JP2007160836A - Punching and cutting out device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To eliminate need of a machine which does not cause increase in cost and requires a large installing space when cutting out a punched image formed in a subject to be machined in a desired area. <P>SOLUTION: A device has a punching head forming the punched image on the surface to be machined of the subject to be machined based on the punching data obtained from image data, a cutting head cutting out the subject to be machined based on cutting data obtained from the image data, and a controlling means controlling the punching head and the cutting head so as to do processing for cutting out the subject to be machined by supplying the cutting data obtained from the image data to the cutting head after completing the processing for forming the punched image on the surface to be machined of the subject to be machined by supplying the punching data obtained from the image data to the punching head. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention relates to an embossing and clipping device, and more particularly, data relating to image creation such as image luminance data representing image luminance (hereinafter referred to as image luminance data representing image luminance, etc.). Various data relating to image creation are collectively referred to simply as “image data.”) By pressing a machining tool against the workpiece surface of the workpiece, the workpiece surface is engraved to create a recess. In addition, an image created by the concave portions generated by the stamping on the surface to be processed (hereinafter, “an image generated by the concave portions generated by the stamping” is appropriately referred to as “the stamped image”) is created. The present invention relates to a stamping and clipping device that can cut out the stamped image.

  Conventionally, as a device that presses a processing tool against a processing surface of a workpiece based on image data and creates various stamped images such as characters, figures, or symbols on the processing surface, for example, JP A stamping machine as disclosed in Japanese Patent Laid-Open No. 2002-46394 is known.

  Such an engraving machine is configured, for example, such that a machining tool is provided at a lower portion of a plunger provided so as to penetrate a solenoid, and when the solenoid is energized, the plunger is sucked and the machining tool is lowered.

  As the machining tool descends, the machining tool comes into contact with the workpiece surface of the workpiece and presses the workpiece surface to cut the workpiece surface to create a recess, and then strikes the workpiece surface. An engraved image is created. At this time, if the energization time to the solenoid is changed according to the image data, the intensity of the pressing force applied to the work surface by the processing tool changes, and the shape changes according to the intensity change of the pressing force. Since the depressed portion can be created on the workpiece, a desired stamped image can be created on the workpiece surface of the workpiece.

By the way, when trying to cut a stamped image created by a conventional stamping machine as described above from a workpiece in a desired region, generally, a worker manually performs a cutting operation using a cutter or the like. Alternatively, it is necessary to prepare a dedicated cutting machine separately from the engraving machine and perform a cutting operation using the cutting machine.

For this reason, conventionally, when a stamped image created by a stamping machine is cut out in a desired area and commercialized, the labor cost of workers and the cost of introducing a cutting machine are incurred, resulting in high costs. When a cutting machine is introduced, a place for arranging the cutting machine is necessary, which is disadvantageous in terms of space.
JP 2002-46394 A

  The present invention has been made in view of the various problems of the prior art as described above, and an object of the present invention is to cut a stamped image created on a workpiece in a desired region. Therefore, an object of the present invention is to provide a stamping and cutting device that does not incur a high cost and eliminates the need for a machine that requires a large installation space.

  In order to achieve the above object, the invention described in claim 1 of the present invention includes an embossing head for creating an embossed image on a work surface of a workpiece based on embossing data acquired from image data. A cutting head that cuts out the workpiece based on the cutting data acquired from the image data, and a stamped image created on the workpiece surface of the workpiece by the cutting head based on the stamping data acquired from the image data And a control means for controlling the cutting head and the cutting head so as to perform the process of cutting out the workpiece by the cutting head based on the cutting data acquired from the image data. It is what.

