JP5274923B2 - Extrusion processing equipment - Google Patents

Description

  The present invention relates to a processing apparatus for an extruded product that performs processing such as drilling and cutting on a workpiece extruded from an extrusion molding machine.

For example, in extrusion molding by extruding molten resin to form a product with a predetermined shape, the workpiece extruded from the extruder is cut to a certain length to form a substrate, and depending on the application, in a subsequent process After the base material is further cut into a predetermined length, processing such as holes and notches having a predetermined shape is performed.
However, such a conventional processing method has a problem that the yield rate of the material is low and the number of steps is required, resulting in high cost.

Incidentally, several proposals have been made to process a workpiece extruded from an extrusion molding machine in the course of an extrusion process (for example, see Patent Documents 1 and 2).
The extrusion molding apparatus and the extrusion molding method described in Patent Document 1 are, for example, for molding a workpiece whose curvature changes continuously, as can be seen from the description in FIG. For the purpose of reducing the increase in the number of processes due to the above, the workpiece pushed out from the movable die 12 is fed through the movable sizer 13 and the positions of the movable die 12 and the movable sizer 13 are changed to obtain a desired value. The work of curvature is formed.

Further, in the method for opening a window of a self-supporting cable described in Patent Document 2, a support connecting portion for connecting a support wire and a cable is held by pressure by a pinch roller, and is extracted by a rotary cutter or an end mill within the holding section. A window is formed.
JP 2004-351680 A JP 9-300427 A

However, although the technique described in the above-mentioned document can be bent or simply drilled, it cannot perform drilling or cutting of complicated shapes as shown in FIGS. .
The present invention has been made in view of the above problems, and can perform various types of processing on a workpiece in the process of extrusion molding, and obtain a preset final product in the process of extrusion molding. Accordingly, an object of the present invention is to provide an extrusion-molded product processing apparatus in which there is almost no waste of materials, so that the yield rate is high, and the cost can be significantly reduced by reducing the number of processes.

In order to solve the above-mentioned problem, the invention according to claim 1 is an apparatus for processing an extruded product that forms a workpiece having a predetermined shape by processing a workpiece extruded from an extruder. Work speed detection means for detecting the movement speed of the pushed-out work, and arranged side by side along the movement direction of the work, placing the work and moving forward and backward in the same X direction as the movement direction of the work A plurality of tables, a work guide provided on the table for guiding the movement of the work, and a ring-shaped guide provided on the table for rotatably guiding the main shaft about an axis parallel to the X direction. a guide member, provided on the guide member, a working tool for performing predetermined processing on the placed the workpiece on the table attached, while being guided by the guide member Serial and freely movable main spindle to the Y direction and Z direction relative to the guide member while rotating in the X direction and about an axis parallel, is disposed after the machining area of the workpiece by the tool mounted on the spindle, the A work cutting means having a cutter for cutting the work, movable in the X direction, a drive means for moving the table in the X direction, a drive means for rotating the main shaft around an axis parallel to the X direction; Drive means for moving the main shaft in the Y and Z directions , movement of the main shaft in the Y direction, movement in the Z direction, rotation around an axis parallel to the X direction based on a preset machining program, and controls the drive of the workpiece cutting means, the movement of the X-direction of the table and the workpiece cutting means, has been the work detected by said work speed detecting means Taking into account the dynamic speed, a structure and a control means for controlling the movement of the X-direction of the table and the workpiece cutting means.
According to a second aspect of the present invention, there is provided an apparatus for processing an extruded product that forms a workpiece having a predetermined shape by processing the workpiece extruded from the extruder, and the moving speed of the workpiece extruded from the extruder. A workpiece speed detecting means for detecting the workpiece, a plurality of tables which are arranged along the moving direction of the workpiece, and on which the workpiece is placed and which can move forward and backward in the X direction which is the same as the moving direction of the workpiece, A work guide that guides the movement of the work, a ring-shaped guide member that is provided on the table and that rotatably guides the main shaft about an axis parallel to the X direction, and the guide member. provided at least one Bei example a punch for applying a punching process on the placed the workpiece on the table, the X direction while being guided by the guide member Said Y direction and freely one or more pressing means moves in the Z direction with respect to the guide member while rotating around an axis parallel to and disposed on the table, having a predetermined shape on the workpiece with the punch A die that forms a punching hole, a work cutting means that is arranged after the work area of the work by the pressing means and that cuts the work, and is movable in the X direction, and the table in the X direction. A driving means for moving, a driving means for moving the punch in the Y direction or the Z direction, and a movement of the punch in the Y direction, a movement in the Z direction, and an axis parallel to the X direction based on a preset machining program. and controls the driving of rotation and the workpiece cutting means around, the movement in the X direction of the table and the workpiece cutting means, said follower In consideration of the moving speed of the detected workpiece by click speed detecting means may be configured to have a control means for controlling the movement of the X-direction of the table and the workpiece cutting means.

