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JPH021630B2 - - Google Patents
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JPH021630B2 - - Google Patents

Info

Publication number
JPH021630B2
JPH021630B2 JP17201181A JP17201181A JPH021630B2 JP H021630 B2 JPH021630 B2 JP H021630B2 JP 17201181 A JP17201181 A JP 17201181A JP 17201181 A JP17201181 A JP 17201181A JP H021630 B2 JPH021630 B2 JP H021630B2
Authority
JP
Japan
Prior art keywords
grinding wheel
point
product
grinding
ground
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
JP17201181A
Other languages
Japanese (ja)
Other versions
JPS5877439A (en
Inventor
Kozo Tanaka
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.)
WASHINO MACHINE
Original Assignee
WASHINO MACHINE
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 WASHINO MACHINE filed Critical WASHINO MACHINE
Priority to JP17201181A priority Critical patent/JPS5877439A/en
Publication of JPS5877439A publication Critical patent/JPS5877439A/en
Publication of JPH021630B2 publication Critical patent/JPH021630B2/ja
Granted legal-status Critical Current

Links

Classifications

    • BPERFORMING OPERATIONS; TRANSPORTING
    • B24GRINDING; POLISHING
    • B24BMACHINES, DEVICES, OR PROCESSES FOR GRINDING OR POLISHING; DRESSING OR CONDITIONING OF ABRADING SURFACES; FEEDING OF GRINDING, POLISHING, OR LAPPING AGENTS
    • B24B17/00Special adaptations of machines or devices for grinding controlled by patterns, drawings, magnetic tapes or the like; Accessories therefor
    • B24B17/04Special adaptations of machines or devices for grinding controlled by patterns, drawings, magnetic tapes or the like; Accessories therefor involving optical auxiliary means, e.g. optical projection form grinding machines

Landscapes

  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Grinding And Polishing Of Tertiary Curved Surfaces And Surfaces With Complex Shapes (AREA)

Description

【発明の詳細な説明】 本発明は光倣い研削盤の自動化方法に関わり、
更に詳細には、光倣い研削盤によつて外面に曲線
を含む凹凸を研削するにあたり、所望の形状の変
化点位置を実際に、スクリーン上にはりつけた素
材の同倍率拡大図形に手動によつて砥石車の先端
部を位置させるか、或いは素材を研削して位置さ
せ、その位置の座標を制御装置に記憶させ、上記
各形状変化点間の加工速度、加工順序、及び直線
補間によるか曲線補間によるかをも記憶させ、或
いはテープ化しておくことで、爾後の加工を完全
に自動化する光倣い研削盤の自動化方法に関する
ものである。
[Detailed Description of the Invention] The present invention relates to a method for automating an optical copying grinder,
More specifically, when grinding irregularities including curves on the outer surface using an optical tracing grinder, the position of the change point of the desired shape is manually measured on the same magnification enlarged figure of the material pasted on the screen. Position the tip of the grinding wheel or grind the material, store the coordinates of that position in the control device, and adjust the processing speed, processing order, and linear or curved interpolation between the above shape change points. The present invention relates to a method for automating an optical tracing grinder that completely automates subsequent machining by memorizing or recording the information on a tape.

従来上記のような外面に曲線を含む輪郭研削は
総形砥石車を図面に一致させてドレツシングして
研削するか、光学倣い研削盤を使つて、断面した
態様においては先端部が微小円弧状の砥石車をス
クリーン上の図形に合わせて移動させるか、或い
は製作図面の形状変化点をすべて計算して座標化
し、加工順序、移動速度、直線補間、曲線補間を
テープ化して全自動によつて研削していたのであ
る。
Conventionally, contour grinding with a curved outer surface as described above is performed by dressing a full-form grinding wheel according to the drawing, or by using an optical profiling grinder. Either move the grinding wheel according to the shape on the screen, or calculate and coordinate all the shape change points in the production drawing, tape the processing order, movement speed, linear interpolation, and curved interpolation, and grind fully automatically. That's what I was doing.

上記の総形砥石車による研削は、砥石車の摩耗
の毎にドレツシングを行うものであり、全体の凹
凸が決まつてしまうから専用の砥石車となつて汎
用性がないことと、全面が均一に摩耗しないため
に不経済で不合理な加工方法である。
Grinding using the above-mentioned full-form grinding wheel involves dressing every time the grinding wheel wears out, and since the overall unevenness is determined, the grinding wheel becomes a dedicated grinding wheel and is not versatile, and the entire surface is uniform. This is an uneconomical and unreasonable processing method to avoid wear.

