JPH0225561Y2 - - Google Patents

Info

Publication number
JPH0225561Y2
JPH0225561Y2 JP8456387U JP8456387U JPH0225561Y2 JP H0225561 Y2 JPH0225561 Y2 JP H0225561Y2 JP 8456387 U JP8456387 U JP 8456387U JP 8456387 U JP8456387 U JP 8456387U JP H0225561 Y2 JPH0225561 Y2 JP H0225561Y2
Authority
JP
Japan
Prior art keywords
hot water
water level
molten metal
level
holding furnace
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.)
Expired
Application number
JP8456387U
Other languages
Japanese (ja)
Other versions
JPS63196344U (en
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 filed Critical
Priority to JP8456387U priority Critical patent/JPH0225561Y2/ja
Publication of JPS63196344U publication Critical patent/JPS63196344U/ja
Application granted granted Critical
Publication of JPH0225561Y2 publication Critical patent/JPH0225561Y2/ja
Expired legal-status Critical Current

Links

Landscapes

  • Casting Support Devices, Ladles, And Melt Control Thereby (AREA)

Description

【考案の詳細な説明】 〈産業上の利用分野〉 本考案は、溶解炉で溶かされた鋳造材料の溶湯
を汲み取つて運搬し、各ダイカストマシンの保持
炉へ注ぎ込むキヤリアの溶湯動作を、各保持炉の
湯面レベル検出手段の出力に基づいて自動制御す
る配湯制御装置に関する。
[Detailed description of the invention] <Industrial application field> The invention is designed to control the molten metal operation of the carrier, which scoops up and transports the molten metal of the casting material melted in the melting furnace and pours it into the holding furnace of each die-casting machine. The present invention relates to a hot water distribution control device that performs automatic control based on the output of a hot water level detection means in a holding furnace.

〈従来の技術〉 従来、鋳造工場の一例として第3図に示すアル
ミニウムダイカスト工場では、鋳造材料であるア
ルミ合金地金を溶解炉20で溶融して貯える一
方、天井に架設したレール3上を走行するキヤリ
ア1に備えた上下動するレードル2(第1図参
照)で、上記溶解炉20の汲上口21からアルミ
合金溶湯を汲み上げ、必要に応じて各ダイカスト
マシン22に備え付けの保持炉4まで運搬する自
動配湯システムが採用されている。そして、工場
稼動時には、溶解炉20にアルミ合金地金が必要
に応じて投入され、溶解炉内の溶湯レベルは炉底
まで下ろされた上記レードルの上端よりもかなり
高い常用レベルに維持される一方、各保持炉4の
湯面レベルが所定の高レベル以下になると、湯面
レベルセンサがこれを検知して配湯制御装置23
に信号を出力し、この信号に基づいて配湯制御装
置23が上記キヤリア1を呼び出し、その保持炉
に自動配湯されるようにしている。
<Prior art> Conventionally, in an aluminum die casting factory shown in FIG. 3 as an example of a foundry, aluminum alloy ingots, which are casting materials, are melted and stored in a melting furnace 20, while running on rails 3 installed on the ceiling. The molten aluminum alloy is pumped up from the pumping port 21 of the melting furnace 20 by a vertically moving ladle 2 (see Fig. 1) provided on the carrier 1, and transported to the holding furnace 4 provided in each die-casting machine 22 as necessary. An automatic hot water distribution system has been adopted. When the factory is in operation, aluminum alloy ingots are fed into the melting furnace 20 as needed, and the molten metal level in the melting furnace is maintained at a normal level considerably higher than the upper end of the ladle lowered to the bottom of the furnace. , when the hot water level in each holding furnace 4 falls below a predetermined high level, the hot water level sensor detects this and the hot water distribution control device 23
Based on this signal, the hot water distribution control device 23 calls the carrier 1 and automatically distributes hot water to the holding furnace.