Here, the invention described in claim 1 is that when a workpiece is machined by attaching a cutting tool such as a drill or an end mill to a main spindle that is mainly rotatable, the invention described in claim 2 is mainly configured by a punch press. This is a case where drilling is performed. Of course, even in the first aspect of the invention, it is possible to perform a punch press by attaching a punch to the main shaft and raising and lowering the punch.
According to this configuration, the moving speed of the work extruded from the extruder is detected by the speed detecting means. The work moves while being guided by a work guide provided on the table. The workpiece is processed by a tool mounted on the spindle or a punch of a press means. The spindle and punch can move in the same direction as the workpiece, and by adding the movement speed in the X direction of the workpiece to the X direction movement command of the machining program, the relative speed between the spindle and punch and the workpiece is reduced to 0. Thus, the workpiece can be variously processed by moving the spindle and punch in the X, Y, and Z directions.

In addition, by making it rotatable with respect to the guide member, it is possible to direct the axis of the main shaft and punch in all directions, and it is possible to process not only the horizontal surface of the workpiece but also the side surface and inclined surface It is .

  According to the present invention, a wide variety of processes can be applied to the workpiece in the extrusion molding process, and a final molded product set in advance in the extrusion molding process can be obtained. Therefore, it is possible to obtain an extrusion-molded product processing apparatus that has a high yield rate and can significantly reduce costs.

DESCRIPTION OF EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the drawings.
FIG. 1 is a perspective view illustrating the overall configuration according to the first embodiment of the processing apparatus of the present invention.
The processing apparatus 1 is disposed along a movement path L of a workpiece (molded product) W that is extruded from a die of an unillustrated extruder. And the workpiece | work W extruded from the die | dye of the said extrusion molding machine is cooled by the cooling water tank which is not shown in figure, Then, predetermined processing is given by this processing apparatus 1. FIG. In this specification, the “X” direction, the “Y” direction, and the “Z” direction indicate three orthogonal directions with the X direction parallel to the extrusion direction of the workpiece W as the central axis.

  The processing apparatus 1 according to this embodiment includes a speed detection unit A that detects the moving speed of the workpiece W, a processing unit B that drills or cuts the workpiece W, and a processing unit, in order from the upstream side of the moving path of the workpiece W. It has the cutting unit C which cut | disconnects the workpiece | work W which gave the predetermined process by the unit B with the length of a final product.

[Speed detection unit A]
As the work speed detector 13 provided in the speed detection unit A, any form can be used as long as it can detect the moving speed of the work W.
For example, it may be configured by a roller 130 that rotates in contact with the workpiece W and an encoder 131 that detects the rotational speed of the roller 130 as illustrated. Moreover, you may calculate the extrusion speed (movement speed) of the workpiece | work W from the rotational speed of the screw of an injection cylinder.
The moving speed of the workpiece W detected by the speed detection unit A is transmitted to a control device (not shown).
The speed detection unit A may be provided between the processing unit B and the extrusion molding machine. However, as long as the moving speed of the workpiece W can be detected, the speed detection unit A is between the processing unit B and the cutting unit C. May be provided.