第2の光学倣い研削方式は、摩耗の少いダイヤ
モンドホイールなども使え、輪郭の変化に広く対
応できる長所はあるが、研削油を使用できず、X
軸、Y軸方向の2軸を同時に手動で制御して完全
な直線や円弧を研削するには、高度の熟練を必要
としたのである。
The second optical profile grinding method has the advantage of being able to handle a wide range of contour changes by using diamond wheels with low wear, but it cannot use grinding oil and
It required a high degree of skill to manually control the two axes (axis and Y-axis) simultaneously and grind a perfect straight line or arc.

第3の所望の輪郭図形の変化点を図上計算によ
つて算出し、途中の移動条件を加えてテープ化し
完全自動で研削する研削方式は、理想的ではある
が砥石車の先端点及び2番部分の状態を無視した
加工方法であつて、数学に熟達したプログラマー
が専門に従事する必要があることから、誰でもで
きるという性質のものではないのである。
The grinding method that calculates the change point of the third desired contour figure by graphical calculation, adds intermediate movement conditions, tapes it, and grinds it completely automatically is ideal, but the tip point of the grinding wheel and the It is a processing method that ignores the state of the numbered parts, and requires the specialized work of programmers who are proficient in mathematics, so it is not something that anyone can do.

本発明で上記した従来の研削方法の欠点を克服
すべくなされたもので、専門のプログラマーでな
くても比較的容易に完全自動研削を達成した研削
方法を提供するものである。
The present invention has been made to overcome the drawbacks of the conventional grinding methods described above, and provides a grinding method that can relatively easily achieve fully automatic grinding even without a professional programmer.

以下に図面にもとづいて本発明の好適実施例を
詳細に説明する。
Preferred embodiments of the present invention will be described in detail below based on the drawings.

第1図、第2図は光倣い研削盤1で、特に加工
情報を記憶装置に入力し、これから出力するため
の操作盤3を備えている。この操作盤は記憶装置
及び記憶装置にもとづく研削盤の自動制御装置を
収めた框体5を附属している。
FIGS. 1 and 2 show an optical copying grinding machine 1, which is particularly equipped with an operation panel 3 for inputting machining information into a storage device and outputting it from there. This operating panel is equipped with a frame 5 containing a storage device and an automatic control device for the grinding machine based on the storage device.

光倣い研削盤1は、従来から公知のもので簡単
に説明すると、機台7の上部左側に砥石車9を保
持する砥石ヘツド11が、砥石車9を軸13のま
わりに回動自在に支承しており、砥石ヘツド11
は砥石昇降枠体15に沿つて昇降自在に設けてあ
る。砥石ヘツド11の回動を案内するコラム17
の裏面に設けられた電動機の如き駆動手段19に
よりベルトを介して砥石車9を回転して研削を行
うものである。
The optical copying grinding machine 1 is a conventionally known one, and to briefly explain it, a grinding wheel head 11 that holds a grinding wheel 9 on the upper left side of a machine stand 7 supports the grinding wheel 9 so as to be rotatable around a shaft 13. The grindstone head 11
is provided so as to be movable up and down along the grindstone lifting frame 15. Column 17 that guides the rotation of the grindstone head 11
Grinding is performed by rotating the grinding wheel 9 via a belt by a driving means 19 such as an electric motor provided on the back side of the grinding wheel 9.

コラム17は下面に摺動面を有し、受台21の
上面に形成した案内溝に沿い、第1図の前後方向
(X軸方向)に移動する。
The column 17 has a sliding surface on its lower surface, and moves in the front-rear direction (X-axis direction) in FIG. 1 along a guide groove formed on the upper surface of the pedestal 21.

受台21の下面には、X軸方向に砥石車9、砥
石ヘツド11、コラム17を移動自在な移動台2
3が設けられ、移動台23の下面には砥石車9、
砥石ヘツド11、コラム17を第1図における左
右方向(Y軸方向)に移動するY軸移動手段25
が設けられている。
On the lower surface of the cradle 21, there is a movable base 2 that can freely move the grinding wheel 9, the grinding wheel head 11, and the column 17 in the X-axis direction.
A grinding wheel 9 is provided on the lower surface of the movable table 23.
Y-axis moving means 25 for moving the grindstone head 11 and column 17 in the left-right direction (Y-axis direction) in FIG.
is provided.

