JP5740921B2 - Laser processing equipment, laser processing system - Google Patents

Description

  The present invention relates to a laser processing apparatus and a laser processing system that perform laser processing on processed paper.

Conventionally, in order to perform processing or marking with a laser beam (laser beam) on paper fed in the feeding direction, a mirror such as a galvano is used, and the irradiation direction of the laser beam in the feeding direction and the direction orthogonal thereto. There is a scanner system that laser-processes a processing area by shaking (for example, Patent Document 1).
However, since this scanner system uses a mirror to oscillate one laser beam in the feed direction and the direction perpendicular thereto, it is difficult to process or mark the flowing workpiece at high speed. . Further, since the dancer roller is provided to stop the paper in the processing area, the processing efficiency is poor.
On the other hand, unlike the scanner method, there is a fixed head method in which laser light is output only at a fixed point by a fixed laser head.
However, this fixed head method is limited to a narrow processing area, and cannot cope with a large and complicated processing shape.

JP-A-11-192574

  An object of the present invention is to provide a laser processing apparatus and a laser processing system capable of performing laser processing on a processing sheet being fed at high speed even with a complicated processing shape.

  The present invention solves the problems by the following means. In addition, in order to make an understanding easy, although the code | symbol corresponding to embodiment of this invention is attached | subjected and demonstrated, it is not limited to this. In addition, the configuration described with reference numerals may be improved as appropriate, or at least a part thereof may be replaced with another configuration.

According to a first aspect of the present invention, a paper feed unit (21, 22) that feeds processed paper in the feed direction and laser irradiation of the processed paper, each irradiation position on the processed paper is orthogonal to the feed direction. A plurality of laser irradiation units (37-1 to 37-16, 237A-1 to 237A-8, 237B-1 to 237B-8) provided so as to be arranged in the direction to be operated, and the laser irradiation units respectively And a laser control unit (40) that collectively controls whether or not laser irradiation is performed.
According to a second aspect of the present invention, in the laser processing apparatus according to the first aspect of the present invention, the laser control unit (40) corresponds to a position in the feed direction of the processed paper fed by the paper feed unit. Then, each of the laser irradiation units (37-1 to 37-16, 237A-1 to 237A-8, 237B-1 to 237B-8) is controlled to laser process the processed shape on the processed paper. The laser processing apparatus characterized by these.
According to a third aspect of the present invention, in the laser processing apparatus of the first or second aspect, the laser oscillator (31) that emits laser light and the laser light emitted by the laser oscillator are used as the plurality of laser irradiation units (37-1). To 37-16, 237A-1 to 237A-8, 237B-1 to 237B-8), and a laser branching portion (35) that branches to distribute the laser processing device.
According to a fourth aspect of the present invention, in the laser processing apparatus according to the third aspect of the present invention, the laser beam branched by the laser branching section (35) is converted into the laser irradiation sections (37-1 to 37-16, 237A-1 to 237A- And a plurality of optical fibers (36-1 to 36-16) led to 8,237B-1 to 237B-8).
According to a fifth aspect of the present invention, in the laser processing apparatus according to any one of the first to fourth aspects, the laser irradiation units (37-1 to 37-16, 237A-1 to 237A-8, 237B-1 to 237B- 8) is a laser processing apparatus characterized by irradiating laser light having an infinite focal length.
A sixth invention is the laser processing apparatus according to any one of the first to fifth inventions, wherein each of the laser irradiation sections (37-1 to 37-16, 237A-1 to 237A-8, 237B-1 to 237B). -8) is a laser processing apparatus including a shutter unit (38, 238A, 238B) that switches between shielding and passing of the laser light irradiated by each laser irradiation unit.
According to an eighth aspect of the present invention, in the laser processing apparatus according to any one of the first to sixth aspects, the two laser irradiation units (237A-1 to 237A-8, 237B-1) that perform laser irradiation to adjacent laser irradiation positions. ˜237B-8) are laser processing apparatuses characterized in that they are arranged at different positions when viewed from a direction orthogonal to the feed direction.

  A ninth aspect of the invention is a laser processing system comprising: the laser processing apparatus according to any one of the first to seventh aspects of the invention; and a printing apparatus that performs printing on the processed paper while flowing the processed paper in the feed direction. It is.