[Processing unit B]
Processing unit B, when a plurality of machine 11 for drilling or cutting the workpiece W (in this embodiment that need to be four units (particularly distinguished, indicated with reference numeral 11 ₁ to 11 ₄₎ has ing.
Machine ₁₁ 1 to 11 ₄ are provided on a base 10 disposed adjacent to the moving path L of the workpiece W. Upper surface of the base 10 is formed as an X direction guide 101 for guiding the forward and backward movement in the X direction of the processing machine ₁₁ 1 to 11 _4. Each of the processing machines 11 _{1 to} 11 ₄ is distributed to an area that divides the X-direction guide 101 into four equal parts, and can move forward and backward in the X direction while being guided by the guide 101 without interfering with each other in each area. .

[Processing machine]
Machine ₁₁ 1 to 11 ₄ includes a saddle 110 that moves back and forth in the X direction while being guided by the guide 101, is formed integrally with the saddle 110, the workpiece guide (described later is placed movably workpiece W in the X direction 1 (not shown in FIG. 1), a Y-direction guide 112 formed on the upper surface of the saddle 110, a column 113 that moves forward and backward in the Y-direction while being guided by the Y-direction guide 112, and this column 113 has a spindle head 116 which is provided so as to be movable back and forth in the Z direction and which rotatably supports a spindle (not shown). Tools T1 to T4 such as a drill and an end mill for processing the workpiece W are attached to the tip of the main shaft via a chuck or the like.
Reference numeral 114 denotes an XY drive unit including a drive body that moves the saddle 110 forward and backward in the X direction and a drive body that moves the column 113 forward and backward in the Y direction. Reference numeral 115 denotes a Z drive unit such as a linear motor that moves the spindle head 116 back and forth in the Z direction. Although a driving body that rotates the spindle is not particularly shown, it may be built in the spindle head 116. Alternatively, it may be provided outside the main shaft 116 (column 113).

[Table and work guide]
FIG. 2 is an enlarged side view of the table portion viewed from the X direction side.
The work guide provided on the table 111 is arranged so as not to interfere with the tool T moving in the Z direction together with the main shaft. Further, the configuration of the work guide is not limited as long as it can guide the relative movement of the table 111 and the work W in the X direction.

For example, it may be a work guide 14 having a support member 141 erected on the table 111 and a guide roller 142 rotatably provided at the tip of the support member 141 as in the illustrated example. The mounting position and mounting angle of the guide roller 142 on the support member 141 are preferably adjustable, and when the work W having a different cross-sectional shape is switched, by adjusting the mounting position and mounting angle of the guide roller 142, It is better to be able to respond quickly. Alternatively, the work guide 14 may be exchangeably attached to the table 111, and when the work guide 14 is switched to a work W having a different cross-sectional shape, the work guide 14 may be exchanged accordingly.
The guide roller 142 may be made of metal or resin, but it is preferable to use a guide roller 142 made of a material softer than the workpiece W so as not to damage the surface of the workpiece W.

[Cutting unit C]
The cutting unit C includes a base 120, an X-direction guide 121 formed on the upper surface of the base 120, a table 122 that moves forward and backward in the X direction while being guided by the X-direction guide 121, and stands on the table 122. The cutting machine 12 has a support 123 and a circular saw 124 provided on the support 123 so as to be movable back and forth in the Z direction. The support body 123 may be provided so as to be movable in the Y direction on the table 122 so that a wide workpiece W can be cut.
The table 122 is provided with a work guide 14 similar to the above at a position where it does not interfere with the circular saw 124. Although not shown in particular, the base 120 is provided with a drive body that moves the table 122 forward and backward in the X direction, and the support body 123 has a drive body that rotates the circular saw 124 and the circular saw 124 that moves forward and backward in the Z direction. A driving body is built in.

