This makes it possible to significantly reduce the number of drive devices and the number of contacts as described above, and the larger the system, the greater the economical efficiency compared to the conventional example.

さらに台車の衝突防止に関しては、後続の台車が先行の
台車に接近してきた場合は切替用計算機7によって把握
している台車情報をもとにして後続台車の切替用接点(
給電路開閉器4酎・・・・・・)をすべて開とすること
により、衝突は容易に回避できる。
Furthermore, regarding collision prevention of bogies, when the following bogie approaches the preceding bogie, the following bogie's switching contact (
Collisions can be easily avoided by opening all four power supply circuit breakers (4).

〔実施例〕〔Example〕

以下、この発明を図面に基づいて説明する。第1.2図
はこの発明の一実施例を示すブロック図である。なお、
従来例と同一の部分については同一の符号を付し、必要
以外の重複する説明は着く。
The present invention will be explained below based on the drawings. FIG. 1.2 is a block diagram showing one embodiment of the present invention. In addition,
The same parts as in the conventional example are given the same reference numerals, and unnecessary and redundant explanations will be omitted.

図において、11,12.13はそれぞれ高速、中速、
低速の駆動装置であって、各駆動装置毎の母線Ml+ 
Mt、 Hzが給電線1に沿って配設されている。各母
線Mと給電線1の閉塞21とは、それぞれに並列の常開
接点からなる給電路開閉器4 At。
In the figure, 11, 12, and 13 are high speed, medium speed, and
It is a low-speed drive device, and the bus line Ml+ for each drive device
Mt, Hz are arranged along the feeder line 1. Each bus M and the blockage 21 of the feeder line 1 are feeder circuit breakers 4 At each consisting of parallel normally open contacts.

4Bi・・・・・・を介して給電路51で接続されてい
る。
4Bi... are connected by a power supply line 51.

すなわち、各母線MI+ M2. Malは例えば給電
路5.を介して閉塞2.に接続されるが、その給電路5
.と母線M1との間には常開形の給電路開閉器4A+が
、給電路51と母線M2との間には給電路開閉器4Az
が、また給電路51と母線M3との間には給電路開閉器
4A、が並列に介装されている。同様に各母線Ml+ 
’!。
That is, each bus MI+M2. Mal is, for example, the power supply line 5. Obstruction via 2. is connected to the power supply line 5.
.. A normally open power supply line switch 4A+ is provided between the power supply line 51 and the bus bar M1, and a power supply line switch 4Az is provided between the power supply line 51 and the bus line M2.
However, a power supply line switch 4A is also interposed in parallel between the power supply line 51 and the bus bar M3. Similarly, each bus line Ml+
'! .

Mユは給電路5□を介して閉塞2□に接続され、その給
電路5、と母線Mよとの間には給電路開閉器4B+が、
給電路5□と母線M2との間には開閉器4B2が、また
給電路5□と母線M3との間には開閉器4Bzが並列に
介装される。以下同様にして、図示右端の閉塞2hでは
各母線Ml、 M2+ M3は給電路56を介して接続
され、給電路5bと母線り、との間には開閉器4F、が
、母線M2との間には開閉器4Fzが、母線H1との間
には開閉器4Fzがそれぞれ並列に介装されている。
Myu is connected to the blockage 2□ via the feed line 5□, and a feed line switch 4B+ is connected between the feed line 5 and the bus bar MY.
A switch 4B2 is interposed in parallel between the power supply line 5□ and the bus line M2, and a switch 4Bz is interposed in parallel between the power supply line 5□ and the bus line M3. Similarly, in the blockage 2h at the right end of the figure, each bus line Ml, M2+M3 is connected via the power supply line 56, and a switch 4F is connected between the power supply line 5b and the bus line, and a switch 4F is connected between the power supply line 5b and the bus line M2. A switch 4Fz is interposed in parallel with the bus bar H1, and a switch 4Fz is interposed in parallel with the bus bar H1.