しかし、工場が休業し、溶解炉20が止まる週
末などに炉内に溶湯を残しておくと、この溶湯が
凝固して再稼動時にこれを溶融させるのが難し
く、また不経済でもあるので、上記レードルで汲
み上げられないレードル上端よりも下方の残湯を
含めて全ての溶湯を炉外に排出し、排出された溶
湯を各保持炉4へ配湯する必要がある。例えば、
アルミニウム溶解能力750Kg/時の溶解炉の場合、
常用レベル下方の汲み上げ可能な溶湯量が0.7ト
ンであるのに対し、汲み上げ不可能な残湯量は略
1トンにも達する。そこで、考案者らは、最近、
この多量の残湯を上記キヤリア1を有効に利用し
て、安全かつ能率的に保持炉4へ配湯することが
できる配湯装置を提案した(実願昭61−135902
号)。この配湯装置は、溶解炉20近傍に上端を
この溶解炉底よりも下方に位置させて、溶解炉の
横断面よりも小さな横断面を有し、かつ上記レー
ドル2を収容し得る取鍋24を設け、この取鍋を
昇降台によつてレードル下降限まで上昇させるよ
うにしたものである。
However, if molten metal is left in the furnace on weekends when the factory is closed and the melting furnace 20 is stopped, the molten metal will solidify and it will be difficult and uneconomical to melt it when restarting operations. It is necessary to discharge all the molten metal, including the remaining molten metal below the upper end of the ladle that cannot be pumped up by the ladle, out of the furnace, and distribute the discharged molten metal to each holding furnace 4. for example,
In the case of a melting furnace with an aluminum melting capacity of 750Kg/hour,
While the amount of molten metal that can be pumped below the normal use level is 0.7 tons, the amount of remaining molten metal that cannot be pumped reaches approximately 1 ton. Therefore, the inventors recently
We have proposed a hot water distribution system that can safely and efficiently distribute this large amount of remaining hot metal to the holding furnace 4 by effectively utilizing the carrier 1 (Utility Application No. 61-135902).
issue). This dispensing device has a ladle 24 whose upper end is located near the melting furnace 20 and below the bottom of the melting furnace, and which has a cross section smaller than that of the melting furnace and can accommodate the ladle 2. The ladle is raised to the lowering limit of the ladle by means of a lifting platform.

〈考案が解決しようとする問題点〉 しかして、溶解炉20からの残湯の排出は、上
記提案の配湯装置で安全かつ能率的に行えるよう
になつた反面、この多量の残湯を受け入れるべき
各保持炉4の湯面レベルが、湯面レベルセンサに
よつて前述の如く高レベルに維持されるため新た
な問題が生じるに至つた。即ち、各保持炉4が満
湯に近い状態に維持されるため、その溶湯収容能
力に殆んど余裕がなく、僅かに各ダイカストマシ
ン22の溶湯消費による湯量の減少に頼る他な
く、結局残湯の処理に時間がかかりすぎ、短時間
に残湯を処理できないという欠点が顕現した。
<Problems to be solved by the invention> However, although it has become possible to discharge the remaining metal from the melting furnace 20 safely and efficiently with the above-mentioned hot water distribution system, it is difficult to accept this large amount of remaining metal. Since the hot water level in each holding furnace 4 is maintained at a high level by the hot water level sensor as described above, a new problem has arisen. That is, since each holding furnace 4 is maintained in a state close to full, there is almost no margin in its molten metal storage capacity, and the only option is to reduce the amount of molten metal due to the consumption of molten metal in each die-casting machine 22. The drawback was that it took too long to process the hot water, and the remaining hot water could not be disposed of in a short period of time.

そこで、本考案の目的は、各保持炉の湯面を残
湯処理に先立つて低レベルに維持することによ
り、短時間に溶解炉の残湯を各保持炉に分配する
ことができる配湯制御装置を提供することであ
る。
Therefore, the purpose of this invention is to maintain the melt level in each holding furnace at a low level prior to processing the remaining metal, thereby controlling the melt distribution so that the remaining metal in the melting furnace can be distributed to each holding furnace in a short time. The purpose is to provide equipment.