According to the present invention, the following effects can be obtained.
(1) In the present invention, since the laser control unit collectively controls the plurality of laser irradiation units, it is possible to simultaneously irradiate the processing sheet with the laser in the direction orthogonal to the feed direction (width direction). Thereby, even if it is a complicated process shape, it is not necessary to shake the irradiation direction of a laser irradiation part, and it can laser-process at high speed.
(2) According to the present invention, the complex shape described above can be laser processed by controlling each laser irradiation unit corresponding to the position in the feed direction of the processed paper. In addition, when the processed paper is processed into a booklet shape or the like in a later process, if the processed shape stored in the storage unit is processed in advance so as to be variable every page and laser processed, It can also be used for booklet processing.

(3) In the present invention, since the laser beam emitted from the laser oscillator is branched and guided to a plurality of laser irradiation units, laser irradiation can be performed from a plurality of laser irradiation units per laser oscillator, so the number of laser oscillators is reduced. The structure can be simplified. In addition, the laser irradiation unit can be reduced in size. Furthermore, laser processing can be performed in a wider area by providing a plurality of laser oscillators or increasing the number of laser branch portions and the number of laser irradiation portions.
(4) Since the present invention includes an optical fiber that guides the branched laser light to each laser irradiation unit, the structure for guiding the branched laser light from the laser branching unit to each laser irradiation unit can be simplified.

(5) Since the present invention irradiates laser light whose focal length is converted to infinity, it can be processed even if the distance between the laser irradiation unit and the processing paper is slightly shifted. For this reason, since the adjustment work of this distance is easy, work efficiency can be improved. In addition, since a high-definition adjustment mechanism is not required, the structure can be simplified and the cost can be reduced.
(6) Since the present invention includes a shutter unit that switches between shielding and passing the laser beam irradiated by the laser irradiation unit, switching of whether or not to perform laser irradiation can be switched by the shutter unit.
(7) In the present invention, since two laser irradiation units that irradiate laser beams to adjacent laser irradiation positions are arranged at different positions when viewed from a direction orthogonal to the feeding direction, each laser irradiation unit The installation space can be increased, and laser processing can be performed with higher precision.

It is a figure explaining the structure of the inline form processing system 1 of 1st Embodiment. It is a three-view figure explaining the structure of the laser processing part 30 of 1st Embodiment. It is a flowchart explaining the marking process of 1st Embodiment. It is a top view explaining the marking process by the process control part 40 of 1st Embodiment. It is a three-view figure of the laser processing part 230 of 2nd Embodiment.

(First embodiment)
Hereinafter, a first embodiment of the present invention will be described with reference to the drawings and the like.
FIG. 1 is a diagram illustrating a configuration of an inline form processing system 1 according to the first embodiment.
The inline form processing system 1 (laser processing system) includes a feed roller 2, a take-up roller 3, a management server 10, a laser processing device 20, and a printer 50 (printing device).
The feed roller 2 is a roller around which a processed paper W (work) before being processed is wound, and is provided on the upstream side X1 in the feed direction X.
The take-up roller 3 is a roller that takes up the processed paper W after processing, and is provided on the downstream side X2 in the feed direction X.

The management server 10 includes a server storage unit 11 and a server control unit 12.
The server storage unit 11 is a storage device such as a hard disk or a semiconductor memory element for storing programs, information, and the like necessary for the operation of the management server 10. The server storage unit 11 includes a processed data storage unit 11a and a print data storage unit 11b.
The machining data storage unit 11 a is a storage area that stores a machining shape to be machined by the laser machining apparatus 20.
The print data storage unit 11b is a storage area for storing print contents to be printed by the printer 50.

  The server control unit 12 is a control unit that controls the management server 10 in an integrated manner, and includes, for example, a CPU (Central Processing Unit). The server control unit 12 reads out and executes various programs stored in the server storage unit 11 as appropriate, thereby realizing various functions according to the present invention in cooperation with the hardware described above. The server control unit 12 transmits information of the processing data storage unit 11a and the print data storage unit 11b to the laser processing apparatus 20 and the printer 50.

