JP2009050978A - Cutting plotter - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a cutting plotter which eliminates the setting work to be accompanied with the work for mounting, dismounting, and changing cutters, and also suppresses the bad condition caused by erroneous setting. <P>SOLUTION: The cutter plotter comprises: a working table 20 for holding a workpiece M; a cutting head 50 which has a holder mounting portion 60 for dismountably mounting a cutter 70 and is relatively moved along the workpiece M; and a control unit 80 for carrying out the cutting operation by the cutter 70 by relatively moving the cutting head 50. A radio IC tag 90 having ID information of a cutter blade is provided on the cutter 70, and also a reading means 95 reading the ID information is provided on the cutting head 50. The cutting plotter is configured such that the cutting work of the workpiece M is controlled by reading the ID information from the radio IC tag 90 of the cutter mounted on the holder mounting portion 60 by means of the reading means 95. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention includes a cutter holder to which a cutter blade for cutting a sheet-like workpiece medium is attached, and a first holder mounting portion to which the cutter holder is detachably attached, and the cutter blade is moved relative to the workpiece medium. The present invention relates to a cutting plotter comprising a head and a cutting control device for performing a cutting process on a processing medium with a cutter blade by relatively moving the cutting head along the processing medium with the cutter holder mounted on the first holder mounting portion. In addition to the above configuration, a cutter station having a second holder mounting portion for detachably mounting the cutter holder and provided near the moving area of the cutting head, and a cutter holder mounted on the first holder mounting portion And a cutter exchanging mechanism for exchanging the cutter holder held by the second holder mounting portion. About Tsu computing plotter.

  As a cutting plotter as described above, for example, a rubber plate or resin sheet having a thickness of about 20 mm or less, a corrugated cardboard, a printing medium for a printer called a medium, or a sheet-like processing medium such as a seal is set in advance. Cutting plotters that cut or half-cut into a predetermined shape based on a machining program are widely used. In such a cutting plotter, various cutter blades having different drive forms and material shapes are used according to the material and thickness of the workpiece medium, the processing content of the product, etc., and cutting is performed via a cutter holder that holds the cutter blade. It is attached to the head (see, for example, cited document 1).

  The cutting head is provided with one or a plurality of holder mounting portions for holding the cutter holder in a detachable / replaceable manner. With the cutter holder mounted on the holder mounting portion, the cutting head is moved relative to the work medium and the cutter blade is used. It is comprised so that the to-be-processed medium may be cut. Specifically, the cutter blade is brought into contact with the workpiece medium and moved to a machining position for cutting and a separation position separated from the workpiece medium. At this time, the cutter blade is moved up and down and the cutting is performed on the workpiece medium. By synchronously controlling the relative movement of the head, the medium to be processed is cut into a desired product shape set in the processing program.

  In such a cutting plotter, a large number of products having the same or different shapes can be continuously cut from a single workpiece medium. Furthermore, it is possible to realize continuous operation for a long time by cutting the roll paper using half-cutting or micro-joint, or by cutting processing combined with loading / unloading equipment. In such a case, for example, a plurality of holder mounting portions provided on the cutting head are mounted with cutter holders having different types of cutter blades that are required according to the cutting process scheduled to be performed. The cutting process can be performed while switching the holder mounting portion to be used according to the set content of the cutting process. In addition, when performing the same processing continuously for a long time, a cutter holder with the same type of cutter blade attached is mounted on multiple holder mounting parts, and cutting can be performed stably. A cutting process can be performed by switching the holder mounting portion to be used for each predetermined distance set in advance as a distance. The same applies to a cutting plotter equipped with a cutter station that holds one or a plurality of standby cutter holders, and a cutter holder mounted on the cutting head and a cutter replacement mechanism that replaces the cutter holder held by the cutter station. Change the cutter holder attached to the cutting head according to the details of the cut processing, or replace the cutter holder attached to the cutting head at a predetermined distance set in advance to perform long-term cutting Can be configured.

JP 2001-260084 A

  However, in the conventional cutting plotter, it is necessary to identify the cutter holder of the cutter blade mounted on the holder mounting portion in association with each holder mounting portion and set it in the cutting control device. It was pointed out that it was cumbersome to perform the setting work every time the attachment / detachment was replaced. In addition, if the setting of the cutter attached to the holder mounting part of the cutting head is incorrect, there is a risk of processing failure or damage to the expensive cutter blade from the beginning of cutting due to differences in processing conditions. If the above setting is mistaken for the holder mounting part, there may be a problem similar to the above in the course of automatic operation, or the automatic replacement of the cutter holder may not be completed normally and an alarm may be generated to stop processing. was there.

  The present invention has been made in view of the above problems, and improves workability by eliminating the need for additional setting work accompanying attachment / detachment / replacement of the cutter holder, and eliminates the occurrence of problems caused by incorrect settings. An object of the present invention is to provide a cutting plotter that can realize stable cutting for a long time.

  In order to achieve the above object, according to the first aspect of the present invention, medium holding means (for example, the processing table 20 in the embodiment) for holding a sheet-like processing medium and a cutter blade for cutting the processing medium are attached. A cutter holder, and a cutting head that has a first holder mounting portion (for example, the holder mounting portion 60 in the embodiment) to which the cutter holder is detachably mounted, and is relatively moved along the workpiece medium held by the medium holding means. A cutting control device (for example, the control unit 80 in the embodiment) that cuts the workpiece medium with the cutter blade by relatively moving the cutting head along the workpiece medium while the cutter holder is attached to the first holder attachment portion. ) And a cutting plotter. In addition, this cutting plotter is provided in a cutter holder, and is also referred to as a wireless IC tag (RFID tag: Radio Frequency Identification tag or non-contact IC tag) in which identification information for identifying a cutter blade attached to the cutter holder is written. ) And reading means (for example, the RW in the embodiment) that can read the identification information written in the wireless IC tag provided in the cutter holder in a state where the cutter holder is attached to the first holder mounting portion. The head 95), and the identification information written in the wireless IC tag of the cutter holder mounted on the first holder mounting portion is read by the reading means, and the cutting control device reads the identification information of the workpiece medium based on the read identification information. It is configured to control the cutting process.