このようにして、並列の各開閉器4 Ai、  48i
・・・・・・が駆動装置11,12.13から各閉塞2
1への給電路51毎に介装されて、給電線1の全区間の
閉塞をカバーしている。
In this way, each switch 4 Ai, 48i in parallel
. . . from the drive devices 11, 12, 13 to each blockage 2
The power supply line 1 is interposed for each power supply line 51 to cover the blockage of the entire section of the power supply line 1.

給電切替装置である切替用計算機7は、上記の開閉器4
 At、  4 Bi、  4 Ci・・・・・・を搬
送台車■の位置に応じて順次切替え制御する。すなわち
、この切替用計算機7からの指令で軌道上の搬送台車V
の進行に合わせて開閉器4^i、  4Bi、  4C
i・・・・・・と順次開閉させることにより給電される
閉塞を21→2z→2.・・・・・・と移動させていく
ことができ、またどの閉塞21に対しても切替用計算機
7の指令で駆動装置11.12.13を自在に選んで切
替えて高速、中速、低速の何れかの速度に走行制御する
ことができるようになっている。
The switching computer 7, which is a power supply switching device, is connected to the switch 4 described above.
At, 4 Bi, 4 Ci, etc. are sequentially switched and controlled according to the position of the transport vehicle (■). That is, according to the command from this switching computer 7, the transport vehicle V on the track
Switches 4^i, 4Bi, 4C as the progress progresses.
Blocks that are supplied with power by sequentially opening and closing i...... 21→2z→2. For any blockage 21, the drive device 11, 12, or 13 can be freely selected and switched according to the command from the switching computer 7 to perform high-speed, medium-speed, or low-speed movement. It is now possible to control the travel to either speed.

以上の構成のうち、給電路開閉器4 At、  4 B
i。
Among the above configurations, power supply circuit breakers 4 At, 4 B
i.

4Ci・・・・・・、給電路51、切替用計算機7は電
気室内の制御盤に組込まれている。
4Ci..., the power supply line 51, and the switching computer 7 are built into a control panel in the electrical room.

次に動作を説明する。Next, the operation will be explained.

いま搬送台車V、が、第1図で実線図示のように閉塞2
1内を閉塞2□へ向って進行しているものとし、台車v
2は閉塞24内に停止、台車v3は閉塞26内に停止し
ているものとする。
Now, the transport vehicle V is blocked 2 as shown by the solid line in FIG.
It is assumed that the vehicle is moving toward blockage 2□ within 1, and the trolley v
2 is stopped inside the blockage 24, and the trolley v3 is stopped inside the blockage 26.

このとき、台車V、を例えば高速進行させる場合は、常
開の給電路開閉器4A、が閉じ、高速用駆動装置11か
ら母線M1を経て閉塞21に対して送電し、ここからト
ロリーシューSを経て台車V、の駆動モータに給電され
る。そして駆動装置11と接続する池の常開の開閉器4
 Bi+  4 Ct・・・、および駆動装置12と接
続する開閉器4Az、  4BZ、  4CZ・・・・
・・駆動装置13と接続環る開閉器4 A3.4 B3
,4 C3・・・・・・はすべて開いており、閉塞2g
、2s・・・・・・には給電されていない。
At this time, when the trolley V is to be moved at high speed, for example, the normally open power supply line switch 4A is closed, and power is transmitted from the high speed drive device 11 to the blockage 21 via the bus bar M1, and from there the trolley shoe S is Power is then supplied to the drive motor of the truck V. and a normally open switch 4 for the pond connected to the drive device 11
Bi+ 4 Ct..., and switches 4Az, 4BZ, 4CZ... connected to the drive device 12
... Switch 4 connected to drive device 13 A3.4 B3
, 4 C3... are all open and occlusion 2g
, 2s... are not supplied with power.