  According to a second aspect of the present invention, the work surface of the work piece is supported on the work piece so as to be movable relative to the work piece and based on the stamped data obtained from the image data. A stamping head for creating a stamped image, a cutting head supported so as to be movable relative to the workpiece and cutting the workpiece based on cutting data obtained from image data; A supporting means for supporting the cutting head and the cutting head so as to be movable relative to the workpiece; a connecting means for detachably connecting the cutting head and the cutting head; and the stamping The locking means for locking the head to the fixed system part so as to be freely disengaged, the moving means for moving the cutting head relative to the workpiece, and the image data. After completing the process of creating a stamped image on the workpiece surface of the workpiece by the stamping head based on the stamped data, the workpiece is moved by the cutting head based on the cutting data acquired from the image data. Control means for controlling the cutting head and the cutting head so as to perform a cutting process, and when creating a stamped image on the workpiece surface of the workpiece based on the stamping data, When the locking means disengages the cutting head from the fixed system part, and the connecting means connects the cutting head and the cutting head and cuts out the workpiece based on the cutting data. The engaging means engages the embossing head with the fixed system part, and the connecting means engages the embossing head with the cutting head. The head is obtained so as to separate.

  The invention according to claim 3 of the present invention is the invention according to claim 2 of the present invention, wherein the connecting means is constituted by a magnet.

  According to a fourth aspect of the present invention, in the invention according to the third aspect of the present invention, the attracting force of the magnet is made smaller than the engaging force of the locking means. is there.

  Since the present invention is configured as described above, a machine that requires a large installation place without incurring high costs in cutting out a stamped image created on a workpiece in a desired region. An excellent effect that it can be performed without using the above is obtained.

  Hereinafter, an example of an embodiment of a stamping and cutting device according to the present invention will be described in detail with reference to the accompanying drawings.

First, FIG. 1 shows an outline perspective view of an outline configuration of a stamping and cutting apparatus according to an embodiment of the present invention, and FIG. 2 shows a stamping of the stamping and cutting apparatus shown in FIG. FIG. 3 is a schematic front explanatory view showing a connected state of the head and the cutting head, and FIG. 3 is a schematic front explanatory view showing a separated state of the cutting head and the cutting head of the cutting and cutting apparatus shown in FIG. Has been.

  Here, the engraving and cutting apparatus 10 includes a main body 14 to which image data is mainly input from a host computer (not shown), and an operation panel 16 for controlling the overall operation and instructing various processes. And the stamping head 18 and the cutting head 20 as the output unit, and the workpiece 22 such as, for example, a single sheet or a sheet 22 such as a long wound sheet in the X direction (the stamping and cutting device 10). Fore-and-aft direction: Refer to the reference diagram of the XYZ orthogonal coordinate system shown in FIG. 1) and a stepping motor (not shown) that rotates the grid roller 30.

  Here, it is assumed that the image data includes at least image luminance data and vector data.

  In this embodiment, the image luminance data is used as stamping data as data for controlling the stamping process of the sheet 22 by the stamping head 18 and the cutting process of the sheet 22 by the cutting head 20 is controlled. Vector data is used as cutting data.

The stamping head 18 and the cutting head 20 are supported by both side frames 12L and 12R which are fixing system members of the stamping and cutting device 10 and along guide rails 26 arranged perpendicular to the traveling direction of the sheet 22, It is mounted so as to be movable in the Y direction which is the main scanning direction (left and right direction of the stamping and clipping device 10: refer to the reference diagram of the XYZ orthogonal coordinate system shown in FIG. 1).

  The operation panel 16 includes a display unit 16a for displaying an operation state, a cursor key 16b for designating positions of the embossing head 18 and the cutting head 20, and an area of a predetermined part where embossing or clipping should be started based on image data. A start area setting key 16c for designating and an operation start key 16d for starting stamping or clipping from the set start area are set.

  The sheet 22 is pressed by a pinch roller 24 installed on the upper side of the base 28, is sandwiched between the pinch roller 24 and the grid roller 30, and is sent in the X direction by the rotation of the stepping motor. ing.

  The embossing head 18 is installed on a carriage 32, and the upper and lower sides of the carriage 32 are slidably mounted on the guide rail 26 via guide rollers 34 and 34.

  The cutting head 20 is installed on a carriage 36, and the carriage 36 is slidably mounted on the guide rail 26 via guide rollers 38, 38.