  In order to achieve the above object, the second aspect of the present invention is provided with a medium holding means (for example, the processing table 20 in the embodiment) for holding a sheet-like processing medium and a cutter blade for cutting the processing medium. A cutter holder, and a cutting head that has a first holder mounting portion (for example, the holder mounting portion 60 in the embodiment) to which the cutter holder is detachably mounted, and is relatively moved along the workpiece medium held by the medium holding means. A cutter station having a second holder mounting portion on which the cutter holder is detachably mounted and provided in the vicinity of the moving area of the cutting head, and a position where the cutting head is moved to the vicinity of the cutter station (for example, the embodiment) At the cutter replacement position) at the cutter holder mounted on the first holder mounting portion and the second holder mounting portion. A cutter exchanging mechanism for exchanging the cutter holder, and cutting the medium to be cut by the cutter blade by relatively moving the cutting head along the medium while the cutter holder is mounted on the first holder mounting portion. The present invention relates to a cutting plotter including a cutting control device (for example, the control unit 180 in the embodiment) that controls the exchanging operation of the cutter holder by the cutter exchanging mechanism. In addition, the cutting plotter is provided in the cutter holder, the wireless IC tag in which the identification information for identifying the cutter blade attached to the cutter holder is written, and the cutter holder provided in the cutter station and mounted on the second holder mounting portion. The read-out means (for example, RW head 95 in the embodiment) that can read the identification information written in the wireless IC tag of the cutter holder, and the identification information written in the wireless IC tag of the cutter holder attached to the second holder attachment portion Is read by the reading means, and based on the read identification information, the cutting control device is configured to control cut processing of the workpiece medium and replacement operation of the cutter holder.

  In the cutting plotter according to the first aspect of the present invention, the wireless IC tag in which identification information for identifying the cutter blade is written is provided in the cutter holder, and the wireless IC is attached to the cutting head having the first holder mounting portion for detachably mounting the cutter holder. A reading means capable of reading the identification information written on the tag is provided. Then, the identification information written on the wireless IC tag in a state where the cutter holder is mounted on the first holder mounting portion is read by the reading means, and the cutting control device controls the cutting processing of the workpiece medium based on the identification information. Configured to do. Here, in the present invention, the “identification information for identifying the cutter blade” refers to information that is inseparably inseparable from the machining conditions corresponding to the cutter blade, such as the driving mode of the cutter blade and the machining pressure for the workpiece medium. For example, an eccentric cutter in which the cutter blade is rotated about the vertical axis in accordance with the relative movement between the cutting head and the work medium, or the relative movement direction between the cutting head and the work medium (machining progress direction). The tangential cutter in which the cutter blade is driven to rotate around the vertical axis in accordance with the above, the reciprocating cutter in which the cutter blade vibrates at a high speed with a predetermined stroke in the vertical direction, the ruler roller for broken line processing having a rotatable roller, etc. Types of cutters, cutter materials such as high-speed blades, carbide blades, titanium-coated blades, etc., cutter blade shapes such as spire angles of 30 degrees, 45 degrees, etc.The identification information can be specifically specified by a combination of the cutter blade type and the cutter blade part number. According to such a cutting plotter of the first aspect of the present invention, the identification information for identifying the cutter blade is read in a state where the cutter holder is mounted on the first holder mounting portion of the cutting head, and based on this identification information. Thus, the cut processing of the workpiece medium is controlled. For this reason, it is not necessary to reset the cutter blade identification information every time the cutter holder is attached / detached, and it is possible to suppress the occurrence of processing failure or damage to the cutter blade due to incorrect setting. In addition, by using information transfer by wireless communication, it is possible to realize a stable long-time cutting process that is not easily affected by fine dust generated by the cutting process.

  A cutting plotter according to a second aspect of the present invention is provided in a cutter station in which a wireless IC tag in which identification information for identifying a cutter blade is written is provided in the cutter holder, and a second holder mounting portion for detachably mounting the cutter holder is provided. A reading means capable of reading the identification information written in the wireless IC tag is provided. Then, the identification information written on the wireless IC tag in a state where the cutter holder is mounted on the second holder mounting portion is read by the reading means, and based on this identification information, the cutting control device performs cutting processing of the workpiece medium, and The cutter holder is exchanged between the cutting head and the cutter station. The significance of the “identification information for identifying the cutter blade” is the same as in claim 1 described above. In this manner, the cutter holder is exchanged between the cutter station provided with the second holder mounting portion to which the standby cutter holder can be attached and detached, and the first holder mounting portion of the cutting head and the second holder mounting portion of the cutter station. In a cutting plotter equipped with a cutter replacement mechanism, the cutter holder that has already been used and the cutter holder to be used in the next process can be removed and replaced during the cutting process using the cutter holder attached to the cutting head or during pause. When the machining distance by the cutting blade of the cutter holder attached to the cutting head reaches a specified distance set in advance according to the cutting blade, the cutter holder attached to the cutting head and the cutter station are held on standby. The cutter holder is It is configured so that the cutting process is continued after being exchanged by the exchange mechanism. According to the cutting plotter of the second aspect of the present invention, the identification information for identifying the cutter blade is read in a state where the cutter holder is mounted on the second holder mounting portion of the cutter station, and the processing medium is based on this identification information. The cutting process and the cutter holder exchange operation are controlled. That is, in a state where the cutter holder that has been used and the cutter holder to be used in the future have been replaced at the second holder mounting portion of the cutter station, the identification information of the cutter newly mounted on the second holder mounting portion is read out. Based on this, cutter replacement and cutting are performed. For this reason, it is not necessary for the operator to reset the cutter blade identification information after the cutter holder has been attached or detached, and it is possible to suppress the occurrence of processing defects or damage to the cutter blade due to incorrect settings. In addition, by using information transfer by wireless communication, it is possible to realize a stable long-time cutting process that is not easily affected by fine dust generated by the cutting process.

  Therefore, according to the present invention, it is possible to improve the workability by eliminating the additional setting work associated with the attachment / detachment / replacement of the cutter holder, and to eliminate the occurrence of defects due to the incorrect setting and to realize stable cutting for a long time. An obtained cutting plotter can be provided.

  Hereinafter, preferred embodiments of the present invention will be described with reference to the drawings. As an example of a cutting plotter to which the present invention is applied, the cutter blade is moved in a perpendicular biaxial (X-axis-Y-axis) direction in a horizontal plane with respect to a medium to be processed fixedly held on a processing table, and vertically (Z-axis). FIG. 2 is a perspective view of a so-called XY plotter type cutting plotter that is lifted up and down in a direction to cut a workpiece medium into an arbitrary shape, and is a block diagram showing an outline of a control configuration. First, the overall configuration of the cutting plotter CP1 of the first embodiment will be described with reference to these drawings. For convenience of explanation, directions indicated by arrows F, R, and U added in FIG. 2 will be referred to as “front”, “right”, and “upward”, respectively.