やがて台車Vtに取付けた図外のストライカが閉塞2、
の進行側端部に設置されている台車位置検出装置、例え
ばリミットスイッチに接触してこれをオン作動させる。
Eventually, a striker (not shown) attached to the trolley Vt becomes blocked 2.
The carriage position detection device, such as a limit switch, installed at the advancing end of the carriage is contacted and turned on.

すると、そのオン信号を受けた切替用計算機7からの指
令がなされて、開閉器4B+が閉じ4A、は開く。これ
により、台車vlが次の閉塞へ進入する際は、事前に駆
動装置11から閉塞2、への給電は遮断され閉塞2□へ
の給電に切替えられることとなり、台車Vlは閉塞2□
の給電線1から電力を供給されつつ円滑に進行を続ける
ことができる。
Then, a command is issued from the switching computer 7 which has received the ON signal, and the switch 4B+ is closed and the switch 4A is opened. As a result, when the bogie Vl enters the next blockage, the power supply from the drive device 11 to the blockage 2 is cut off in advance and switched to the power supply to the blockage 2□, and the bogie Vl is moved to the blockage 2□.
It is possible to continue moving smoothly while being supplied with power from the power supply line 1.

以下同様にして、駆動装置11からの給電は閉塞2.→
22→2.と台車V、の進行とともに順次切替えられて
いく。
Similarly, the power supply from the drive device 11 to the block 2. →
22→2. and truck V, are sequentially switched as the vehicle progresses.

かくして台車v1が閉塞2.に達すると、次の閉塞24
には他の台車v2が停車しているから、衝突を防ぐ必要
がある。そのときは台車vIが直前の隣接する閉塞2.
内に進入したことが位置検出装置で検知されると、切替
用計算機7の指令でその閉塞2.における開閉器4C+
の接続は開となり台車V、を停止させる。従って台車V
I、Vzは隣接した閉塞内で停止して衝突は防止される
Thus, the truck v1 is blocked 2. , the next blockage 24
Since another bogie v2 is stopped at , it is necessary to prevent a collision. At that time, the trolley vI is immediately adjacent to the blockage 2.
When the position detection device detects that the user has entered the room, the switching computer 7 issues a command to close the blockage 2. Switch 4C+ in
The connection is opened and the truck V is stopped. Therefore, the trolley V
I, Vz are stopped within adjacent occlusions and collisions are prevented.

以上は台車v1を高速で走行させる場合について述べた
が、中速走行の場合は駆動装置12と母線M2.開閉器
4AZを接続させて上記と同様に行えばよいし、低速走
行させる場合は駆動装置13と母線M3.開閉器4A3
を接続させて同様に行えばよい。
The case where the bogie v1 runs at high speed has been described above, but in the case of running at medium speed, the drive device 12 and the bus line M2. You can connect the switch 4AZ and perform the same procedure as above, or if you want to run at low speed, connect the drive device 13 and bus bar M3. Switch 4A3
You can connect it and do the same thing.

また、上記は台車1台のみを走行させる場合について述
べたが、各駆動装置に充分な容量を保持させることによ
り、同時に複数台の台車を任意の速度(高速又は中速又
は低速)で走行させることも切替用計算機7の制御指令
により上記に準じた動作を行わせることにより可能であ
る。
Furthermore, although the above describes the case where only one bogie is running, multiple bogies can be run at the same time at any speed (high, medium, or low speed) by maintaining sufficient capacity in each drive device. This is also possible by causing the switching computer 7 to perform an operation similar to the above based on a control command.