The laser processing device 20 is a device that performs laser processing on the processed paper W.
The laser processing apparatus 20 includes rollers 21 and 22 (paper feeding unit), a laser processing unit 30, and a processing control unit 40 (laser control unit).
The rollers 21 and 22 are rollers for feeding the processed paper W to the downstream side X2.

The laser processing unit 30 is a device that emits a laser beam L to the processing paper W sent by the rollers 21 and 22. The configuration of the laser processing unit 30 will be described later.
The processing control unit 40 is a control unit that controls the laser processing apparatus 20 in an integrated manner, and includes, for example, a CPU. The processing control unit 40 stores the processing data transmitted by the server control unit 12 in a storage device (not shown) of the laser processing device 20, and performs laser processing based on the processing data. The processing of the processing control unit 40 will be described later.

The printer 50 is a device that prints on the processed paper W that is connected to the downstream side X <b> 2 from the laser processing device 20 and processed by the laser processing unit 30. The printer 50 includes printer driving rollers 51 and 52, an inkjet head 53, and a printer control unit 55.
The printer driving rollers 51 and 52 are devices that feed the processed paper W in the feeding direction X inside the printer 50. The printer driving roller 51 is disposed on the upstream side X1 in the printer 50, and the printer driving roller 52 is disposed on the downstream side X2.
The ink jet head 53 is a device that prints by ejecting ink onto the processed paper W by an ink jet method.
The printer control unit 55 is a control unit that comprehensively controls the printer 50. The printer control unit 55 receives the print data from the management server 10 and controls the printer driving roller and the inkjet head 53 based on the print data to print on the processed paper W.

  In addition, although the example in which the printer 50 is provided on the downstream side X2 from the laser processing unit 30 has been described, the printer 50 may be provided on the upstream side X1 from the laser processing unit 30. In this case, the laser processing apparatus 20 performs laser processing on the processing paper W printed by the printer 50.

FIG. 2 is a three-view diagram illustrating the configuration of the laser processing unit 30 of the first embodiment.
FIG. 2A is a top view (a view of the surface of the processed paper W viewed from the normal direction).
FIG. 2B is a left side view (a view seen from the downstream side X2 shown in FIG. 2A).
FIG.2 (c) is the figure seen from the near side Y1 of the width direction Y shown to Fig.2 (a).
The laser processing unit 30 includes a laser oscillator 31, an infinite focus lens 32, prisms 33 and 34, a splitter 35 (laser branching unit), 16 optical fibers 36-1 to 36-16, and 16 laser heads 37-1 to 37-1. 37-16 (laser irradiation part) is provided.
The laser oscillator 31 is a device that serves as a light source of laser light, and includes, for example, a semiconductor that emits laser light.
The infinite focus lens 32 is a lens that converts the laser light emitted from the laser oscillator 31 into an infinite focal length.
The prisms 33 and 34 are members that guide the laser light that has passed through the infinite focus lens 32 to the splitter 35.

The splitter 35 is a member that branches to distribute the laser light guided by the prisms 33 and 34 to the 16 laser heads 37-1 to 37-16. Thus, the laser processing unit 30 is low in cost because only one laser oscillator 31 is required.
The optical fibers 36-1 to 36-16 are members that guide the laser light branched by the splitter 35 to the laser heads 37-1 to 37-16. By using the optical fibers 36-1 to 36-16, the laser processing unit 30 can simplify the structure leading from the splitter 35 to the laser heads 37-1 to 37-16.

  The laser heads 37-1 to 37-16 are devices that irradiate the processing paper W sent by the rollers 21 and 22 with the laser light L. The laser heads 37-1 to 37-16 irradiate the processing paper W with the laser light guided by the optical fibers 36-1 to 36-16. Thus, since the laser processing unit 30 does not include a semiconductor that emits laser light or a focus lens in the laser heads 37-1 to 37-16 itself, the laser heads 37-1 to 37-16 can be reduced in size. Accordingly, the adjacent laser heads 37-1 to 37-16 can reduce the interval in the width direction Y, and therefore can perform laser processing with high definition.