  The cutting plotter CP1 supports the processing table 20 horizontally, and a main body frame 10 as a mounting base for each mechanism, a processing table 20 for fixing and holding the mounted medium M, and a horizontal direction above the processing table 20. An X-axis carriage 30 that is supported movably in the (X-axis direction) and moved left and right by the X-axis drive mechanism 35, and is supported by the X-axis carriage 30 so as to be movable in the front-rear direction (Y-axis direction). A Y-axis carriage 40 that is moved back and forth, and a cutting head 50 that has a holder mounting portion 60 (60A, 60B, 60C) to which the cutter holder is detachably mounted and is attached to the Y-axis carriage 40 to raise and lower the cutter blade, Operation of each cutter drive mechanism provided in the X-axis drive mechanism 35, the Y-axis drive mechanism 45, and the cutting head 50 By controlling, the horizontal movement of the X-axis carriage 30 and the Y-axis carriage 40 and the vertical movement of the cutter blade are controlled, and thereby a control unit 80 for controlling the cutting processing of the workpiece medium M fixedly held on the machining table 20 or the like. Consists of

  The processing table 20 has a flat support plate 21 in which a number of fine suction holes penetrating vertically are formed, a decompression chamber 22 provided on the lower surface side of the support plate 21, and air in the decompression chamber 22 is exhausted to be negative. And a vacuum blower 23 for setting the pressure. On the upper surface of the support plate 21, X-axis and Y-axis work guides for guiding the workpiece medium are provided so that the sheet-like workpiece medium M is arranged in a correct posture at the origin position serving as a machining reference. The workpiece medium M is positioned at the origin position using the work guide, and the decompression chamber is set to a negative pressure by the vacuum blower 23, whereby the workpiece medium M is vacuum-adsorbed to the support plate 21 and fixedly held. It is like that.

  A pair of front and rear guide rails 33, 33 extending in parallel in the left-right direction across the support plate 21 are fixed to the front and rear of the processing table 20, and a rectangular tube-shaped X axis extending in the front-rear direction is fixed to the guide rails 33, 33. The carriage 30 is supported so as to be movable left and right. As the guide rail 33, a support rail of a linear motion bearing also referred to as a linear motion guide or a linear guide is used, and an X-axis carriage is mounted on a slide block (also referred to as a ball housing) fitted to the front and rear guide rails 33, respectively. The front end portion and the rear end portion of 30 are fixed, and thereby the X-axis carriage 30 is supported so as to be slidable left and right across the support board 21. Since various known drive mechanisms can be used for the X-axis drive mechanism 35, detailed illustration is omitted in this specification. For example, the X-axis drive mechanism 35 is disposed on the lower surface side of the processing table 20 so as to extend in the left and right directions in parallel with the guide rail 33. It can be constituted by a ball screw provided, a servo motor that rotationally drives the ball screw, and a ball nut fitted and supported by the ball screw and fixed to the X-axis carriage 30.

  A pair of upper and lower guide rails 43, 43 extending in parallel in the front-rear direction are fixed to the left surface of the X-axis carriage 30, and the Y-axis carriage 40 is fixed to a slide block fitted to each guide rail 43, so that the Y-axis carriage 40 is supported on the left surface side of the X-axis carriage 30 so as to be slidable back and forth. Although the detailed illustration of the Y-axis drive mechanism 45 is omitted in the same manner, for example, the drive pulley and the driven pulley that are rotatably provided on the front end side and the rear end side of the Y-axis carriage 40, respectively, and the drive pulley are rotationally driven. The drive belt is an endless belt-like drive belt stretched between a servo motor, a drive pulley, and a driven pulley, and can be configured by fixing an intermediate portion of the drive belt to the Y-axis carriage 40. In addition, the driving belt moves the Y-axis carriage 40 (moving direction, moving speed, left-right position, etc.) by using a timing belt having a large number of teeth on the inner peripheral surface and a timing pulley for the driving and driven pulleys. Can be finely controlled.

  A cutting head 50 is provided on the Y-axis carriage 40 that is moved back and forth in this manner. In the cutting plotter CP1, as shown in FIG. 1, the cutting plotter CP1 is provided with three holder mounting portions 60 for detachably holding the cutter holder 70, and these three holder mounting portions 60A. , 60B, 60C can be mounted with three cutter holders having different types of cutter blades. The types of cutter blades that can be attached to the three holder attachment portions 60A, 60B, and 60C are arbitrary including combinations, but an example is shown below. Since the cutter blade is handled as a unit in the state of being attached to the cutter holder and is integrally attached to and detached from the holder mounting portion, the cutter holder with the cutter blade attached is hereinafter referred to as “cutter”.

  The holder mounting portion 60A is configured to insert a cutter blade of the cutter mounted on the holder mounting portion into a predetermined cutting depth (half cut or die cut) in the processing medium M held by suction on the support plate 21 based on a processing program. ) Is a holder mounting portion provided with a cutter lifting / lowering mechanism (referred to as a Z-axis drive mechanism) that moves up and down between a processing position pressed in step) and a separation position separated from the workpiece medium M. The holder mounting portion 60A is pivotally supported so that the tip machining point of the cutter blade is offset by a minute distance with respect to the central axis of the cutter holder extending vertically, and the cutting head 50 and the workpiece medium M are supported by the holder mounting portion 60A. The height of the cutter blade relative to the workpiece medium, such as an eccentric cutter in which the cutter blade rotates in accordance with the relative movement around the center axis of the cutter holder or a drawing tool that draws a marking line on the workpiece medium. It is set so as to mount a cutter holder of a driving form that controls only the position (Z-axis direction position).

  Similar to the holder mounting portion 60A, the holder mounting portion 60B extends vertically in accordance with the processing direction of the processing program being executed, in addition to the Z-axis drive mechanism that moves the cutter blade to the processing position and the separation position. The holder mounting portion is provided with a cutter rotating mechanism (referred to as a θ-axis drive mechanism) that rotates the cutter blade around the center axis (θ-axis) of the cutter holder. In the holder mounting portion 60B, a cutter blade 75 is arranged on the center axis of the cutter holder 70 (the rotation axis of the cutter blade) in accordance with the relative movement direction (machining progress direction) of the cutting head 50 and the processing medium M based on the machining program. ) Not only the height position (Z-axis direction position) of the cutter blade with respect to the workpiece medium, such as a tangential cutter that is driven to rotate around and a ruled roller for broken line processing having a rotatable roller, It is set so that a cutter holder having a drive configuration that requires control of the azimuth angle (θ-axis angular position) of the cutter blade in the horizontal plane is set.