機台7の前面には、X軸ハンドル27、Y軸ハ
ンドル29が設けられ、砥石車9、砥石ヘツド1
1、コラム17をX軸方向、Y軸方向へ手動によ
り移動可能に構成されている。機台7の上面右側
の砥石車9と対向する位置には、被加工物を挾持
するテーブル31が設けられ、テーブル31は下
面に設けらたX軸移動台33の案内面に沿つてX
軸ハンドル35によつて、X軸方向に移動自在に
設けられている。
An X-axis handle 27 and a Y-axis handle 29 are provided on the front of the machine stand 7, and a grinding wheel 9 and a grinding wheel head 1 are provided.
1. The column 17 is configured to be manually movable in the X-axis direction and the Y-axis direction. A table 31 for holding a workpiece is provided at a position facing the grinding wheel 9 on the right side of the upper surface of the machine stand 7, and the table 31 moves along the guide surface of an
It is provided movably in the X-axis direction by means of a shaft handle 35.

X軸移動台33の下面には、Y軸方向に移動自
在な案内面を有するY軸移動台37が設けられ、
Y軸移動台37の右端部に設けられたY軸ハンド
ル39の回転により、X軸移動台33をY軸方向
へ移動するものである。
A Y-axis moving table 37 having a guide surface movable in the Y-axis direction is provided on the lower surface of the X-axis moving table 33.
By rotating a Y-axis handle 39 provided at the right end of the Y-axis moving table 37, the X-axis moving table 33 is moved in the Y-axis direction.

Y軸移動台37は、上下方向(Z軸方向)に移
動自在あり、電動機のごときZ軸駆動手段41に
より昇降するものである。
The Y-axis moving table 37 is movable in the vertical direction (Z-axis direction) and is raised and lowered by a Z-axis driving means 41 such as an electric motor.

砥石車9と被加工物の研削面の上方には、研削
面を投影する投影器が設けられ、機台7の上方に
設けられたスクリーン43に、砥石車9と被加工
物を投影するように設けられ、この投影の倍率は
数段階選択可能に設けられている。
A projector is provided above the grinding surfaces of the grinding wheel 9 and the workpiece to project the grinding surface onto a screen 43 provided above the machine stand 7. The magnification of this projection can be selected from several levels.

又、光倣い研削盤だけの制御に用いられる制御
搬45が機台7の第1図正面左上方に設けられて
おり、第2図の右端には、研削粉末の集塵装置4
7が備えられている。
In addition, a control carrier 45 used to control only the optical copying grinder is provided at the upper left of the front of the machine stand 7 in FIG.
7 is provided.

第3図は、前記した操作盤3を拡大して示した
もので、より詳細には、状態表示部49と、記憶
装置操作部51と、記憶装置に情報を入力する状
態を砥石車9の移動と関連して作り出す研削盤の
操作部53とから成つている。
FIG. 3 is an enlarged view of the operation panel 3 described above, and more specifically, the state display section 49, the storage device operation section 51, and the state of inputting information to the storage device are shown on the grinding wheel 9. It consists of an operating section 53 of the grinding machine that is produced in connection with the movement.

第4図は、本発明の方法を説明する図であつ
て、図によつてその方法の1例を具体的に説明す
る。
FIG. 4 is a diagram for explaining the method of the present invention, and one example of the method will be specifically explained with reference to the diagram.