[Control device]
FIG. 3 is a block diagram illustrating an example of a control device provided in the processing apparatus 1 of this embodiment.
Controller 15 includes a control unit 151 for outputting a control command based on the machining program of the workpiece is W, the spindle head 116 of the machine ₁₁ 1 _{~11 4} X, Y, with respect to the driving member for moving in the Z direction Servo units 151 to 155 for outputting drive commands. The servo unit 151 to 154 is assigned to the processing machine ₁₁ 1 to 11 _4, the servo unit 155 is assigned to the cutting machine 12. Then, the servo unit of the code X1~X4 is, and controls the driving member for moving the spindle head 116 of the machine ₁₁ 1 to 11 ₄ in the X-direction, a servo unit of the code Y1~Y4 is, machine ₁₁ 1 to 11 ₄ of the spindle head 116 and controls the driver to move in the Y direction, the servo unit of the code Z1~Z4 is, the spindle head 116 of the machine ₁₁ 1 to 11 ₄ and controls the driving member which moves in the Z direction , servo section of code M1~M4 performs the control of the driver to rotate the spindle of the machine ₁₁ 1 to 11 _4.

In addition, the servo unit of X5 controls the driving body that moves the circular saw 124 of the cutting machine 12 in the X direction, and the servo unit of Y5 moves the circular saw 124 of the cutting machine 12 in the Y direction. The control unit controls the drive unit that moves the circular saw 124 of the cutting machine 12 in the Z direction, and the control unit controls the drive unit that rotates the circular saw 124 of the cutting machine 12. I do.
Machine ₁₁ 1 to 11 ₄ cutting of the workpiece W by the processing and cutting machine 12 of the workpiece by is controlled by the machine tool ₁₁ 1 to 11 ₄ and corresponding to each of the cutting machine 12 in advance prepared machining program, the The machining program is installed in the control unit 150.
Further, the moving speed of the workpiece W in the X direction detected by the speed detector 13 is added to a control command output from each machining program to the servo units X1 to X5.
Thus, machine 11 ₁ to 11 ₄ and the cutter 12 and the workpiece W and can be relatively stopping, it is possible to perform machining of the workpiece W at the normal processing program.

[Action]
The operation of the processing apparatus 1 configured as described above will be described with reference to FIGS. In this description, it is assumed that the workpiece W in FIG. 8 is processed.
The workpiece W in FIG. 8 is a deformed workpiece having a vertical surface Wd on one of the horizontal upper bottom surfaces Wa, and an upper inclined surface Wb and a lower inclined surface Wc whose angles change stepwise. A round hole W1 is formed at one end of the upper bottom surface Wa, a long hole W3 is formed at the other end, and a rectangular hole W2 is formed at an intermediate portion.
Here, in the workpiece W shown in FIG. 8, the cutting position of the front end W4 is represented by reference numeral P1, and the cutting position of the rear end W5 is represented by P4. In addition, the rectangular hole W2 of this embodiment cannot be processed only by a single processing machine (for example, the processing machine 11 ₂ ). Therefore, in this embodiment, the rectangular hole W2 is divided into two front and rear regions P3a and P3b. Then, so that the first half region P3a machine 11 ₂ is shared by machining to, is processed by sharing the second half of the region P3b the machine 11 _3. As described above, in the present invention, by disposing a plurality of processing machines 11 along the extrusion direction of the workpiece, processing that cannot be completed by one processing machine is performed by sharing the processing with the plurality of processing machines. There is an advantage that processing of various sizes and various sizes can be performed.

Immediately after starting injection molding, the tip of the workpiece W, leads to the workpiece guide the workpiece speed detector 13 and the machine 11 ₁ to 11 ₄ of the table 111 cutter 12 through a work guide 14 provided.
At this time, each of the processing machine 11 ₁ to 11 ₄ tool mounted on the spindle of T1~T4, as shown in FIG. 4 (a), is positioned to a preset initial position. The initial position in the X and Y directions of the tool T1 is the machining start position at the formation position P1 of the round hole W1, the initial position in the X and Y directions of the tool T2 is the machining start position in the first half region P3a of the rectangular hole W2, and the tool T3 The initial position in the X and Y directions is the machining start position in the second half region P3b of the rectangle W2, and the initial position in the X and Y directions of the tool T4 is the machining start position at the formation position P4 of the long hole W3. The initial position in the Z direction of the tools T1 to T4 is preferably a position that does not interfere with the workpiece W and is as close to the workpiece W as possible.