第2図は走行パターンの一例であって、高速走行の台車
を定位置で停止させるために、徐々に減速走行させる場
合の走行パターンを示すものであって、例えば台車v1
が閉塞2I内を高速走行しているとき、開閉器4A、の
みが閉じられ、他の開閉器はすべて開いている。台車v
1は矢印方向に進行し、閉塞2□に接近すると台車vl
のストライカがリミットスイッチに接触してオン作動す
る。このオン作動により切替用計算機7に入力された信
号により指令がなされて閉塞2□の開閉器4Bzが閉じ
4A、は開となって、閉塞2□に入った台車v1は母線
M2を介して駆動装置12から給電され中速度で進行す
る。
FIG. 2 is an example of a running pattern in which a bogie traveling at high speed is gradually decelerated in order to stop at a fixed position.
When the vehicle is traveling at high speed within the blockage 2I, only the switch 4A is closed and all other switches are open. Trolley v
1 moves in the direction of the arrow, and when it approaches blockage 2□, the truck vl
The striker contacts the limit switch and turns on. Due to this ON operation, a command is issued by the signal input to the switching computer 7, and the switch 4Bz of the blockage 2□ is closed, and the switch 4A is opened, and the bogie v1 that has entered the blockage 2□ is driven via the bus line M2. It is powered by the device 12 and moves at a medium speed.

次いで閉塞2□内の台車V、が閉塞23に近づくと同様
にして切替用計算機7の指令により開閉器4C3が閉じ
4thは開となり、閉塞23に入った台車V、は母線M
3を介して駆動装置13から給電され低速度で進行し、
台車のストライカと閉塞2.上の定位置リミットスイッ
チの保合により開閉器4C3は開となり、台車V、は定
位置P点で停止する。この際、台車は第2図(b)に示
す走行パターンで3段階に減速されて進行するため、定
位置Pの真近では進行の慣性力も極めて小さくなり、開
閉器4G、の開とほぼ同時に停止する。
Next, when the bogie V in the blockage 2□ approaches the blockage 23, the switch 4C3 is closed by the command from the switching computer 7, and the switch 4C3 is opened, and the bogie V, which has entered the blockage 23, moves to the bus line M.
Power is supplied from the drive device 13 via 3, and the motor moves at a low speed,
Truck striker and blockage 2. When the upper fixed position limit switch is engaged, the switch 4C3 is opened, and the truck V stops at the fixed position P point. At this time, since the bogie moves while being decelerated in three stages according to the running pattern shown in Figure 2(b), the inertia of the move becomes extremely small in the immediate vicinity of the fixed position P, and almost at the same time as the switch 4G opens. Stop.

なお、本実施例において、走行パターンを高速、中速、
低速の3通りとしたが、本発明は3通りに限定するもの
ではなく、2通りでも4通りでもよい。但し、各駆動装
置の容量は、全台車を一度に作動させる分の容量が必要
である。
In addition, in this example, the running pattern is set to high speed, medium speed,
Although there are three low speed ways, the present invention is not limited to three ways, and may be two or four ways. However, the capacity of each drive device must be sufficient to operate all the bogies at once.

〔発明の効果〕〔Effect of the invention〕

以上説明したように、本発明によれば任意の台車を任意
の閉塞において複数通りの速度を選択した走行パターン
での走行制御が可能となり、またこれによってすでに作
用の項で述べたごとく、駆動装置の台数や回路の接点数
を顕著に減少することができ経済性を向上できた。また
、駆動装置の容量範囲であれば台車の台数を変えたり、
台車同士の容量の大小をつけたりすることが容易となり
、システムのフレキシビリティも向上し、さらに切替制
御と速度制御を同時に行えることから切替用計算機容量
も小さく安価に構成できる等、種々の効果を得られる。
As explained above, according to the present invention, it is possible to control the running of any bogie in a running pattern in which a plurality of speeds are selected at any blockage. The number of circuits and the number of circuit contacts can be significantly reduced, improving economic efficiency. Also, if the capacity of the drive device is within the range, the number of trolleys can be changed,
This makes it easier to change the capacity of the trolleys, improving the flexibility of the system, and since switching control and speed control can be performed simultaneously, the switching computer capacity is small and can be configured at low cost, among other benefits. It will be done.