  That is, as shown in FIG. 2, the stamping heads 18 are arranged side by side on the guide rail 26 so as to be positioned on the side of the cutting head 20 (right side in FIG. 2). The magnet 40 fixed to the left side wall of the carriage 32 on which the cutting head 20 is installed and the magnet 42 fixed to the right side wall of the carriage 36 on which the cutting head 20 is installed can be connected or detached as appropriate.

  In this embodiment, the magnet 40 and the magnet 42 constitute a connecting means.

  A hook 44 is fixed to the right side wall on the opposite side of the carriage 32 to which the magnet 40 is fixed. The hook 44 is engaged with an engagement hook 46 fixed to the side frame 12R side of the stamping and cutting device 10. It is designed to be removably locked.

  Such an engagement / disengagement operation between the hook 44 and the engagement hook 46 is performed by an operation key provided on the operation panel 16, but as described later, all the image luminance data is read and the creation of the stamped image is completed. When this occurs, the hook 44 and the engagement hook 46 are automatically engaged. As shown in FIG. 3, the engagement force (holding force) in the locked state in which the hook 44 and the engagement hook 46 are engaged with each other is the adsorption of the magnet 40 and the magnet 42 that connect the embossing head 18 and the cutting head 20. It is set to be stronger than force.

  In this embodiment, the hook 44 and the engagement hook 46 constitute a locking means.

Here, the embossing head 18 installed in the carriage 32 will be described with reference to a perspective view of the main part of the embossing head 18 shown in FIG.

  The stamping head 18 includes a plate-like solenoid mounting member 50, and the solenoid mounting member 50 is attached to the carriage 32, whereby the stamping head 18 is integrally installed on the carriage 32. Will be.

  A solenoid 52 is mounted on the solenoid mounting member 50, and a plunger 54 is provided through the solenoid 52 at a substantially central portion of the solenoid 52.

  A processing tool 48 is connected to the lower portion of the plunger 54, and a plate spring 56 is locked to the processing tool 48. The leaf spring 56 has a biasing force that biases the processing tool 48 upward in the Z direction (the vertical direction of the stamping and cutting device 10).

  In the above-described embossing head 18, the plunger 54 and the processing tool 48 are driven up and down along the Z direction by driving the solenoid 52. That is, when the solenoid 52 is energized, the solenoid 52 attracts the plunger 54 and lowers the processing tool 48 against the urging force of the leaf spring 56.

  As the processing tool 48 descends, the tip portion of the processing tool 48 comes into contact with the surface of the sheet 22. By changing the pressing force at the time of the contact, a recess having a desired shape is formed on the sheet 22. Thus, a desired stamped image can be created on the sheet 22.

  In addition, since the attraction force of the solenoid 52 changes with the energization time of the solenoid 52, and the bending amount of the leaf spring 56 changes accordingly, the machining tool 48 is applied to the sheet 22 by changing the energization time of the solenoid 52. The pressing force at the time of contact can be changed.

Next, the cutting head 20 installed on the carriage 36 will be described in detail with reference to schematic front explanatory views, schematic side explanatory views and schematic plan explanatory views shown in FIGS. A guide bar 60a and a guide bar 60b extending in the vertical direction are provided in parallel on both the left and right sides of the two, and a cutter holder 62 is attached to the two guide bars 60a and 60b so as to be movable up and down.

  The cutter holder 62 has a configuration in which a pen grip portion 66 having two nail claws is projected from one end side of the rear portion 64 attached to the guide rods 60a and 60b toward the front surface. The engagement piece 68 and the engagement piece 70 protruding from the rear end of one end of the carriage base 58 are pulled upward by a coil spring 72.

  Reference numeral 74 denotes an actuator which is disposed on the other end side of the bottom of the carriage base 58 and connects the upper moving portion 74a to the rear portion 64 of the cutter holder 62. By actuating, the coil spring 72 is contracted and the cutter holder 62 can be moved up and down, and the coil spring 72 can be extended to move the cutter holder 62 downward.

  Furthermore, the code | symbol 76 is the cutter hold | maintained at the holding part 66 of the cutter holder 62, The cutter blade 76a is mounted | worn so that replacement | exchange is possible at the front-end | tip part.