  In addition to the Z-axis drive mechanism and the θ-axis drive mechanism similar to the holder mounting part 60B, the holder mounting part 60C is a cutter reciprocating mechanism (B-axis drive) that reciprocates the cutter blade up and down at a predetermined stroke of about 2 to 6 mm. A holder mounting portion provided with a mechanism). The holder mounting portion 60C includes the height position of the cutter blade with respect to the processing medium, such as the tangential cutter similar to the above, or the reciprocating cutter formed with the sawtooth blade, and the azimuth angle of the cutter blade in the horizontal plane. It is set so as to mount a cutter holder of a drive form that requires control, and when using a reciprocating cutter, it is set so as to simultaneously control the B-axis drive mechanism.

  The control unit 80 controls the X-axis drive mechanism 35 and the Y-axis drive based on a control program for controlling the operation of the entire apparatus including each axis drive mechanism of the cutting plotter CP1 and a machining program read according to the machining target. Z-axis drive mechanism, θ-axis drive mechanism, and B-axis drive mechanism provided in the mechanism 45 and each of the holder mounting portions 60A, 60B, and 60C (these are collectively indicated by the reference numeral 55, which is referred to as a cutter drive mechanism) The horizontal movement of the X-axis carriage 30 and the Y-axis carriage 40 and the vertical movement of the cutter blade are controlled by controlling the operations of the above and the like, thereby controlling the cutting process of the medium M fixedly held on the machining table 20. Configured as follows.

  Specifically, when the processing medium M is set at the origin position on the support plate 21 and sucked and held, and the processing program is started, the control unit 80 controls the X-axis carriage 30 and the Y-axis carriage based on the processing program. 40 is moved, the cutting head 50 is moved to the machining start point of the workpiece medium M, the Z-axis drive mechanism is activated for any one of the holder mounting portions set in the machining program, and the X-axis drive mechanism 35, Y-axis The drive mechanism 45 and the θ-axis and B-axis drive mechanisms are synchronously controlled. Then, according to the product shape set in the machining program, one character and cut processing for each shape (referred to as unit shape processing) are sequentially performed to cut one product (referred to as unit product processing), and this is designated. The cut processing (referred to as unit sheet processing) of one sheet of the processing medium is performed repeatedly for the quantity.

  In the cutting plotter CP1 configured as described above, a wireless IC tag 90 in which information on the cutter blade attached to each cutter holder is written is provided in the cutter holder 70, and each holder mounting portion 60A, 60B in the cutting head 50 is provided. , 60C is provided with an RW head 95 capable of reading and writing information written in the wireless IC tag 90 with the cutter holder mounted. The input / output of the RW head 95 is connected to the control unit 80, and the control unit 80 controls the cutting process based on a preset machining program and information read from the RW head 95.

  Note that various types of wireless IC tags have been proposed and put into practical use with respect to tag types, communication methods, frequency bands of radio waves used, and the like, and the present invention can be configured using any method. . In the present embodiment, a configuration example is shown in which a passive type tag that does not require a battery is used for the tag body and an electromagnetic induction method with a frequency of 13.56 MHz is applied.

  The information related to the cutter blade written in the wireless IC tag 90 is broadly composed of identification information for identifying the cutter blade and distance information related to the processing distance of the cutter blade. Among these, “identification information” is information for realizing an appropriate cutting process, and is constituted by information on a cutter blade that is inseparably related to a machining condition such as cutter driving and machining pressure. Specifically, the type of cutter blade (eccentric cutter, tangential cutter, reciprocating cutter, ruled roller, etc.), shape dimensions (spiral angle, blade length, blade thickness, etc.), material and processing (high speed blade) , Carbide blades, titanium coated blades, etc.). In the cutting plotter CP1, the code number representing the type of cutter blade and the code number representing the part number of the cutter blade are recorded as identification information in the wireless IC tag 90, and the cutter blade is specifically identified from this identification information and cut processing is performed. Configured to control. The identification information is specific information of the shape of the cutter holder to which the cutter blade is attached, that is, the cutter, and in principle does not change with the passage of time. Therefore, the identification information is handled as read-only information.

  On the other hand, “distance information” is information for ensuring stable cutting. The cutting edge of the cutter blade gradually wears due to friction with the medium to be processed, resulting in poor cutting, and finally it cannot be cut under the set processing conditions. If a cut defect occurs during cut processing of a large-sized processed medium that has undergone cosmetic printing, the processed medium that has undergone cosmetic printing must be remanufactured, resulting in excessive losses in terms of time and cost. For this reason, the cutter blade of the cutting plotter has a processing distance (referred to as “specified distance” in the present specification) at which the cutting processing can be stably performed for each cutter blade. In addition, the control unit 80 is configured to calculate the machining distance of each cutter based on the machining program, and accumulate and add the machining distances, and store the already machined distance already cut by the cutter blade in the RAM 82. Therefore, in the cutting plotter CP1, the specified distance set for the cutter blade and the already processed distance already cut by the cutter blade are recorded as distance information in the wireless IC tag 90, and cutting is performed based on the distance information. Control. The distance information is time-specific information of the cutter, and the already-processed distance changes from moment to moment as the cutting process is executed. Therefore, the processed distance is handled as readable / writable information. (In addition, since the specified distance is a value determined for each cutter blade, it can be specified from the product number of the cutter blade. Therefore, a table of specified distances corresponding to the product number of the cutter blade is set in the ROM 81 in the control unit 80. Thus, the specified distance can be read based on the identification information described above.)

  Next, the control contents of the control unit 80 using the identification information and the distance information will be described. The control unit 80 outputs a read command to the RW head 95 provided in the holder mounting portion 60, and causes the identification information and the distance information to be read from the wireless IC tag 90 of the cutter mounted on each holder mounting portion. The read timing can be set as appropriate in the control program of the cutting plotter CP1. For example, when the cutting plotter CP1 is started, the cutting head 50 stops at a predetermined position such as a work medium introduction position (standby position) or an origin position. When the machining program is selected, when the machining program is selected or switched, when the machining program is started or paused, when the attachment / detachment of the cutter is detected, etc., these can be set in combination.

  Also, since the cutter is attached and detached when the cutter blade is not cut (when cutting is not performed), the operation of each drive shaft such as the X, Y, and Z axes is stopped. The read command is intermittently output to the RW head 95 at a predetermined interval of several seconds to several tens of seconds and monitored to determine whether or not a cutter is mounted on each holder mounting portion, and to read identification information and distance information. It is also suitable to make it perform. The attachment / detachment of the cutter may be detected from a change in the signal by providing a detector such as a limit switch, a proximity switch, or a photo interrupter that detects whether or not the cutter holder 70 is attached to the holder attaching portion 60. When the attachment / detachment of the cutter is detected, a read command may be output to the RW head 95 to read the identification information and the distance information.