As shown in FIG. 4B, when the formation position P1 of the round hole W1 reaches the initial position of the tool T1, a drive command is output from the control device to the servo units X1, X2, X3, and X4 (see FIG. 3). The tools T1 to T4 start moving in the same direction (X direction) as the moving direction of the workpiece W at the same speed as the workpiece W. As a result, the relative speed between the workpiece W and the tools T1 to T4 becomes zero. At this time, the mobile simultaneously drive command to the servo unit Z1, Z2, Z3, Z4 is output, machine ₁₁ 1 to 11 ₄ of the spindle head 116 is feed rate which is previously set in the Z-direction toward the workpiece W To start. Then, as shown in FIG. 4C, drilling and cutting with the tools T1 to T4 are started.

As shown in FIGS. 4C and 5A, the tools T1 to T4 move in the X direction and / or the Y direction according to the machining program of the control unit 150, and as shown in FIGS. The hole W3 is processed. When the processing of the round hole W1, the rectangular hole W2, and the long hole W3 is completed, the tools T1 to T4 move in the Z direction, move away from the workpiece W, and return to the initial position, as shown in FIG.
Further, as shown in FIG. 5C, when the cutting position P1 of the front end W4 reaches the circular saw 124, a drive command is output from the control device to the servo unit X5 (see FIG. 3), and the circular saw 124 is moved to the workpiece W. Starts moving in the same direction (X direction) as the moving direction of the workpiece W at the same speed. At the same time, the circular saw 124 moves in the Z direction to cut the workpiece W.

Next, a second embodiment of the processing apparatus of the present invention will be described with reference to FIG.
FIG. 6 is a side view of a processing machine 21 that is applied to the processing apparatus according to the second embodiment of the present invention and performs drilling or cutting on the workpiece W. The processing machine 21 includes a table 211 that moves forward and backward while being guided by an X-direction guide 201 on the base 20, an annular guide ring 218 provided on the table 211, and an X-direction while being guided by the guide ring 218. A support body 217 that moves on an arc centered on the same axis as the axis, a Y-direction guide 212 that is attached to the support body 217 and extends in the Y-direction orthogonal to the X-direction, and is guided by the Y-direction guide A Z-direction guide that moves and extends in the Z direction orthogonal to the X and Y directions, a spindle head 216 that moves while being guided by the Z-direction guide, and a spindle 216 a that is rotatably supported by the spindle head 216, The tool T is mounted on the main shaft 216a.

The work guide provided on the table 211 and guiding the movement of the work W is the same as the work guide 14 of the previous embodiment.
The workpiece W ′ that can be processed by the processing apparatus of this embodiment is, for example, a workpiece W ′ as shown in FIG. 9 has a long hole W6 in the upper inclined surface Wb of the work W in FIG. In this embodiment, the rectangular hole W2 'can be processed by a single processing machine. When the long hole W6 of the upper inclined surface Wb is formed, the spindle head 216 is moved along the guide ring 218 so that the axis of the main shaft 216a (axis line in the Z direction) is perpendicular to the upper inclined surface Wb. Next, the rotational angle position of the spindle head 216 is set.
By providing one or a plurality of processing machines 2 as in this embodiment, it is possible to perform a wider variety of processing on the workpiece.

[Other Embodiments]
In the first and second embodiments described above, cutting tools T1 to T4 such as drills and end mills are mounted on a rotatable main shaft, and the workpiece W is subjected to cutting and drilling. The present invention can also be applied to the case where the work W is drilled with a die and a punch. In this case, all or part of the processing machines 11 _{1 to} 114 _, or the processing machine 21 shown in the first and second embodiments is used as a punching machine having punches that are movable in the X, Y, and Z directions. Instead, the die may be set together with the work guide 14 on the table 111.