  Reference numeral 78 denotes a height detector. By operating the actuator 74 from a state in which the cutter holder 62 is at the stop position, the cutter 76 is moved downward and the cutter blade 76a is applied to the surface of the sheet 22. Can be touched.

  Here, as the cutter blade 76a, there are a swivel knife method, a rotation method, and the like, and an ultrasonic cutter, a heat heat cutter, and the like can be used as well as a normal blade.

  In the stamping and cutting device 10, the moving speeds of the carriages 32 and 36 can be selected and set as appropriate.

Hereinafter, an example of an embodiment of the method for controlling the stamping and cutting operation in the stamping and cutting device 10 according to the present invention will be described in detail with reference to the block configuration explanatory diagrams shown in FIGS. 8 and 9 and the flowchart shown in FIG. Explained.

  That is, in this stamping and cutting device 10, the grid roller 30 is rotationally controlled by the X motor 80, and the sheet 22 held between the pinch roller 24 and the grid roller 30 is moved along the upper surface of the base 28. While moving in the X direction, the carriage 36 on which the cutting head 20 is installed is moved in the Y direction along the guide rail 26 by the Y motor 82.

  The carriage 36 is provided with an actuator 74 that raises / lowers the carriage 36 in the Z direction.

  The overall operation of the engraving and cutting apparatus 10 is controlled by various data including image data processed and output from the microcomputer 86 upon receiving various data including image data from the host computer 84. It is configured as follows.

  When a desired stamped image is created on the sheet 22, the magnet 40 and the magnet 42 are attracted to each other, and the carriage 32 on which the stamping head 18 is installed is connected to the carriage 36 on which the cutting head 20 is installed. The carriage 32 on which the cutting head 18 is installed is controlled to move integrally with the carriage 36 on which the cutting head 20 is installed.

  On the other hand, when the cutting image generated by the cutting head 18 is cut out to a desired shape by the cutting head 20, the hook 44 of the carriage 32 on which the cutting head 18 is installed is cut into the side of the cutting and cutting device 10. The engagement hook 46 fixed on the frame 12R side is engaged, the magnet 40 and the magnet 42 are pulled apart, the carriage 32 having the cutting head 18 is separated from the carriage 36 having the cutting head 20 installed, and the cutting head 20 is moved. Only the installed carriage 36 can be controlled to move.

  The microcomputer 86 includes a central processing unit (CPU) 88a, a read only memory (ROM) 88b storing a program executed by the CPU 88a, a buffer memory for temporarily storing data from the host computer 84, and a program executed by the CPU 88a. It comprises a random access memory (RAM) 88c as a working area in which various registers necessary for execution are set.

  Further, the CPU 88a has drivers 90a, 90b, and 90c that respectively perform on / off control of the X motor 80, the Y motor 82, and the actuator 74 via a bus, and a driver 90d that drives the solenoid 52 of the marking head 18. A switch for turning on / off the power and an operation panel 16 on which various operation keys are arranged are connected.

In the embodiment of the control method described above, the case where stepping motors are used as the X motor 80 and the Y motor 82 has been described, but it is needless to say that servo motors can also be used.

  In this case, as shown in FIG. 9, encoders 94a and 94b are connected to the X motor 80 and the Y motor 82, respectively, so that the states of the X motor 80 and the Y motor 82 can be detected at all times. Is always stored in the RAM 88c via the CPU 88a so as to be readable.

  These encoders 94a and 94b can always detect the states of the X motor 80 and the Y motor 82 regardless of whether the X motor 80 and the Y motor 82 are on or off.

In the above configuration, the operation of the stamping and cutting apparatus 10 according to the present invention will be described with reference to the flowchart shown in FIG. 10. The magnet 40 and the magnet 42 are attracted to the carriage 36 on which the cutting head 20 is installed. When the user is instructed to start the stamping and cutting operation in the stamping and cutting device 10 in a state where the carriage 32 provided with the stamping head 18 is connected, the microcomputer 86 starts from the image data to the image. Luminance data is read and acquired as stamped data, and the stamping process is performed on the sheet 22 by the stamping head 18 based on the acquired image brightness data (step S1002).