  Based on the signal input from the RW head 95, the control unit 80 determines whether or not a cutter is attached to each of the holder attachment portions 60A, 60B, and 60C, and if the cutter is attached, the wireless IC tag 90 It is determined whether or not the cutter mounted by the identification information read out from is a cutter compatible with each holder mounting portion.

  First, when it is determined that the cutter is not attached to any one of the holder attaching portions 60A, 60B, 60C, the position of the holder attaching portion is specified and the cutter is attached in order to call attention. A display indicating that there is no data is displayed on the display panel 88.

  If it is determined that the attached cutter is not a cutter that fits each holder mounting portion, for example, if the cutter attached to the holder holding portion 60A is an eccentric cutter, the holder is attached. Although it is appropriate as a cutter to be mounted on the portion 60A, when the mounted cutter is a tangential cutter or a reciprocating cutter that requires θ-axis control, it is not suitable as a cutter to be mounted on the holder mounting portion 60A. In such a case, the control unit 80 performs an alarm operation to the effect that the cutter mounted on the holder mounting portion is incompatible. For example, a warning warning (not shown) is lit or blinking in red, or an alarm is displayed on the display panel 88 by a schematic figure or character indicating that the cutter mounted on the holder mounting portion 60A is incompatible. A display alarm to be displayed, an audio alarm to be alarmed by sound or beep, a restriction alarm to restrict the operation of each axis drive mechanism, or the like can be performed alone or in combination. For this reason, it is possible to prevent a situation in which the cutter is installed in the wrong position when the cutter is attached or removed, thereby preventing damage to the cutter blade or loss of the processing medium due to incorrect attachment of the cutter. It can be prevented in advance.

  On the other hand, when it is determined that the cutters mounted on the holder mounting portions 60A, 60B, and 60C are all suitable, the control unit 80 identifies the identification information (type of cutter blade) read from the wireless IC tag 90. , Cutter blade part number) and distance information (specified distance, already processed distance) are recorded in the RAM 82 in the control unit 80. At this time, when the identification information and distance information of the cutter for each holder mounting portion already recorded in the storage area of the RAM 82 and the identification information and distance information newly read from the wireless IC tag 90 are different, Update and record the newly read information for different parts. For this reason, accompanying the attachment / detachment / replacement of the cutter, troublesome operations such as re-inputting the identification information and distance information of the cutter can be abolished to improve workability. The cutter blade can be prevented from being damaged.

  In this manner, a cutter suitable for each of the holder mounting portions 60A, 60B, and 60C is mounted, and the processing medium M is positioned at the origin position on the support board 21 and held by suction, and a cutting program for cutting the processing medium. Is read out, the control unit 80 is first mounted by comparing whether or not a cutter used for cutting is mounted on the holder mounting portion specified in the processing program with the cutter identification information recorded in the RAM 82. An alarm is activated when it is determined that it is not.

  For example, in the machining program, when the cutter mounting is performed using the tangential cutter mounted on the holder mounting portion 60B, but no cutter is mounted on the holder mounting portion 60B, or a ruled roller is mounted. In such a case, it is difficult to execute the designated machining program. Accordingly, in such a case, the control unit 80 causes the same alarm operation as described above, that is, the rotation warning display or the like to light up or blink in red, or to be used for the cutting process in the holder mounting portion 60B defined by the machining program. A display alarm that displays an alarm on the display panel 88, a voice alarm that alerts with a voice or a beep, a regulation alarm that regulates the operation of each axis drive mechanism, or the like is performed alone or in combination. As a result, it is possible to prevent erroneous machining by a cutter that is different from a color operation or machining program that is not cut.

  On the other hand, when it is determined that the cutter used for cutting is correctly mounted on the holder mounting portion defined in the processing program, the control unit 80 sequentially executes each step of the processing program according to the processing program. That is, the X-axis drive mechanism 35 and the Y-axis drive mechanism 45 are operated to place the cutting head 50 at the machining start point, and the Z-axis drive mechanism is operated to move the cutter down to the machining position. The drive mechanism 35 and the Y-axis drive mechanism 45 (in addition to the θ-axis drive mechanism and the B-axis drive mechanism according to the machining program) are synchronously controlled to move to the machining end point with the cutter blade cut into the work medium, and the Z axis The drive mechanism is actuated to raise the cutter to the separated position, and thereafter this is repeated to cut into the desired product shape.

  The specific contents of the cut processing to be executed are various in accordance with the product shape defined by the processing program, but in general, it is composed of continuous cut lines (cut lines drawn by one stroke) 1 A single product is cut by combining multiple cutting processes (unit shape processing) for each character and shape (unit product processing), and this unit product processing is repeated for the specified quantity or the cutable product quantity. One sheet cut processing (unit sheet processing) is configured.

  Inside the control unit 80, there is provided an execution distance calculation unit 83 for calculating a machining distance to be cut by execution of the machining program. In this execution distance calculation unit 83, the cutter is positioned at the machining position on the Z axis. The movement distance moved in the XY direction in the arranged state, more specifically, the movement distance (that is, the machining distance) along the cutting line of the cutter blade is calculated from the machining program. The control unit 80 calculates the machining distance prior to the execution of the cut machining after the machining program is started.

  The control unit 80 adds the machining distance when the cut machining calculated by the execution distance calculation unit 83 is executed to the existing machining distance read from the wireless IC tag 90 and recorded in the RAM 82 to obtain the planned machining distance. When it is determined that the planned machining distance does not exceed the specified distance recorded in the RAM 82, the cutting process (referred to as a first cutting process for convenience) is permitted. Then, when the first cut processing is executed, the processing distance accompanying the execution of the cut processing (that is, the planned processing distance calculated by the execution distance calculation unit 83) is added to the existing processing distance recorded in the RAM 82. A new machining distance is calculated, and the machining distance recorded in the RAM 82 is updated to the new machining distance.

  Here, the unit of “cut processing” for making the above determination can be arbitrarily set in the control program of the cutting plotter. For example, when one character and one shape are relatively large and the processing distance is a certain distance or more. Is the unit shape processing, when one product is relatively small and the processing distance per unit product is sufficiently small relative to the specified distance of the cutter blade, the unit product processing, the processing distance per sheet of workpiece medium is the cutter When the distance is sufficiently small with respect to the specified distance of the blade, the unit sheet processing can be set.

  The control unit 80 sequentially updates the existing machining distance on the RAM 82 by accumulatively adding the machining distances processed by the cutting blades by executing the cutting process every time the cutting program is executed as the machining program proceeds. The range that does not exceed the specified distance during the cutting process by adding the machining distance when the next cutting process (referred to as the second cutting process for convenience) is performed to the new existing machining distance to be updated. The processing steps are advanced in sequence.