初めに、投影器のスクリーン43上に、被加工
物の拡大率に相応する原図55を貼りつける。第
4図は原図55と被加工物の撮像を使用する場合
とをいつしよに記載してあつて、原図55の加工
面に斜線を附した部分だけ大きな撮像を原図とと
もに被加工物を投影して情報を用意する場合に用
いられるが、情報を作る過程は、被加工物が輪郭
線の変化する位置で研削されてしまうという点を
除けば同じであるからまとめて説明する。まづ、
操作盤3を操作し、X軸手動ハンドル27、Y軸
手動ハンドル29を手動で回動して、スクリーン
上の原図55の正面に離れて砥石車9の先端を位
置させる。図には砥石車9の先端だけを拡大して
示してあり、砥石車先端アールの曲率中心を十字
形で示してある。砥石車の先端部が上記の位置に
位置を占めた時AのX軸、Y軸座標値を座標原点
として記憶装置に登録する。
First, an original image 55 corresponding to the magnification of the workpiece is pasted on the screen 43 of the projector. Fig. 4 shows the cases in which the original drawing 55 and the image of the workpiece are used, and the workpiece is projected along with the original drawing by taking a larger image of the shaded part on the processing surface of the original drawing 55. However, the process of creating the information is the same except that the workpiece is ground at the position where the contour line changes, so we will explain them together. Mazu,
The operation panel 3 is operated and the X-axis manual handle 27 and Y-axis manual handle 29 are manually rotated to position the tip of the grinding wheel 9 away from the front of the original drawing 55 on the screen. In the figure, only the tip of the grinding wheel 9 is shown in an enlarged manner, and the center of curvature of the tip radius of the grinding wheel 9 is shown as a cross. When the tip of the grinding wheel occupies the above position, the X-axis and Y-axis coordinate values of A are registered in the storage device as the coordinate origin.

次に移動速度として早送りを入力しておいて、
手動で砥石車先端アール部が、原図の左方向に大
きく直線で延びている部分の砥石車側延長線と接
する位置Bまで専らY軸方向にだけ移動し、X
軸、Y軸座標値を登録する。この場合砥石車9は
手動によつて実際にAからBまで移動しているの
で、B点の座標値は光倣い研削盤1の備えた制御
盤45に表示されたX軸、Y軸座標値から、A点
(原点)座標値を加減した値が登録される。
Next, input fast forward as the movement speed,
Manually move the rounded end of the grinding wheel exclusively in the Y-axis direction to position B where it touches the extended line on the grinding wheel side of the part that extends in a straight line to the left of the original drawing, and
Register the axis and Y-axis coordinate values. In this case, since the grinding wheel 9 is actually manually moved from A to B, the coordinate values of point B are the X-axis and Y-axis coordinate values displayed on the control panel 45 of the optical copy grinding machine 1. A value obtained by adding or subtracting the coordinate value of point A (origin) is registered.

次にB点からC点までの研削移動速度を入力す
る。次いで砥石車先端を手動送りで任意の経路を
移動させ、上記直線部が円弧移動に切り換るC点
に合わせ、C点のX軸、Y軸座標値を登録する。
Next, input the grinding movement speed from point B to point C. Next, the tip of the grinding wheel is manually moved along an arbitrary path, and the X-axis and Y-axis coordinate values of point C are registered in alignment with point C, where the straight section switches to circular movement.

B点からC点までの移動は直線移動であるが、
直線移動は特に補間条件を入力しない。
The movement from point B to point C is a straight line movement, but
No particular interpolation conditions are entered for linear movement.

ところで、一般的に、制御装置の演算部は各種
の演算機能を奏し得るので、砥石車の像を直線部
の任意の複数箇所に接触せしめ、その各接触位置
の座標値に基づいて直線部の式を求めることも可
能である。
By the way, in general, the calculation unit of the control device can perform various calculation functions, so the image of the grinding wheel is brought into contact with any plurality of points on the straight line part, and the straight line part is calculated based on the coordinate values of each contact position. It is also possible to find the formula.

次にC点からD点までの移動は円弧移動である
から円弧補間信号を入力し、D点のX軸、Y軸座
標を登録し、円弧補間の曲率半径R1(被加工物の
アールから砥石車先端アールを減した寸法)を設
計図から算出し、入力する。
Next, since the movement from point C to point D is circular movement, input the circular interpolation signal, register the X-axis and Y-axis coordinates of point D, and calculate the radius of curvature R 1 of the circular interpolation (from the radius of the workpiece). Calculate the dimension (reducing the radius of the tip of the grinding wheel) from the design drawing and enter it.

この場合、円弧上の3点以上に砥石車の像を接
触せしめ、各点における座標値に基づいて演算部
の演算処理により円の式を求めることが可能であ
る。そして、前記直線と円の接点をも演算部の演
算処理により求めることも可能である。すなわち
直線や円弧およびそれらの交点は、直線上あるい
は円弧上の複数点の座標値に基づいて、制御装置
の演算部において演算処理により求めることも可
能である。
In this case, it is possible to bring the image of the grinding wheel into contact with three or more points on the circular arc, and to obtain the equation of the circle through arithmetic processing in the arithmetic unit based on the coordinate values at each point. It is also possible to find the point of contact between the straight line and the circle through arithmetic processing in the arithmetic unit. That is, straight lines, circular arcs, and their intersections can also be determined by arithmetic processing in the calculating section of the control device based on the coordinate values of multiple points on the straight line or circular arc.