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

第1図はこの発明の一実施例を示すブロック図、第2図
(a)は第1回の部分ブロック図、同図(b)は同図(
a)に対応した走行パターンを示す図、第3図は第1の
従来例を示すブロック図、第4図は第2の従来例を示す
ブロック図である。 1・・・・・・給電線、2・・・・・・閉塞、3・・・
・・・動力源、4・・・・・・給電路開閉器、5・・・
・・・給電路、7・・・・・・給電切替装置(切替用計
算機)、11,12,13.・・・・・・駆動装置、M
・・・・・・母線、■・・・・・・搬送台車。
FIG. 1 is a block diagram showing one embodiment of the present invention, FIG. 2(a) is a partial block diagram of the first part, and FIG.
FIG. 3 is a block diagram showing the first conventional example, and FIG. 4 is a block diagram showing the second conventional example. 1...Power line, 2...Clocked, 3...
...Power source, 4...Power supply circuit switch, 5...
...Power supply path, 7...Power supply switching device (switching computer), 11, 12, 13.・・・・・・Drive device, M
・・・・・・Bus bar, ■・・・Transportation trolley.

Claims (1)

【特許請求の範囲】[Claims] (1)複数台の搬送台車が走行する軌道沿いに配設され
るとともに多数の閉塞に分割された給電線と、該給電線
を介して各台車に駆動電力を供給する複数の動力源と、
該動力源から前記閉塞への給電路毎に配設された給電路
開閉器と、該給電路開閉器を前記台車の位置に応じて切
替える給電切替装置とを有する搬送台車の給電制御装置
において、搬送台車の走行速度を規定する複数の駆動装
置を設けるとともに各駆動装置毎の母線を給電線に沿っ
て配置し、各々の母線と給電線の各閉塞とを搬送台車の
走行速度変化に応じて順次開閉する接点を有する並列の
給電路開閉器を介して給電路で接続したことを特徴とす
る搬送台車の給電制御装置。
(1) A power supply line that is arranged along a track on which a plurality of transport vehicles run and is divided into a large number of blocks, and a plurality of power sources that supply driving power to each vehicle via the power supply line;
A power supply control device for a transport vehicle, comprising a power supply path switch disposed for each power supply path from the power source to the blockage, and a power supply switching device that switches the power supply path switch according to the position of the vehicle, In addition to providing a plurality of drive devices that regulate the traveling speed of the transport vehicle, busbars for each drive device are arranged along the power supply line, and each bus bar and each blockage of the power supply line are controlled according to changes in the travel speed of the transport vehicle. A power supply control device for a transport vehicle, characterized in that the power supply control device is connected to a power supply line through parallel power supply line breakers having contacts that open and close sequentially.
JP30186588A 1988-11-29 1988-11-29 Power supply controller for carrying truck Pending JPH02151207A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP30186588A JPH02151207A (en) 1988-11-29 1988-11-29 Power supply controller for carrying truck

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP30186588A JPH02151207A (en) 1988-11-29 1988-11-29 Power supply controller for carrying truck

Publications (1)

Publication Number Publication Date
JPH02151207A true JPH02151207A (en) 1990-06-11

Family

ID=17902086

Family Applications (1)

Application Number Title Priority Date Filing Date
JP30186588A Pending JPH02151207A (en) 1988-11-29 1988-11-29 Power supply controller for carrying truck

Country Status (1)

Country Link
JP (1) JPH02151207A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4672182B2 (en) * 2001-05-22 2011-04-20 三菱重工業株式会社 Vehicle terminal protection system
WO2016166813A1 (en) * 2015-04-14 2016-10-20 住友重機械搬送システム株式会社 Electric power supply device

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4672182B2 (en) * 2001-05-22 2011-04-20 三菱重工業株式会社 Vehicle terminal protection system
WO2016166813A1 (en) * 2015-04-14 2016-10-20 住友重機械搬送システム株式会社 Electric power supply device
JPWO2016166813A1 (en) * 2015-04-14 2018-02-15 住友重機械搬送システム株式会社 Power supply device

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