〈問題点を解決するための手段〉 上記目的を達成するため、上下動するレードル
に溶解炉で溶かされた鋳造材料の溶湯を汲み取つ
てレールに沿つて走行し、複数の保持炉へ注ぎ込
むキヤリアの配湯動作を、各保持炉の湯面を検出
する湯面レベル検出手段の出力に基づいて自動制
御する本考案の配湯制御装置は、上記各保持炉の
高湯面レベルと低湯面レベルを検出する湯面レベ
ル検出手段を設ける一方、この湯面レベル検出手
段から出力される高湯面レベル信号および低湯面
レベル信号のいずれか一方を選択して出力する選
択スイツチを設けたことを特徴とする。
<Means for Solving the Problems> In order to achieve the above purpose, a carrier is used to draw up molten casting material melted in a melting furnace onto a ladle that moves up and down, travels along a rail, and pours it into multiple holding furnaces. The hot water distribution control device of the present invention automatically controls the hot water distribution operation based on the output of the hot water level detection means that detects the hot water level of each holding furnace. A hot water level detecting means for detecting the hot water level is provided, and a selection switch is provided for selecting and outputting either a high hot water level signal or a low hot water level signal output from the hot water level detecting means. shall be.

〈作用〉 溶解炉の残湯処理に先立ち、操作者は、配湯制
御装置の選択スイツチを低湯面レベル側に切り換
える。そうすると、各保持炉の低湯面レベル検出
手段は、保持炉の溶湯がダイカストマシン等で消
費されて湯面レベルが所定の低レベル以下になつ
て初めて、上記選択スイツチを経て配湯制御装置
へ低湯面レベル信号を出力し、配湯制御装置は、
この信号に基づいてキヤリアをしてその保持炉へ
溶解炉の溶湯を供給せしめる。これによつて、各
保持炉の湯面は上記所定の低レベルに維持され
る。次に、溶解炉の残湯処理にあたつて、操作者
は、上記選択スイツチを高湯面レベル側に切り換
える。そうすると、各保持炉の高湯面レベル検出
手段が、この選択スイツチを経て配湯制御装置へ
信号を入力するようになり、配湯制御装置は、保
持炉の湯面が所定の高レベルに達して上記高湯面
レベル検出手段が高湯面レベル信号を出力するま
で、キヤリアをしてその保持炉へ溶解炉の残湯を
供給せしめ続ける。こうして、溶解炉の残湯は、
溶湯収容能力に十分な余裕がある各保持炉に短時
間の間に分配されてしまう。
<Operation> Prior to processing the remaining metal in the melting furnace, the operator switches the selection switch of the metal distribution control device to the low level side. Then, the low molten metal level detection means of each holding furnace is sent to the molten metal distribution control device via the selection switch only after the molten metal in the holding furnace is consumed by a die-casting machine etc. and the molten metal level falls below a predetermined low level. The hot water distribution control device outputs a low hot water level signal,
Based on this signal, a carrier is used to supply the molten metal from the melting furnace to the holding furnace. As a result, the hot water level in each holding furnace is maintained at the predetermined low level. Next, when processing the remaining melt in the melting furnace, the operator switches the selection switch to the high melt level side. Then, the high melt level detection means of each holding furnace will input a signal to the hot water distribution control device via this selection switch, and the hot water distribution control device will detect when the hot water level in the holding furnace has reached a predetermined high level. The carrier continues to supply the remaining molten metal of the melting furnace to the holding furnace until the high molten metal level detection means outputs a high molten metal level signal. In this way, the remaining melt in the melting furnace is
The molten metal is distributed within a short period of time to each holding furnace that has sufficient capacity to accommodate the molten metal.

〈実施例〉 以下、本考案を図示の実施例により詳細に説明
する。
<Example> Hereinafter, the present invention will be explained in detail with reference to the illustrated example.