The laser heads 37-1 to 37-16 are arranged in a line in the width direction Y. Further, the irradiation positions 37-1a to 37-16a on the processed paper W of the laser heads 37-1 to 37-16 are located on a line parallel to the width direction Y and are equally spaced. Hereinafter, a line connecting the irradiation positions 37-1a to 37-16a is referred to as a processing line 37b.
In this embodiment, an example in which 16 laser heads 37-1 to 37-16 are provided will be described. However, by increasing the number of laser heads and arranging them at a higher density, a higher density can be achieved. Fine laser processing.

  Further, since the laser heads 37-1 to 37-16 irradiate laser light whose focal length is converted to infinity, even if the distance d1 between the laser heads 37-1 to 37-16 and the processing paper W is slightly shifted. Can be processed. For this reason, since the laser processing unit 30 can easily adjust the distance d1 between the laser heads 37-1 to 37-16 and the processed paper W, work efficiency can be improved. Further, since a high-definition adjustment mechanism is not required, the structure can be simplified and the cost can be reduced.

The laser heads 37-1 to 37-16 include a shutter unit 38.
The shutter unit 38 is a device that independently switches between shielding and passing the laser beam irradiated by the laser heads 37-1 to 37-16. The shutter unit 38 is, for example, a light valve that uses liquid crystal, and can switch between shielding and passing the laser beams of the laser heads 37-1 to 37-16 independently with a single device. The shutter unit 38 may use a mechanism that mechanically drives and opens and closes the shielding plate.

Next, the operation of the inline form processing system 1 will be described.
In the following description, the marking process of the laser processing apparatus 20 will be described. However, a printing process step by the printer 50 is included after the marking process step. Description of the printing process is omitted.
FIG. 3 is a flowchart illustrating the marking process according to the first embodiment.
FIG. 4 is a top view illustrating the marking process performed by the processing control unit 40 according to the first embodiment.
Here, an example of marking the character “I” will be described. In order to make the explanation easy to understand in the figure, a region corresponding to the mark “I” is indicated by a dotted line 60, but this dotted line 60 is not actually marked.
In S1, when the marking process is started, the processing control unit 40 controls the rollers 21 and 22 so that the processing paper W is fed in the feeding direction X at a constant speed.

In S <b> 2, the processing control unit 40 determines whether or not there is an overlapping region of the processing line 37 b and the mark “I”. For example, the machining control unit 40 performs this determination as follows.
(1) Based on the processing data of the mark “I”, the coordinate in the feed direction X and the coordinate in the width direction Y of the mark “I” on the processed paper W are calculated.
(2) Position information in the feed direction X of the processed paper W is determined based on the output of an encoder provided in the rollers 21 and 22 and the pulse signal of a pulse motor that drives the rollers 21 and 22.
(3) Based on the coordinate information calculated in (1) above and the position information in the feed direction X determined in (2) above, there is an overlapping area of the machining line 37b and the mark “I” in the width direction Y. It is determined whether or not to do.
Thereby, the processing control unit 40 can determine whether or not there is an overlapping region corresponding to the speed in the feeding direction X of the processing paper W sent by the rollers 21 and 22.
For example, FIG. 4A shows a scene in which the left end of the mark “I” overlaps with the processing line 37b to form an overlapping region.
If the processing control unit 40 determines that there is an overlapping region of the processing line 37b and the mark “I” (S2: YES), the processing control unit 40 proceeds to S3, whereas if it determines that there is no overlapping region (S2). : NO), the process proceeds to S5.

In S <b> 3, the processing control unit 40 determines which of the laser heads 37-1 to 37-16 is the irradiation position of the overlapping region of the processing line 37 b and the mark “I”.
In S4, the processing control unit 40 drives the shutter unit 38 to open, and performs laser marking from the laser heads 37-1 to 37-16 determined in S3.
FIG. 4A shows a scene in which the processing control unit 40 determines that the laser head 37-10 irradiates the left end of the mark “I” with the laser (S3) and irradiates the laser (S4).

  In S <b> 5, the processing control unit 40 determines whether or not the marking process of the mark “I” has been completed based on the position information of the processing paper W in the feeding direction X. When it is determined that the marking process has been completed (S5: YES), the processing control unit 40 proceeds to S6 to end the marking process, and when it is determined that the marking process has not been completed (S5). : NO), the process from S1 is repeated.