  On the other hand, when it is determined that the scheduled machining distance when the second cut machining is performed exceeds the specified distance, the control unit 80 controls the operation as follows. First, if the cutter used for cutting is also mounted on another holder mounting part, and the planned processing distance exceeds the specified distance in the processing program, the cutter is switched to the cutter of the other holder mounting part and continuously processed. When a command to that effect is included, cut processing after the second cut processing determined to exceed the specified distance is executed using the cutters of other holder mounting portions. For example, when the tangential cutter having the same cutter blade is mounted in advance on the holder mounting portions 60B and 60C, and the planned processing distance exceeds a specified distance in the machining program, the holder mounting portion is changed from the cutter mounted on the holder mounting portion 60B. When a command for switching to the cutter attached to 60C and continuing processing is included, the control unit 80 executes the cut processing after the second cut processing by switching to the cutter attached to the holder mounting portion 60C. .

  However, if the switching command as described above is not included in the machining program, or if the cutter used for cutting is not mounted on another holder mounting portion, the control unit 80 has completed the first cutting. Then, the operation of each drive mechanism is temporarily stopped and waited. At the same time, a rotation warning display or the like is lit or blinking in yellow, or a warning is displayed on the display panel 88 that the cutter has already reached the specified distance. Alarm operations such as these are performed alone or in combination.

  Prior to the start of execution of the machining program, the machining distances of all the cut machining included in the machining program are calculated and integrated, and the planned machining distance in the entire machining program is calculated for each cutter. If there is a cutter that is determined to exceed the specified distance during execution, cut processing that can be executed within that range and within the specified distance range (cut processing that will be the processing limit) before the execution of the processing program The display panel 88 may be configured to display a warning.

  Now, the control unit 80 is provided with a distance information update unit 84 that updates the distance information of the already processed distance written in the wireless IC tag 90 to a new already processed distance. After the cutting process is executed, a distance information write command is output to the RW unit 95, and the existing machining distance written before the cutting process is added to the machining distance cumulatively for each cutting process. The updated machining distance on the updated RAM 82 is updated.

  Here, the unit of the “predetermined cutting” can be arbitrarily set in the control program of the cutting plotter. For example, in addition to the unit shape processing, unit product processing, and unit sheet processing described above, when cutting processing is performed by sequentially using the cutters of a plurality of holder mounting portions in the processing program, cutting processing for each cutter unit, multiple types If the product is cut, the cutting process for each processing program unit corresponding to the processed product will be performed, and if it is determined that the planned processing distance exceeds the specified distance during execution of the processing program, the last cutting process by the cutter will be performed. When the machining program is paused by an external operation during the execution of the machining program, it is possible to set when the machining is paused or immediately before the cutting, and when the machining program has been executed to the end, the last cutting may be set. it can.

  According to such a configuration, the machining distance on the RAM 82 is always updated to the latest machining distance, the cutting process by the cutting plotter is controlled, and the machining distance written in the wireless IC tag 90 is appropriately cut. After the execution of machining, it is updated to the latest machining distance and recorded. For this reason, when the cutter is removed from the holder mounting portion, the distance information of the already processed distance cut by the cutter is held by the removed cutter itself, and after removing the cutter processed for a certain distance, it is reattached. Even in this case, the machining distance is read from the wireless IC tag 90, and the operation of the cutting plotter CP1 is controlled based on the accurate machining distance. Therefore, even when a cutter that is less than the specified distance is attached or removed for the convenience of product processing, the already processed distance stored in the RAM 82 is displayed on the display panel 88 and recorded in a separate memo or the like. Without having to perform complicated operations such as inputting the machining distance recorded during remounting to the control unit 80, it is possible to reliably prevent the occurrence of machining defects and damage to the cutter blade due to incorrect settings during entry. can do.

  Next, a cutting plotter CP2 according to the second embodiment will be described with reference to FIGS. 4 and 5 are a plan view and a rear view of the cutting plotter CP2, respectively, FIG. 6 is a block diagram showing an outline of the control configuration, and FIG. 7 is a schematic configuration diagram in the vicinity of the cutter station. Note that the cutting plotter CP2 of the present embodiment, like the cutting plotter CP1 of the first embodiment described above, is attached to the cutting head 50 at three holder mounting portions 60 (60A, 60B, 60C, hereinafter, for convenience of explanation). An XY plotter type cutting plotter having a single holder mounting portion), and the basic configuration of the apparatus is the same.

  On the other hand, in the cutting plotter CP2, a cutter station 150 is provided in the vicinity of the moving area of the cutting head 50, and a second holder mounting portion 160 (160A, 160B, 160C) that detachably mounts and holds the cutter holder 70 on the cutter station 150. ) And a cutter replacement mechanism 170 for exchanging the cutter mounted on the first holder mounting portion and the cutter mounted on the second holder mounting portion is different in configuration from the cutting plotter CP1. Yes. Further, the cutting plotter CP2 is different in configuration from the cutting plotter CP1 in that the RW unit 95 is provided not in the cutting head 50 but in the cutter station 150. Therefore, in the following, the same reference numerals are given to parts having the same configurations as those of the cutting plotter CP1 already described, the duplicated explanation is omitted, and the configurations and operations of the different parts will be described in detail.

  The cutting plotter CP2 is configured to be able to move to a cutter replacement position where the cutting head 50 is retracted out of the cutting processing area, and a cutter station 150 and a cutter replacement mechanism 170 are provided at the cutter replacement position. As shown in FIG. 4, a specific configuration example is provided with an X-axis carriage 30 extending rearward from the rear end of the support plate 21, so that the cutting head 50 can be moved rearward from the processing region. Then, the X-axis carriage 30 is moved to the right end side of the processing table 20, the Y-axis carriage 40 is moved to the rear end side of the processing table 20, and the cutting head 50 is positioned at the right rear end of the processing table 20. A cutter station 150 and a cutter exchange mechanism 170 are provided below the exchange position.

  The cutter station 150 is provided with, for example, three second holder mounting portions 160 for detachably holding the cutter holder 70, and the same or different kinds of cutters can be arbitrarily attached to the three second holder mounting portions 160A, 160B, 160C. It can be selected and installed. The second holder mounting portions 160A, 160B, and 160C are provided with an RW head 95 that can read and write information written in the wireless IC tag 90 with the cutter mounted. The input / output of the RW head 95 is connected to the control unit 180, and the control unit 180 controls the cutting process based on a preset machining program and information read from the RW head 95.