第1図は本考案の配湯制御装置のうち保持炉の
湯面レベルを検出する湯面レベル検出手段を示す
側面図(第4図−矢視図)であり、1は上下
動して溶解炉20(第4図参照)で溶かされたア
ルミ合金の溶湯を汲み取るレードル2を有し、レ
ール3に沿つて走行するキヤリア、4は各ダイカ
ストマシン22(第4図参照)に備え付けられ、
上記キヤリア1から溶湯を注ぎ込まれる保持炉、
5は回動アーム6の先端のレードル7に保持炉4
内の溶湯を汲み取つて上記各ダイカストマシン2
2に供給する給湯機、8は下端をレードル7の上
端に位置させて上記回動アーム6に固定され、溶
湯面に接触すると回動アーム6の下方回動を停止
させるレベルセンサ、9,10は上記回動アーム
6基端の駆動軸に設けられた図示しないカムによ
つて、レードル7の上端が下方回動で所定の高湯
面レベルL1および所定の湯面レベルL2に達した
とき夫々オンになるリミツトスイツチであり、上
記レベルセンサ8とリミツトスイツチ9,10で
湯面レベル検出手段を構成している。
Fig. 1 is a side view (Fig. 4 - arrow view) showing the molten metal level detection means for detecting the molten metal level in the holding furnace in the molten metal distribution control device of the present invention, and 1 is a side view showing the molten metal level detecting means for detecting the molten metal level in the holding furnace. A carrier 4, which has a ladle 2 for drawing up molten aluminum alloy melted in a furnace 20 (see FIG. 4) and runs along a rail 3, is installed in each die-casting machine 22 (see FIG. 4),
a holding furnace into which the molten metal is poured from the carrier 1;
5 is a holding furnace 4 mounted on a ladle 7 at the tip of a rotating arm 6.
The molten metal inside is pumped out to each die casting machine 2 above.
A level sensor 9, 10 is fixed to the rotary arm 6 with its lower end located at the upper end of the ladle 7, and stops the downward rotation of the rotary arm 6 when it comes into contact with the molten metal surface. is when the upper end of the ladle 7 is rotated downward to reach a predetermined high hot water level L1 and a predetermined hot water level L2 by a cam (not shown) provided on the drive shaft at the base end of the rotary arm 6 . Each of the limit switches is turned on, and the level sensor 8 and limit switches 9 and 10 constitute a hot water level detection means.

第2図は配湯制御装置23(第3図舗参照)の
展開接続図であり、同図において、12は上記両
リミツトスイツチ9,10のいずれか一方を選択
するための選択スイツチ、9a〜9fはこ選択ス
イツチ12の高湯面接点12c−12a側に連動
の配湯オン・オフスイツチ13を介して並列に接
続した各保持炉の上記リミツトスイツチ、10a
〜10fは上記選択スイツチ12の低湯面接点1
2c−12b側に上記配湯オン・オフスイツチ1
3を介して並列に接続した各保持炉の上記リミツ
トスイツチであり、各保持炉の一対のリミツトス
イツチ9a,10a〜9f,10fによつて夫々
その保持炉がキヤリア1を呼び出していることを
示す呼出し信号1〜6が入力される。その他の入
力としては、キヤリア1の位置を表わす信号、溶
解炉20の蓋開限、蓋閉限信号、各スイツチによ
つて入力される自動運転、自動起動、自動停止、
リセツトを表わす各信号、溶解炉20または取鍋
24でオンとなるスイツチによつて入力され、溶
湯の汲み上げ先を指示する信号等がある。一方、
上記配湯制御装置11からの出力としては、キヤ
リア1へ前進、後退、高速走行、溶湯汲み出し、
各保持炉への配湯、自動運転を夫々指示する信
号、溶解炉20へ蓋開および蓋閉を指示する信
号、キヤリアが配湯すべき保持炉4の番号を表示
する信号等がある。そして、このような配湯制御
装置11への入出力信号は、第2図に示す多重伝
送送受信ユニツトを介し、第4図の2点鎖線で示
すレール3に沿けられた信号ケーブルを経てやり
とりされる。
Fig. 2 is an expanded connection diagram of the hot water distribution control device 23 (see Fig. 3), and in the same figure, reference numeral 12 denotes selection switches 9a to 9f for selecting either one of the limit switches 9 and 10. The limit switch 10a of each holding furnace is connected in parallel to the hot metal surface contact 12c-12a side of the selection switch 12 via the hot water distribution on/off switch 13.
~10f is the low hot water surface contact 1 of the selection switch 12
The hot water distribution on/off switch 1 is installed on the 2c-12b side.
A call signal indicating that the holding furnace is calling the carrier 1 is transmitted by a pair of limit switches 9a, 10a to 9f, 10f of each holding furnace. 1 to 6 are input. Other inputs include a signal representing the position of the carrier 1, a lid opening limit signal and a lid closing signal for the melting furnace 20, automatic operation, automatic start, automatic stop, and automatic operation input by each switch.
There are various signals representing a reset, signals inputted by a switch turned on in the melting furnace 20 or the ladle 24, and a signal instructing where the molten metal is to be pumped. on the other hand,
Outputs from the metal distribution control device 11 include forward movement to the carrier 1, backward movement, high speed movement, molten metal pumping,
There are signals that instruct each holding furnace to distribute molten metal and automatic operation, signals that instruct the melting furnace 20 to open and close the lid, and signals that display the number of the holding furnace 4 to which the carrier should distribute molten metal. Such input/output signals to the hot water distribution control device 11 are exchanged via the multiplex transmission transmitting/receiving unit shown in FIG. be done.