次にD点からE点への移動は直線移動にもどる
ので直線補間の信号を入力し、E点のX軸、Y軸
座標値を登録する。
Next, since the movement from point D to point E returns to linear movement, a signal for linear interpolation is input, and the X-axis and Y-axis coordinate values of point E are registered.

次のF点は砥石車が被加工物から離れた位置で
あり、X軸座標値はE点のそれと同じく、Y軸座
標値は後述するG点のY軸座標値になるべく近い
任意の位置に設定登録し、E点からF点間の移動
送度として早送りの指定信号を入力しておく。
The next point F is the position where the grinding wheel is away from the workpiece, the X-axis coordinate value is the same as that of point E, and the Y-axis coordinate value is an arbitrary position as close as possible to the Y-axis coordinate value of point G, which will be described later. Register the settings and input a fast forward designation signal as the movement feed rate between point E and point F.

G点、H点の座標を登録し、G点からH点まで
の移動は再び研削送りを入力しておく。F点から
G点までと、G点からH点までは何れも直線補間
で良いから特に補間指定は不要である。
Register the coordinates of point G and point H, and input the grinding feed again for movement from point G to point H. Linear interpolation is sufficient from point F to point G and from point G to point H, so there is no need to specify interpolation.

H点からI点までは円弧補間指令が必要であ
り、曲率半径R2(この場合は被加工物アールに砥
石車先端アールを加算した数値)と、円弧中心座
標値を入力しておき、I点の座標値も登録してお
く。
A circular interpolation command is required from point H to point I. Enter the radius of curvature R 2 (in this case, the value obtained by adding the radius of the grinding wheel tip to the radius of the workpiece) and the coordinate value of the center of the circular arc, and Also register the coordinate values of the points.

I点とJ点との間は直線補間を指令し、J点の
座標を登録しておく。
Linear interpolation is commanded between point I and point J, and the coordinates of point J are registered.

K点は前記したF点と同じく、被加工物から離
れた位置であり、原点Aに復帰する過程で被加工
物に砥石車先端が触れずに直線補間で移動できる
任意の点でよく、座標位置を登録し、早送り指令
を入力しておくことになる。
Point K, like the above-mentioned point F, is a position away from the workpiece, and may be any point that can be moved by linear interpolation without the tip of the grinding wheel touching the workpiece during the process of returning to the origin A, and the coordinates The position must be registered and a fast forward command input.

K点から原点(A点)への復帰は、既に両座標
が登録されているから、復帰指令を入力すれば足
りる。
To return from point K to the origin (point A), it is sufficient to input a return command since both coordinates have already been registered.

今上記した研削プログラムを取り出して整理す
ると、加工指令は次のように記録されている。
If we take out the above-mentioned grinding program and organize it, the machining commands are recorded as follows.

(1) 砥石車先端は、原点Aに位置せよ。(1) Position the tip of the grinding wheel at origin A.

(2) 砥石車先端は、B点まで早送りで移動せよ。(2) Move the tip of the grinding wheel to point B in rapid motion.

(3) 砥石車先端は、C点まで切削送りで移動せ
よ。
(3) Move the tip of the grinding wheel to point C using cutting feed.

(4) 砥石車先端は、D点までR1円弧の円弧補間
で移動せよ。
(4) Move the tip of the grinding wheel to point D using circular interpolation of R 1 arc.

(5) 砥石車先端は、E点まで直線補間にもどつて
移動せよ。
(5) Move the tip of the grinding wheel back to point E using linear interpolation.

(6) 砥石車先端は、F点まで早送りで移動せよ。(6) Move the tip of the grinding wheel in rapid traverse to point F.

(7) 砥石車先端は、G点まで移動せよ。(7) Move the tip of the grinding wheel to point G.

(8) 砥石車先端は、H点まで切削送りで移動せ
よ。
(8) Move the tip of the grinding wheel to point H using cutting feed.