  More specifically, the image luminance data, which is stamp data acquired from the image data, is output to the drivers 90a, 90b, 90c, 90d, and the drivers 90a, 90b, 90c, 90d are controlled according to the image luminance data to control the X motor 80. The Y motor 82, the actuator 74 and the solenoid 52 are driven, and a desired stamped image is created on the surface of the sheet 22 by the stamping head 18.

  When the processing in step S1002 is completed, that is, when all the image luminance data is read and the creation of the stamped image is completed, the process proceeds to step S1004, and the microcomputer 86 performs the punching from the carriage 36 in which the cutting head 20 is installed. The carriage 32 provided with the engraving head 18 is separated, the vector data is read and acquired as cutting data from the image data, the sheet 22 is cut by the cutting head 20 based on the acquired vector data, and all the vector data is read. When the cutting of the sheet 22 is completed, the stamping and cutting device 10 ends its operation.

  More specifically, when the image brightness data is completely read out and the creation of the stamped image is completed, the hook 44 of the carriage 32 of the stamping head 18 is engaged with the engagement hook 46 of the side frame 12R of the stamping and cutting device 10. Thus, the carriage 32 of the marking head 18 is fixed to the side frame 12R. Thereafter, the carriage 36 on which the cutting head 20 is installed is moved leftward in FIGS. 1 to 3, the magnet 40 and the magnet 42 are separated, and the carriage 36 on which the cutting head 18 is installed from the carriage 36 on which the cutting head 20 is installed. 34 is separated. Then, vector data is sequentially read and acquired from the image data as cutting data, vector data as cutting data acquired from the image data is output to the drivers 90a, 90b, and 90c, and the drivers 90a, 90b, and 90c are controlled according to the vector data. Then, the X motor 80, the Y motor 82 and the actuator 74 are driven, and the sheet 22 is cut by the cutter 76 held by the cutting head 20. When all the vector data is read and the cutting of the sheet 22 is completed, the stamping and cutting apparatus 10 ends the operation.

As described above, according to an example of the embodiment of the present invention, the stamping head 18 for creating a stamped image and the contour of the stamped image are cut out on one guide rail 26 of the stamping and clipping device 10. The cutting head 20 is mounted, and the stamping head 18 and the cutting head 20 are configured to be moved and controlled by the same driving device.

  When a desired stamped image is created based on image data from the host computer 84, the cutting head 20 is moved by connecting the cutting head 20 and the stamping head 18 and moving the cutting head 20. A stamped image can be created by moving together.

  Further, when performing the cutting operation of the stamped image based on the image data, the stamping head 18 is separated from the cutting head 20 and fixed to the side frame 12R at the end of the guide rail 26, and only the cutting head 20 is driven. The contour of the stamped image can be cut out.

  Then, as the order of the process of creating the stamped image and the cutting process such as the contour of the stamped image, the cutting boundary on the sheet 22 fluctuates because the cut process is performed after the stamped image is created. Without rising, the sheet 22 can be maintained in a flat and beautiful state.

The above-described embodiment described above may be modified as described in the following (1) to (9).

  (1) In the above-described embodiment, image luminance data is used as the marking data. However, the present invention is not limited to this. For example, image density data, color data, etc. are used as the marking data. May be used.

  (2) In the above-described embodiment, vector data is used as cutting data. However, the present invention is not limited to this. For example, raster data may be used as cutting data.

  (3) In the above-described embodiment, the image data includes at least image luminance data and vector data. However, the present invention is not limited to this. For example, from raster data The image brightness data obtained from the raster data may be used as the stamp data, and the vector data obtained by converting the raster data may be used as the cutting data.

  Further, the image data is configured so that the raster data and the vector data are superposed, the image luminance data obtained from the raster data is used as the stamp data, and the vector data is used as the cutting data. Also good.