上記構成の配湯制御装置の動作を、第1図、第
2図を参照しつつ次に述べる。
The operation of the hot water distribution control device having the above configuration will be described below with reference to FIGS. 1 and 2.

週末等における溶解炉20(第3図参照)の残
湯処理に先立ち、操作者は、配湯制御装置11の
選択スイツチ12を低湯面接点12c−12b側
に切り換える。そうすると、各保持炉4の給湯機
5のレベルセンサ8とリミツトスイツチ10から
なる低湯面レベル検出手段は、その保持炉の溶湯
が低レベルL2以下になつて初めてオンになり、
配湯制御装置11に呼出し信号1〜6のうちその
保持炉に対応したいずれかの信号を入力する。次
いで、配湯制御装置11は、この入力信号に基づ
いて一連の信号を出力し、キヤリア1を溶解炉2
0の汲上口21あるいは取鍋24の位置まで走行
させ、この位置で汲上口21の蓋を開かせ、レー
ドル2を下降、上昇させて溶湯を汲み上げ、上記
蓋を閉ざさせた後、キヤリア1を呼び出しのあつ
た保持炉4まで走行させ、レードル2の昇降動お
よび傾動でこの保持炉に溶湯を注ぎ込ませる。こ
うして、各保持炉4の湯面は上記低レベルL2
維持される。
Prior to disposing of residual metal in the melting furnace 20 (see FIG. 3) on weekends or the like, the operator switches the selection switch 12 of the metal distribution control device 11 to the low metal surface contact 12c-12b side. Then, the low level detection means consisting of the level sensor 8 and limit switch 10 of the water heater 5 of each holding furnace 4 is turned on only when the molten metal in that holding furnace reaches the low level L2 or below.
One of the call signals 1 to 6 corresponding to the holding furnace is input to the hot water distribution control device 11. Next, the hot water distribution control device 11 outputs a series of signals based on this input signal to move the carrier 1 to the melting furnace 2.
0 to the position of the pumping port 21 or the ladle 24, open the lid of the pumping port 21 at this position, lower and raise the ladle 2 to pump the molten metal, close the lid, and then move the carrier 1. It travels to the holding furnace 4 that has been called up, and pours the molten metal into this holding furnace by lifting and tilting the ladle 2. In this way, the hot water level in each holding furnace 4 is maintained at the above-mentioned low level L2 .

次に、溶解炉20の残湯処理にあたつて、操作
者は、上記選択スイツチ12を高湯面接点12c
−12a側に切り換える。そうすると、各保持炉
4の給湯機5のレベルセンサ8とリミツトスイツ
チ9からなるオン状態にある高湯面レベル検出手
段が、上記高湯面接点12c−12aを経て配湯
制御装置11へ信号を入力するようになり、配湯
制御装置11は、保持炉の湯面が上記リミツトス
イツチ9をオフにする高レベルL1に達するまで、
前述と同様にキヤリア1をしてその保持炉4へ溶
解炉20の残湯を供給せしめ続ける。こうして、
溶解炉20の残湯は、溶湯収容能力に十分な余裕
がある(低レベルL2)各保持炉4に短時間の間
に全て分配されてしまうのである。
Next, when processing the remaining metal in the melting furnace 20, the operator switches the selection switch 12 to the hot metal contact 12c.
Switch to -12a side. Then, the high hot water level detecting means which is in the on state and consists of the level sensor 8 and limit switch 9 of the water heater 5 of each holding furnace 4 inputs a signal to the hot water distribution control device 11 via the high hot water surface contact 12c-12a. The melt distribution control device 11 controls the melt level until the melt level in the holding furnace reaches a high level L1 that turns off the limit switch 9.
The carrier 1 continues to supply the remaining metal from the melting furnace 20 to the holding furnace 4 in the same manner as described above. thus,
The remaining metal in the melting furnace 20 is all distributed within a short period of time to each holding furnace 4 that has sufficient molten metal storage capacity (low level L 2 ).