  As the cutter changing mechanism 170, various known tool changing mechanisms can be applied, and detailed illustration is omitted in this specification. For example, an electric motor, a solenoid, an air cylinder, or the like is used as a drive source, and the cutter holder 70 is attached to the cutter changing mechanism 170. A clamp arm 171 that can be gripped and an arm moving mechanism that moves the clamp arm 171 in the vertical and horizontal planes can be used.

  Now, in the cutting plotter CP2 provided with such a cutter station 150, in addition to the three first holder mounting portions 60A, 60B, 60C provided on the cutting head 50, the cutter station 150 has three second holders. Mounting portions 160A, 160B, and 160C are provided, and three cutters can be mounted on the second holder mounting portion and kept on standby during the cutting process. Then, the cutter mounted on the first holder mounting unit 60 and the cutter mounted on the second holder mounting unit 160 can be continuously and automatically replaced by the cutter replacement mechanism 170 in a timely manner.

  The operator can appropriately attach and detach the cutter at the cutter station 150, and the control unit 180 has completed the use when the use of the cutter mounted on the first holder mounting portion 60 is completed by the progress of the machining program. The cutter and the cutter held on the second holder mounting portion 160 of the cutter station 150 are replaced by operating the cutter replacement mechanism 170. That is, in the cutting plotter CP2, when the cutter is attached and detached by the operator at the cutter station 150, a cutter different from the cutter mounted on the first holder mounting portion 60 is required based on the switching of the machining program. When the already-processed distance reaches the specified distance and the cutter needs to be replaced with a new cutter, the cutter that has been used and the cutter held on the second holder mounting portion 160 are automatically replaced.

  The control unit 180 outputs a read command to the RW head 95 provided in the second holder mounting portion 160, and the identification information and the distance information from the wireless IC tag 90 of the cutter mounted in each holder mounting portion 160A, 160B, 160C. Is read. The read timing can be set as appropriate in the control program for the cutting plotter. For example, when the cutting plotter CP2 is activated, the cutting head 50 is stopped at a predetermined position such as the cutter replacement position or the origin position. When a program is selected or switched, when a machining program is paused, when cutter attachment / detachment is detected at the cutter station 150, or the like can be set, or a combination thereof can be set. During execution of the machining program, whether or not a cutter is mounted on each second holder mounting portion is monitored by outputting a read command to the RW head 95 intermittently at predetermined intervals of about 10 seconds to several minutes. It is also possible to configure so that determination, identification information, and distance information are read out.

  Based on the signal input from the RW head 95, the control unit 180 determines whether or not a cutter is attached to each of the second holder attachment portions 160A, 160B, and 160C, and if the cutter is attached, wirelessly. The identification information and the distance information are read from the IC tag 90, and the identification information and the distance information of each cutter are recorded in a storage area provided in the RAM 182 corresponding to each second holder mounting portion 160A, 160B, 160C. At this time, if the identification information and distance information of the cutter for each second holder mounting portion already recorded in the storage area of the RAM 182 and the identification information and distance information read from the wireless IC tag 90 are different, Different portions are updated and recorded with information newly read from the wireless IC tag 90. For this reason, accompanying the attachment / detachment / replacement of the cutter, troublesome operations such as re-inputting the identification information and distance information of the cutter can be abolished to improve workability. The cutter blade can be prevented from being damaged.

  If it is determined that the machining program has already been selected or executed and automatic cutter replacement has been set, but the cutter to be automatically replaced is not mounted on the second holder mounting portion 160 In order to call attention, the display panel 88 displays a display indicating that the cutter necessary for automatic replacement is not held on standby in the second holder mounting portion 160.

  When the cutter to be automatically replaced is already held on the second holder mounting portion 160 in standby, the control unit 180 uses the cutter mounted on the first holder mounting portion 60 of the cutting head 50 to Each step of the machining program is sequentially executed according to the machining program in the same manner as described above for the cutting plotter CP1 of the embodiment.

  The control unit 180 is provided with the execution distance calculation unit 83 described above. The control unit 180 calculates the processing distance prior to the execution of the cut processing after the start of the processing program, and each first holder mounting unit 60A. , 60B, 60C, the machining distance when the cut machining calculated by the execution distance calculation unit 83 is added to the existing machining distance recorded in the RAM 182 corresponding to the cutters of 60B, 60C, to obtain the planned machining distance. When it is determined that the distance does not exceed the specified distance recorded in the RAM 182, the cutting process (first cutting process) is executed. Further, when the first cut processing is executed, a new processing distance is calculated by adding the processing distance associated with the execution of the cutting processing to the existing processing distance recorded in the RAM 182, and the existing processing distance recorded in the RAM 182 is calculated. The machining distance is updated to a new machining distance.

  The control unit 180 sequentially updates the existing machining distances on the RAM 182 by cumulatively adding the machining distances processed by the cutting blades by executing the cutting process each time the cutting program is executed as the machining program proceeds. The processing distance is calculated by adding the processing distance when the next cut processing (second cut processing) is executed to the new existing processing distance to be updated, and sequentially processing steps within the range not exceeding the specified distance during the cutting processing To advance.

  On the other hand, when it is determined that the scheduled machining distance when the second cut machining is performed exceeds the specified distance, the control unit 180 controls the operation as follows. First, the cutter used for cutting is also mounted on the other first holder mounting part, and when the planned processing distance exceeds the specified distance in the processing program, the cutter is switched to the cutter of the other first holder mounting part. If a command to continue processing is included, cut processing after the second cut processing determined to exceed the specified distance is executed using the cutters of the other first holder mounting portions. Further, when the machining program includes a command to continue machining by replacing the cutter with the cutter of the second holder mounting portion 160 when the scheduled machining distance exceeds the specified distance, after the completion of the first cut machining Prior to the start of the second cut processing, the cutter replacement mechanism 170 performs cutter replacement.

  Specifically, after the first cut processing is completed, the control unit 180 moves the cutting head 50 to the cutter replacement position and temporarily stops it, and the cutter replacement mechanism 170 determines that the planned processing distance exceeds the specified distance. In addition, the cutter of the first holder mounting portion 60 (for example, 60B) and the cutter that is held on standby by the second holder mounting portion 160 (for example, 160B) for replacement are exchanged. Then, after the cutter replacement is completed, cut processing after the second cut processing is executed using a new cutter mounted on the first holder mounting portion 60B. At this time, the control unit 180 obtains the cutter identification information and distance information of the first holder mounting portion 60B and the cutter identification information and distance information of the second holder mounting portion 160B, respectively recorded in the corresponding area of the RAM 182. The cutter replacement mechanism 170 replaces the cutter with the execution of the cutter replacement.