(9) 砥石車先端は、I点まで曲率半径R2の円弧
補間で移動せよ。
(9) Move the tip of the grinding wheel to point I using circular interpolation with a radius of curvature R 2 .

(10) 砥石車先端は、J点まで直線補間にもどつて
移動せよ。
(10) Move the tip of the grinding wheel back to the J point using linear interpolation.

(11) 砥石車先端は、K点まで早送りで移動せよ。(11) Move the tip of the grinding wheel in rapid motion to point K.

(12) 砥石車先端は、原点Aまで復帰せよ。(12) Return the tip of the grinding wheel to the origin A.

ということになる。It turns out that.

このようにして、1サイクルの加工情報はすべ
て記憶されたのであるから、同じ加工を行うにあ
たつて、プログラム番号で上記加工1サイクルの
プログラムを呼び出し、全自動で正確な研削作業
が可能となり、実加工中は光倣い機構を使用しな
いため湿式研削が許される効果が得られたのであ
る。
In this way, all the machining information for one cycle has been memorized, so when performing the same machining, the program for the above machining cycle 1 can be called up using the program number, making it possible to perform fully automatic and accurate grinding work. Since the optical tracing mechanism is not used during actual machining, wet grinding is allowed.

以上のごとき実施例の説明により理解されるよ
うに、要するに本発明の要旨は特許請求の範囲に
記載のとおりであるから、本発明によれば、スク
リーン上に表示された製品の研削すべき部分の形
状変化点に砥石車像を接触せしめて座標値を制御
装置の記憶装置に入力し、かつ移動速度等の必要
なデータを入力することにより、光傚い研削盤の
自動化が可能となり、従来に比較して自動化が容
易なものである。
As can be understood from the above description of the embodiments, the gist of the present invention is as described in the claims.According to the present invention, the part of the product displayed on the screen to be ground is By bringing the grinding wheel image into contact with the point of change in shape, inputting the coordinate values into the storage device of the control device, and inputting necessary data such as the moving speed, it becomes possible to automate the grinding machine to a greater degree than before. It is easier to automate compared to

すなわち本発明によれば、スクリーンを見て、
製品の研削すべき部分の形状変化点と砥石車との
関係座標データを目視する態様において制御装置
に入力できるので、誤りが少なく、自動化が容易
なものである。
That is, according to the present invention, looking at the screen,
Since the relational coordinate data between the shape change point of the part of the product to be ground and the grinding wheel can be input to the control device in a visual manner, there are fewer errors and automation is easy.

なお、本発明は前述の実施例のみに限られるも
のではなく、適宜の変更を行なうことによつては
その他の態様にて実施し得るものである。
It should be noted that the present invention is not limited to the above-described embodiments, but can be implemented in other embodiments by making appropriate changes.

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

第1図は本発明を実施した光倣い研削盤の正面
図、第2図は同上側面図、第3図は操作盤のパネ
ル拡大正面図、第4図は本発明のプログラミング
方法の説明図である。 図面中の主要部分を表わす符号の説明、1……
光倣い研削盤、3……操作盤、27……X軸ハン
ドル、29……Y軸ハンドル、43……スクリー
ン、49……状態表示部、51……記憶装置操作
部、53……研削盤操作部、55……拡大原図。
Fig. 1 is a front view of an optical copying grinder embodying the present invention, Fig. 2 is a side view of the same as above, Fig. 3 is an enlarged front view of the operation panel, and Fig. 4 is an explanatory diagram of the programming method of the present invention. be. Explanation of symbols representing main parts in the drawings, 1...
Optical copying grinding machine, 3... Operation panel, 27... X-axis handle, 29... Y-axis handle, 43... Screen, 49... Status display section, 51... Storage device operation section, 53... Grinding machine Operation unit, 55... Enlarged original drawing.