上記実施例では、保持炉4からダイカストマシ
ン22へ溶湯を供給する給湯機5の回動アーム6
の回動を停止させるレベルセンサ8を湯面レベル
検出手段に兼用し、回動アーム6の基端に設けた
リミツトスイツチ9,10によつて配湯制御装置
11に高湯面レベル信号および低湯面レベル信号
を入力するようにしているので、保持炉4に別途
湯面レベルセンサを設ける必要がなく、設備費が
低減できるうえ、レベルセンサ8が溶湯に浸漬す
ることがないので、長期使用に耐え得る。
In the above embodiment, the rotary arm 6 of the water heater 5 supplies molten metal from the holding furnace 4 to the die casting machine 22.
The level sensor 8 that stops the rotation of the rotary arm 6 is also used as a hot water level detection means, and the limit switches 9 and 10 provided at the base end of the rotating arm 6 send a high hot water level signal and a low hot water level signal to the hot water distribution control device 11. Since the level signal is input, there is no need to install a separate molten metal level sensor in the holding furnace 4, which reduces equipment costs, and since the level sensor 8 is not immersed in molten metal, it can be used for a long time. obtain.

〈考案の効果〉 以上の説明で明らかなように、上下動するレー
ドルに溶解炉で溶かされた鋳造材料の溶湯を汲み
取つてレールに沿つて走行し、複数の保持炉へ注
ぎ込むキヤリアの配湯動作を、各保持炉の湯面を
検出する湯面レベル検出手段の出力に基づいて自
動制御する配湯制御装置は、本考案の上記各保持
炉の高湯面レベルと低湯面レベルを検出する湯面
レベル検出手段を設ける一方、この湯面レベル検
出手段から出力される高湯面レベル信号および低
湯面レベル信号のいずれか一方を選択して出力す
る選択スイツチを設けているので、溶解炉の残湯
処理に先立つて各保持炉の湯面を低レベルに維持
することにより、溶湯収容能力に十分な余裕があ
る各保持炉に短時間で残湯を全て分配してしまう
ことができ、週末などの溶解炉停止の際の残湯処
理を能率良く行なうことができる。
<Effects of the invention> As is clear from the above explanation, the carrier transports the molten metal melted in the melting furnace to a ladle that moves up and down, travels along the rail, and pours it into multiple holding furnaces. The hot water distribution control device that automatically controls the operation based on the output of the hot water level detection means that detects the hot water level of each holding furnace detects the high hot water level and low hot water level of each of the above-mentioned holding furnaces of the present invention. The melt level detection means is provided with a selection switch that selects and outputs either the high melt level signal or the low melt level signal output from the melt level detection means, so that the melting furnace By maintaining the molten metal level in each holding furnace at a low level prior to processing residual metal, all remaining metal can be distributed to each holding furnace with sufficient molten metal storage capacity in a short period of time, and all remaining metal can be distributed over a weekend. The remaining metal can be efficiently disposed of when the melting furnace is shut down.

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

第1図は本考案の配湯制御装置の湯面レベル検
出手段を示す側面図、第2図は上記配湯制御装置
の選択スイツチおよびリミツトスイツチの部分詳
細図、第3図は従来の配湯装置を備えたアルミニ
ウムダイカスト工場の平面配置図である。 1……キヤリア、2……レードル、3……レー
ル、4……保持炉、5……給湯機、6……回動ア
ーム、7……レードル、8……レベルセンサ、
9,10……リミツトスイツチ、23……配湯制
御装置、12……選択スイツチ、20……溶解
炉、22……ダイカストマシン、24……取鍋、
L1……高湯面レベル、L2……低湯面レベル。
FIG. 1 is a side view showing the hot water level detection means of the hot water distribution control device of the present invention, FIG. 2 is a partial detailed view of the selection switch and limit switch of the hot water distribution control device, and FIG. 3 is a conventional hot water distribution device. 1 is a plan layout of an aluminum die-casting factory equipped with. 1... Carrier, 2... Ladle, 3... Rail, 4... Holding furnace, 5... Water heater, 6... Rotating arm, 7... Ladle, 8... Level sensor,
9, 10... limit switch, 23... melt distribution control device, 12... selection switch, 20... melting furnace, 22... die casting machine, 24... ladle,
L1 ...High hot water level, L2 ...Low hot water level.