  As a result, the cutter identification information and distance information of the first holder mounting portion 60B are updated to the newly exchanged cutter identification information and distance information, and subsequent cut processing is executed based on the new existing processing distance. . The identification information and distance information of the cutter of the second holder mounting portion 160B are the same, and the already-processed distance of the cutter held after the cutter replacement is updated to the already-processed distance used until just before the specified distance. Based on the switch to the next machining program after the specified quantity of product has been processed, the cutter that has been mounted on the first holder mounting portion 60 and completed use, and the second holder mounting portion 160 that is held on standby and subsequent processing The same applies to cases where the cutter used in the program is of a different type.

  The distance information update unit 84 in the control unit 180 outputs a write command to the RW unit 95 provided in the second holder mounting unit 160B, and the distance of the already processed distance written in the wireless IC tag 90 before exchanging the cutter. Information is rewritten and updated with a new machining distance after cutter replacement. That is, in the above example, the already processed distance used until just before the specified distance is written in the wireless IC tag 90.

  According to such a configuration, for each cutter mounted on the first holder mounting portion 60, the cutting distance is always updated to the latest processing distance in the RAM 182 to control the cutting, and the second holder mounting portion 160 is controlled. Each of the cutters held in the latest is updated in the RAM 182 when the cutter replacement is executed by the cutter replacement mechanism 170 (when moved from the first holder mounting unit 60 to the second holder mounting unit 160). The already processed distance is written and recorded in the wireless IC tag 90.

  For this reason, when the cutter is removed from the second holder mounting portion 160, the distance information of the already machined distance cut by the cutter is held in the removed cutter itself, and after removing the cutter after machining a certain distance. Even in the case of reuse, the machining distance is read from the wireless IC tag 90, and the operation of the cutting plotter CP2 is controlled based on the accurate machining distance. Therefore, even when a cutter that is less than the specified distance is attached or removed for convenience of product processing, the already processed distance stored in the RAM 182 is displayed on the display panel 88 and recorded in a separate memo or the like. No need for complicated operations such as inputting the processing distance recorded at the time of remounting to the control unit 180, and it is possible to reliably prevent the occurrence of machining defects and cutter blade damage due to incorrect settings during input. can do.

  Therefore, according to the cutting plotters CP1 and CP2 of the present invention as described above, the workability is improved by eliminating the need for additional setting work accompanying the attachment / detachment of the cutter, and the occurrence of problems due to incorrect settings is eliminated. In addition, stable cutting for a long time can be realized.

  In the embodiment described above, as an example of the cutting plotter, a cutting plotter in a form in which the cutter is moved in the orthogonal biaxial (X-axis-Y-axis) directions in the horizontal plane with respect to the processing medium held on the processing table. Although illustrated, the present invention is a cutting plotter of another form, for example, a cutting plotter in which one of two orthogonal axes is moved by the cutter and the other one is moved by the work medium, and the work medium is fixedly held. The same effect can be obtained by applying the same to a cutting plotter having a configuration in which the processing table is moved in two orthogonal axes.

It is a schematic block diagram of the cutting head vicinity in the cutting plotter of 1st Embodiment. It is an external appearance perspective view of the cutting plotter of 1st Embodiment. It is a block diagram which shows the outline | summary of the control structure in the cutting plotter of 1st Embodiment. It is a top view of the cutting plotter of 2nd Embodiment. It is a rear view of the cutting plotter of 2nd Embodiment. It is a block diagram which shows the outline | summary of the control structure in the cutting plotter of 2nd Embodiment. It is a schematic block diagram of the cutter station vicinity in the cutting plotter of 2nd Embodiment.

Explanation of symbols

CP1 Cutting Plotter CP1 of the First Embodiment Cutting Plotter CP2 of the Second Embodiment Medium Medium 20 Processing Table (Medium Holding Unit)
35 X-axis drive mechanism 45 Y-axis drive mechanism 50 Cutting head 60 (60A, 60B, 60C) Holder mounting portion (first holder mounting portion)
70 Cutter holder 80 Control unit (cutting control device)
83 Execution distance calculation unit 84 Distance information update unit 90 Wireless IC tag 95 RW head 150 Cutter station 160 (160A, 160B, 160C) Second holder mounting unit 170 Cutter replacement mechanism 180 Control unit

Claims (2)

Medium holding means for holding a sheet-like workpiece medium;
A cutter holder to which a cutter blade for cutting the workpiece medium is attached;
A cutting head that has a first holder mounting portion on which the cutter holder is detachably mounted and is relatively moved along the workpiece medium held by the medium holding means;
A cutting control device that causes the cutting head to cut relative to the processing medium by moving the cutting head relative to the processing medium in a state in which the cutter holder is mounted on the first holder mounting portion. In cutting plotter,
A wireless IC tag provided in the cutter holder and having identification information for identifying the cutter blade attached to the cutter holder;
Readout means provided on the cutting head and capable of reading the identification information written on the wireless IC tag provided on the cutter holder in a state where the cutter holder is mounted on the first holder mounting portion,
The identification information written on the wireless IC tag of the cutter holder mounted on the first holder mounting portion is read by the reading means, and the cutting control device is configured to read the identification information based on the read identification information. A cutting plotter characterized in that it is configured to control the cutting process. Medium holding means for holding a sheet-like workpiece medium;
A cutter holder to which a cutter blade for cutting the workpiece medium is attached;
A cutting head that has a first holder mounting portion on which the cutter holder is detachably mounted and is relatively moved along the workpiece medium held by the medium holding means;
A cutter station having a second holder mounting portion on which the cutter holder is detachably mounted and provided in the vicinity of the moving area of the cutting head;
A cutter exchanging mechanism for exchanging the cutter holder mounted on the first holder mounting portion and the cutter holder held on the second holder mounting portion at a position where the cutting head is moved to the vicinity of the cutter station;
With the cutter holder mounted on the first holder mounting portion, the cutting head is moved relative to the processing medium to cut the processing medium with the cutter blade, and the cutter replacement mechanism In a cutting plotter comprising a cutting control device for controlling the exchange operation of the cutter holder,
A wireless IC tag provided in the cutter holder and having identification information for identifying the cutter blade attached to the cutter holder;
Read means provided in the cutter station and capable of reading the identification information written on the wireless IC tag of the cutter holder mounted on the second holder mounting portion,
The identification information written on the wireless IC tag of the cutter holder mounted on the second holder mounting portion is read by the reading means, and the cutting control device is configured to perform the processing on the processing medium based on the read identification information. A cutting plotter configured to control the cutting process and the exchanging operation of the cutter holder.

Images