Further, as shown in FIG. 7, one or more processing machines having a plurality of dies and punches may be provided.
The processing machine 31 of this embodiment is provided on a base 120 on which the cutting machine 12 is placed, and is movable back and forth in the X direction along an X direction guide 121 that guides the movement of the cutting machine 12 in the X direction. Of course, the processing machine 31 may be provided separately from the cutting machine 12.
The processing machine 31 includes a table 312 that moves forward and backward in the X direction while being guided by the X direction guide 121, a Y direction guide 312a that is laid on the upper surface of the table 312, and a Y direction guide 312a that is guided in the Y direction. A ram 313 that moves forward and backward, a plurality (three in the illustrated example) of Z-direction guides 313 a formed in the ram 313, and a plurality (the same three) punch heads 314 that are moved up and down, and the punch heads 314 And a punch 315 attached to each of the above.

Although not particularly shown, the processing machine 31 includes a drive body that moves the table 312 in the X direction and a drive body that moves the punch head 314 up and down. Further, the movement of the ram 313 in the Y direction may be automatically performed by the driving body, but may be manually performed by the spiral shaft and the handle.
The punches 315 attached to each of the plurality of punch heads 314 may have the same shape or different shapes.
In addition, although raising / lowering each of the several punch head 314 may be performed with the some drive body provided corresponding to each punch head 314, you may make it carry out with a single drive body. In this case, it can be set as the structure shown to the schematic of (b).

That is, as shown in (b), an elevating plate 317 that is moved up and down by the Z-direction drive body 316 and a support plate 318 to which the punch head 314 is attached are slidably provided. Through holes 317 a and 318 a are formed in communication with the elevating plate 317 and the support plate 318, and a cylinder 319 having a rod 319 a through which the through holes 317 a and 318 a are inserted is attached to the elevating plate 317.
When the cylinder 319 is driven to advance the rod 319a, the rod 319 is inserted through the through holes 317a and 318a, and the elevating plate 317 and the support plate 318 are integrated, and the elevating plate is driven by the Z-direction driving body 316. The punch 315 moves up and down together with 317.
While moving the processing machine 31 in the X direction in synchronization with the movement of the workpiece W in the X direction, one or more of the plurality of cylinders 319 are driven to move the punch 315 up and down, whereby a predetermined workpiece W is moved. A punch hole having a predetermined shape can be formed at the position.

Although a preferred embodiment of the present invention has been described, the present invention is not limited to the above-described embodiment.
For example, in the above description, the four processing machines 11 are described. However, five or more or three or less may be used. Further, in the above description, each of the four processing machines 11 is described as being distributed in an area that equally divides the X-direction guide 101, but the areas to which the processing machines 11 are distributed overlap each other. May be. However, in this case, it is necessary to set a machining program so that the machining machines 11 can perform the desired machining without interfering with each other.
Moreover, in the processing apparatus of this invention, you may provide the processing machine 31 of other embodiment, the processing machine 11 of 1st embodiment, and / or the processing machine 21 of 2nd embodiment mixed. .

  INDUSTRIAL APPLICABILITY The present invention can be widely applied to an extruded product processing apparatus that forms a workpiece having a predetermined shape by processing a workpiece extruded from an extruder.

It is a perspective view explaining the whole structure concerning 1st embodiment of the processing apparatus of this invention. It is the expanded side view which looked at the table part of the processing machine of FIG. 1 from the X direction side. It is a block diagram which shows an example of the control apparatus provided in the processing apparatus of this embodiment. It is a figure explaining the effect | action of a processing apparatus. It is a figure explaining the effect | action of a processing apparatus. It is a side view of the processing machine concerning the processing apparatus concerning 2nd embodiment of this invention, and drilling and cutting a workpiece | work. FIG. 5A is a perspective view showing a schematic configuration of a processing machine that punches a workpiece with a punch, and FIG. 5B shows a part of a plurality of punches according to a processing apparatus according to still another embodiment of the present invention. It is the schematic explaining one Embodiment of the mechanism for raising / lowering selectively. It is a perspective view which shows an example of the workpiece | work which can be processed with the processing apparatus of 1st embodiment. It is a perspective view which shows an example of the workpiece | work which can be processed with the processing apparatus of 2nd embodiment.