Claims (1)

【実用新案登録請求の範囲】 上下動するレードルに溶解炉で溶かされた鋳造
材料の溶湯を汲み取つてレールに沿つて走行し、
複数の保持炉へ注ぎ込むキヤリアの配湯動作を、
各保持炉の湯面を検出する湯面レベル検出手段の
出力に基づいて自動制御する配湯制御装置におい
て、 上記各保持炉の高湯面レベルと低湯面レベルを
検出する湯面レベル検出手段を設ける一方、この
湯面レベル検出手段から出力される高湯面レベル
信号および低湯面レベル信号のいずれか一方を選
択して出力する選択スイツチを設けたことを特徴
とする配湯制御装置。
[Scope of Claim for Utility Model Registration] A ladle that moves up and down draws molten casting material melted in a melting furnace and runs along a rail,
The distribution operation of the carrier that pours into multiple holding furnaces,
In a hot water distribution control device that performs automatic control based on the output of a hot water level detection means that detects the hot water level of each holding furnace, the hot water level detection means that detects a high hot water level and a low hot water level of each of the holding furnaces is provided. 1. A hot water distribution control device, further comprising a selection switch for selecting and outputting either a high hot water level signal or a low hot water level signal output from the hot water level detecting means.
JP8456387U 1987-05-30 1987-05-30 Expired JPH0225561Y2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP8456387U JPH0225561Y2 (en) 1987-05-30 1987-05-30

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP8456387U JPH0225561Y2 (en) 1987-05-30 1987-05-30

Publications (2)

Publication Number Publication Date
JPS63196344U JPS63196344U (en) 1988-12-16
JPH0225561Y2 true JPH0225561Y2 (en) 1990-07-13

Family

ID=30939178

Family Applications (1)

Application Number Title Priority Date Filing Date
JP8456387U Expired JPH0225561Y2 (en) 1987-05-30 1987-05-30

Country Status (1)

Country Link
JP (1) JPH0225561Y2 (en)

Also Published As

Publication number Publication date
JPS63196344U (en) 1988-12-16

Similar Documents

Publication Publication Date Title
US5203909A (en) Method and apparatus for slag free casting
CN201231315Y (en) Molten iron transfer deice for casting cylinder liner
JPH0225561Y2 (en)
CN213052731U (en) Intelligent device for filling drainage sand
JP3027045B2 (en) Disposal equipment for ladle filling sand and tundish residual steel slag in continuous casting machine
EP0777844B1 (en) Apparatus and method for the supply of molten metal
CN217600760U (en) Automatic pouring equipment for refractory material of molten iron runner
JPH11123534A (en) Automatic molten metal pouring machine
CN215468074U (en) Continuous casting tundish tipping type slag discharging device
JP2554709B2 (en) A device for pushing and removing chips in a welding furnace
US5346528A (en) Continuous automatic steel making method and facility
US3940264A (en) Method of distributing molten metal to consumer stations
JPS5914043Y2 (en) automatic water heater
JPS6138758Y2 (en)
JPS6311157Y2 (en)
JPS6311156Y2 (en)
EP0104392B1 (en) Method of producing nodular iron and a machine for the implementation thereof
AU691339B2 (en) Apparatus and method for the supply of molten metal
JPH045989Y2 (en)
JPH0760417A (en) Device for supporting molten steel ladle
US801453A (en) Molten-metal conductor for cupolas, &amp;c.
CN118106483A (en) Continuous casting machine sand-guiding device and control method thereof
JPS5940137Y2 (en) automatic water heater
JPS6347402Y2 (en)
JPH05192764A (en) Casting system