  (4) In the embodiment described above, when all the image luminance data is read and the creation of the stamped image is completed, the hook 44 of the carriage 32 of the stamping head 18 is stamped and the side frame 12R of the cutting device 10 is engaged. The process of engaging the engagement hook 46 and fixing the carriage 32 of the embossing head 18 to the side frame 12R is automatically performed. However, the present invention is not limited to this. When all of the luminance data is read and the creation of the stamped image is completed, the user manually engages the hook 44 of the carriage 32 of the stamping head 18 with the engagement hook 46 of the side frame 12R of the stamping and cutting device 10, The carriage 32 of the marking head 18 may be fixed to the side frame 12R. Further, when the user manually configures the hooks 44 of the carriage 32 of the stamping head 18 to be engaged with the engaging hooks 46 of the side frame 12R of the cutting device 10, all the image luminance data are read out. When the creation of the stamped image is completed, the lamp may blink to notify the user of the completion of the stamped image creation.

  (5) In the above-described embodiment, the embossing head 18 installed on the carriage 32 and the cutting head 20 installed on the carriage 36 are configured to be separable. However, the present invention is not limited to this. It is. For example, as shown in FIG. 11, the embossing head 18 and the cutting head 20 are respectively installed on a carriage 37 that is slidably mounted on the guide rail 26 via guide rollers 35 and 35. The cutting head 18 and the cutting head 20 may be configured to always move integrally.

  In the case of the configuration as shown in FIG. 11 described above, since it is not necessary to provide the connecting means and the locking means, the configuration is simplified and the number of components is reduced, so that the manufacturing cost can be reduced.

  (6) In the above embodiment, the cutting head 20 installed on the carriage 36 is configured to hold the cutter holder 62 (see FIG. 5). However, the present invention is not limited to this. . For example, the cutter holder 62 may be changed to a pen holder, and an image creation pen such as an ink pen, a sign pen, a ballpoint pen, or a pencil may be gripped to create an image based on a signal of image data.

  (7) In the above embodiment, the connecting means is constituted by the magnet 40 and the magnet 42, and the locking means is constituted by the hook 44 and the engaging hook 46. Of course, the structure of the stopping means is not limited to the above, and these structures can be appropriately changed. For example, the configuration described in Japanese Patent No. 3333312 and Japanese Patent No. 3645012 related to the application of the applicant of the present application, or the configuration shown in FIGS. More specifically, it is configured by two magnets 100-1 and 100-2 that adsorb each other as shown in FIG. 12A, as in the above-described embodiment, or in the magnet 102-1 shown in FIG. A first member 104-1 configured by the sheet metal member 102-2 to be adsorbed, or provided with a protrusion movable along the height direction shown in FIG. 12C, and the protrusion of the first member 104-1 The engagement hook 106-2 is configured by the second member 104-2 having a hole portion into which the hook can be inserted, or is engaged with the hook 106-1 shown in FIG. 12D similar to the above-described embodiment. The engaging portion 108-1 provided with a pin that can move in accordance with the movement of the slider shown in FIG. 12E and the pin of the engaging portion 108-1 are guided and moved to engage with each other. Even with the engaged portion 108-2 having a groove to be There. In addition, when comprising a connection means and a latching means with a magnet, you may make it comprise with a permanent magnet, and you may make it comprise with an electromagnet.

  (8) In the above-described embodiment, the stamping head 18 and the cutting head 20 are moved in the main scanning direction, and the sheet 22 is moved in the sub-scanning direction. However, the present invention is not limited to this. Of course, for example, the sheet 22 may be configured as a so-called flat bed type in which the cutting head 18 and the cutting head 20 move in the main scanning direction and the sub-scanning direction without being conveyed.

  (9) You may make it combine the above-mentioned embodiment and the modification shown in said (1)-(8) suitably.

  The present invention can cut out a stamped image created by stamping while simplifying the configuration and reducing costs. For example, the present invention is suitable for cutting out many types of stamped images little by little. It is suitable for use when producing cut-out stamped images of varieties.