Claims (1)

【特許請求の範囲】 1 光倣い研削盤の自動化方法にして、少なくと
も次の(a)〜(g)の各過程を包含することを特徴とす
る自動化方法。 (a) 光倣い研削盤におけるスクリーン上に製品の
研削すべき部分の形状を所定倍率にて拡大して
表示する過程。 (b) スクリーン上に表示された製品の研削すべき
部分から離れた位置に光倣い研削盤の砥石車の
像を位置決めし、この位置の座標値を原点位置
として制御装置の記憶装置に入力する過程。 (c) スクリーン上に表示された製品の研削すべき
部分の直線部および円弧部のそれぞれの形状変
化点に砥石車の像を接触せしめて、各接触位置
の座標値を制御装置の記憶装置に入力する過
程。 (d) 製品の研削すべき部分から離れた任意の位置
の砥石車の座標値を制御装置の記憶装置に入力
する過程。 (e) 上記(b)、(c)、(d)の過程により入力された座標
値に基づいて砥石車の移動経路を設定すべく前
記形状変化点の座標値間の直線補間あるいは円
弧補間を演算して求めて記憶装置に入力する過
程。 (f) スクリーン上に表示された製品の研削すべき
部分の研削工程および製品の研削すべき部分か
ら離れた位置の砥石車の移動工程における砥石
車の移動速度を定める過程。 (g) 予め定められた研削工程および砥石車の移動
速度に従つて、スクリーン上に表示された製品
の研削すべき部分と同形状に製品を研削すべく
光倣い研削盤を自動制御する過程。
[Scope of Claims] 1. A method for automating an optical copying grinder, characterized by including at least each of the following steps (a) to (g). (a) A process in which the shape of the part of the product to be ground is enlarged and displayed at a predetermined magnification on the screen of an optical tracing grinder. (b) Position the image of the grinding wheel of the optical copying grinder at a position away from the part of the product to be ground that is displayed on the screen, and input the coordinate values of this position into the storage device of the control device as the origin position. process. (c) Bring the image of the grinding wheel into contact with each of the shape change points of the linear and arcuate parts of the part to be ground of the product displayed on the screen, and store the coordinate values of each contact position in the storage device of the control device. The process of inputting information. (d) A process of inputting the coordinate values of the grinding wheel at an arbitrary position away from the part of the product to be ground into the storage device of the control device. (e) Perform linear interpolation or circular interpolation between the coordinate values of the shape change points to set the movement path of the grinding wheel based on the coordinate values input in the steps (b), (c), and (d) above. The process of calculating, finding, and inputting it into a storage device. (f) The process of determining the moving speed of the grinding wheel during the grinding process of the part of the product to be ground displayed on the screen and the process of moving the grinding wheel to a position away from the part of the product to be ground. (g) A process of automatically controlling the optical tracing grinder to grind the product into the same shape as the part of the product to be ground displayed on the screen according to a predetermined grinding process and grinding wheel movement speed.
JP17201181A 1981-10-29 1981-10-29 Optical copy grinding machine Granted JPS5877439A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP17201181A JPS5877439A (en) 1981-10-29 1981-10-29 Optical copy grinding machine

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP17201181A JPS5877439A (en) 1981-10-29 1981-10-29 Optical copy grinding machine

Related Child Applications (1)

Application Number Title Priority Date Filing Date
JP7048387A Division JPS6322261A (en) 1987-03-26 1987-03-26 Automating method for optical copy grinding machine

Publications (2)

Publication Number Publication Date
JPS5877439A JPS5877439A (en) 1983-05-10
JPH021630B2 true JPH021630B2 (en) 1990-01-12

Family

ID=15933867

Family Applications (1)

Application Number Title Priority Date Filing Date
JP17201181A Granted JPS5877439A (en) 1981-10-29 1981-10-29 Optical copy grinding machine

Country Status (1)

Country Link
JP (1) JPS5877439A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2015155123A (en) * 2014-02-20 2015-08-27 株式会社アマダマシンツール Grinding machine

Families Citing this family (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0696220B2 (en) * 1983-11-01 1994-11-30 ワシノ機械株式会社 Grinding method in optical copying grinding machine
JPS6150762A (en) * 1984-08-10 1986-03-13 Washino Kikai Kk Optical copy grinding device
JPS61146461A (en) * 1984-12-19 1986-07-04 Washino Kikai Kk Grinding control method
JPH0632288Y2 (en) * 1985-10-01 1994-08-24 ワシノ機械株式会社 Light ▲ wheel grinding machine
JPH04121884U (en) * 1991-02-01 1992-10-30 三洋電機株式会社 washing machine detergent dissolving device
KR0138704B1 (en) * 1994-11-11 1998-06-15 김광호 Detergent melting apparatus of a washing machine

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2015155123A (en) * 2014-02-20 2015-08-27 株式会社アマダマシンツール Grinding machine

Also Published As

Publication number Publication date
JPS5877439A (en) 1983-05-10

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