Explanation of symbols

W: Workpiece 1: Processing device 10: Base 101: X direction guides 11 _1-4 : Processing machine 110: Saddle 111: Table 112: Y direction guide 113: Column 114: XY drive unit 115: Z drive unit 116: Spindle Head T1-4: Tool 12: Cutting machine 120: Base 121: X direction guide 122: Table 123: Support 124: Circular saw (cutter)
13: Work speed detector 130: Roller 131: Encoder

Claims (2)

In an extrusion molded product processing apparatus that forms a workpiece of a predetermined shape by processing a workpiece extruded from an extruder,
A work speed detecting means for detecting the moving speed of the work extruded from the extrusion molding machine;
A plurality of tables that are arranged side by side along the movement direction of the workpiece, place the workpiece, and move forward and backward in the same X direction as the movement direction of the workpiece;
A work guide provided on the table for guiding the movement of the work;
A ring-shaped guide member provided on the table and rotatably guiding the main shaft about an axis parallel to the X direction;
Wherein provided in the guide member, wherein with wearing the machining tool for performing a predetermined processing on the placed the workpiece on the table, rotates about the X-direction and parallel to the axis while being guided by the guide member guides A main shaft movable in the Y and Z directions with respect to the member;
A workpiece cutting means disposed after a machining area of the workpiece by the tool mounted on the spindle, and having a cutter for cutting the workpiece, and movable in the X direction;
Driving means for moving the table in the X direction, driving means for rotating the main shaft around an axis parallel to the X direction, and driving means for moving the main shaft in the Y direction and Z direction ;
Based on a machining program set in advance, the movement of the main shaft in the Y direction, the movement in the Z direction, the rotation around the axis parallel to the X direction and the driving of the workpiece cutting means are controlled, and the table and the Control means for controlling the movement of the table and the workpiece cutting means in the X direction in consideration of the movement speed of the workpiece detected by the workpiece speed detection means in addition to the movement of the workpiece cutting means in the X direction;
An apparatus for processing an extruded product, comprising: In an extrusion molded product processing apparatus that forms a workpiece of a predetermined shape by processing a workpiece extruded from an extruder,
A work speed detecting means for detecting the moving speed of the work extruded from the extrusion molding machine;
A plurality of tables arranged along the movement direction of the workpiece, and placed on the workpiece and movable forward and backward in the X direction, the same direction as the movement direction of the workpiece;
A work guide provided on the table for guiding the movement of the work;
A ring-shaped guide member provided on the table and rotatably guiding the main shaft about an axis parallel to the X direction;
Provided in the guide member to rotate the punch for applying a punching process on the placed the workpiece on the table at least one Bei example, about the X-direction and parallel to the axis while being guided by the guide member And one or a plurality of pressing means movable in the Y direction and the Z direction with respect to the guide member ,
A die provided on the table and forming a punched hole of a predetermined shape in the workpiece together with the punch;
A workpiece cutting means that is disposed after the processing area of the workpiece by the pressing means and includes a cutter for cutting the workpiece, and is movable in the X direction;
Driving means for moving the table in the X direction and driving means for moving the punch in the Y direction and the Z direction ;
Based on a preset machining program, the movement of the punch in the Y direction, the movement in the Z direction, the rotation around the axis parallel to the X direction and the driving of the workpiece cutting means are controlled , and the table and the Control means for controlling the movement of the table and the workpiece cutting means in the X direction in consideration of the movement speed of the workpiece detected by the workpiece speed detection means in addition to the movement of the workpiece cutting means in the X direction;
An apparatus for processing an extruded product, comprising:

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