FIG. 1 is an external perspective view schematically illustrating the configuration of a stamping and cutting apparatus according to an embodiment of the present invention. FIG. 2 is a schematic front view showing a coupling state of the stamping head and the cutting head of the stamping and cutting apparatus shown in FIG. FIG. 3 is a schematic front view showing a separation state of the stamping head and the cutting head of the stamping and cutting apparatus shown in FIG. FIG. 4 is an explanatory perspective view of the main part of the marking head. FIG. 5 is a schematic front view of the cutting head of the stamping and cutting device shown in FIG. FIG. 6 is a schematic side view of the cutting head of the stamping and cutting device shown in FIG. FIG. 7 is a schematic plan view of the cutting head of the stamping and cutting device shown in FIG. FIG. 8 is a block diagram for explaining an example of a method for controlling the embossing and clipping device shown in FIG. FIG. 9 is a block diagram illustrating another method of controlling the stamping and cutting device shown in FIG. FIG. 10 is a flowchart showing an example of a method for controlling the embossing and cutting device shown in FIG. FIG. 11 is a schematic front view corresponding to FIGS. 2 and 3 showing a stamping head and a cutting head in another embodiment of the stamping and cutting apparatus according to the present invention. 12 (a) to 12 (e) are explanatory views showing a configuration example of the connecting portion and the locking portion.

Explanation of symbols

DESCRIPTION OF SYMBOLS 10 Stamping and cutting-out device 12L, 12R Side frame 16 Operation panel 18 Stamping head 20 Cutting head 22 Sheet 24 Pinch roller 26 Guide rail 30 Grid roller 32 Carriage 34 Guide roller 36 Carriage 38 Guide roller 40 Magnet 42 Magnet 44 Hook 46 Engagement Joint hook 48 Processing tool 52 Solenoid 54 Plunger 60a, 60b Guide rod 62 Cutter holder 66 Pen gripping part 72 Coil spring 74 Actuator 76 Cutter 76a Cutter blade 78 Height detector 80 X motor 82 Y motor 84 Host computer 86 Microcomputer 88a Central processing Device (CPU)
88b Read only memory (ROM)
88c Random access memory (RAM)
90a, 90b, 90c, 90d Driver 94a, 94b Encoder

Claims (4)

A stamping head for creating a stamped image on the workpiece surface of the workpiece based on the stamped data acquired from the image data;
A cutting head for cutting out the workpiece based on cutting data acquired from image data;
After completing the process of creating a stamped image on the processing surface of the workpiece by the stamping head based on the stamping data acquired from the image data, the cutting head based on the cutting data acquired from the image data A stamping and cutting device, comprising: a control unit that controls the stamping head and the cutting head so as to perform a process of cutting a workpiece. A stamping head that is supported so as to be movable relative to the workpiece and creates a stamped image on the workpiece surface of the workpiece based on the stamped data acquired from the image data;
A cutting head supported so as to be movable relative to the workpiece and cutting the workpiece based on cutting data acquired from image data;
Support means for supporting the stamping head and the cutting head so as to be movable relative to the workpiece;
A coupling means for detachably coupling the embossing head and the cutting head;
Locking means for locking the punching head to a fixed system part so as to be freely disengaged;
Moving means for moving the cutting head relative to the workpiece;
After completing the process of creating a stamped image on the processing surface of the workpiece by the stamping head based on the stamping data acquired from the image data, the cutting head based on the cutting data acquired from the image data Control means for controlling the cutting head and the cutting head so as to perform a process of cutting out a workpiece;
When creating a stamped image on the workpiece surface of the workpiece based on the stamping data, the locking means disengages the stamping head from the fixed part and the connecting means Connecting the cutting head and the cutting head,
When cutting out the workpiece based on the cutting data, the locking means engages the stamping head with the fixed system part, and the connecting means includes the stamping head, the cutting head, A cutting and cutting device characterized by separating. The stamping and cutting device according to claim 2,
The connecting means is constituted by a magnet. The stamping and cutting device according to claim 3,
The engraving and cutting device according to claim 1, wherein an attracting force of the magnet is smaller than an engaging force of the locking means.

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