FIG. 4B is a scene in which the next overlapping region is irradiated with laser at the left end of the mark “I” in repeated S1 to S4.
FIG. 4C shows a plurality of laser heads 37-1 to 37-16 in which the processing control unit 40 irradiates the overlapping area of the processing line 37 b and the mark “I” in repeated S 1 to S 4. Then, it is determined (S3), and it is a scene irradiated with laser (S4). In this scene, laser irradiation is simultaneously performed from the laser heads 37-7 to 37-16 provided continuously and the laser head 37-5 arranged separately from these.
In this way, the processing control unit 40 controls whether or not laser irradiation is performed from each of the laser heads 37-1 to 37-16 independently and collectively, so that the processing paper W being sent is complicated. Since it is not necessary to stop the feeding of the processed paper W, laser processing can be performed at high speed.

  In contrast to this, in the case of a configuration in which the position of the laser head is moved or rotated, the laser irradiation direction is made to follow the processing paper W being fed, so that the feed speed of the processing paper W according to the followability Or the feeding of the processed paper W must be stopped. For this reason, in such a structure, there exists a problem that processing efficiency falls. Since the laser processing apparatus 20 of this embodiment can simultaneously irradiate the laser on the processing line 37b, this problem can be solved.

  Finally, FIG. 4D is a scene in which the overlapping region at the right end of the mark “I” is irradiated with laser in the repeated S1 to S4. When the laser irradiation is finished, the processing control unit 40 ends the mark “I”. Is determined to have been completed (S5: YES), and the marking process is terminated (S6).

  As described above, the inline form processing system 1 according to the present embodiment can perform laser processing of a complex processing shape on the processing paper W being fed at high speed.

(Second Embodiment)
Next, a second embodiment of the laser processing system to which the present invention is applied will be described.
Note that, in the following description and drawings, the same reference numerals or the same reference numerals are given to the portions that perform the same functions as those in the first embodiment described above, and overlapping descriptions will be omitted as appropriate. The laser processing unit 230 of the second embodiment is provided in an inline form processing system and a laser processing apparatus similar to those of the first embodiment, but illustration and description thereof are omitted.
FIG. 5 is a three-side view of the laser processing unit 230 of the second embodiment.
FIG. 5A is a top view (a view of the surface of the processed paper W viewed from the normal direction).
FIG. 5B is a left side view (viewed from the downstream side X2 shown in FIG. 5A).
FIG.5 (c) is the figure seen from the near side Y1 of the width direction Y shown to Fig.5 (a).
The laser processing unit 230 includes laser heads 237A-1 to 237A-8 arranged in one row in the width direction and laser heads 237B-1 to 237B-8 arranged in one row in the width direction. Laser irradiation of the laser heads 237A-1 to 237A-8 is controlled by the shutter unit 238A, and laser irradiation of the laser heads 237B-1 to 237B-8 is controlled by the shutter unit 238B.

The laser heads 237A-1 to 237A-8 are arranged on the upstream side X1 from the processing line 237b, and the laser irradiation direction is inclined from the lower side Z1 to the downstream side X2 (see angle θA).
The laser heads 237B-1 to 237B-8 are disposed on the downstream side X2 from the processing line 237b, and the laser irradiation direction is inclined from the lower side Z1 to the upstream side X1 (see angle θB).
The irradiation positions 237A-1a to 237A-8a and 237B-1a to 237B-8a irradiated by the laser heads 237A-1 to 237A-8 and 237B-1 to 237B-8 are all on the same processing line 237b.
Although not shown, the laser light sources of the laser heads 237A-1 to 237A-8 and 237B-1 to 237B-8 may be one laser oscillator, or the laser heads 237A-1 to 237A-8. , 237B-1 to 237B-8 may be provided with a laser oscillator.

As described above, the laser processing unit 230 according to the present embodiment is configured so that the laser heads (for example, the irradiation positions 237A-1 and 237B-1) that irradiate the adjacent irradiation positions (for example, the irradiation positions 237A-1a and 237B-1a) As shown in FIG. 5C, when viewed from the width direction X, they are arranged at different positions, and laser irradiation is performed toward each irradiation position.
For this reason, since the space | interval of the laser head (for example, irradiation position 237A-1, 237A-2) arrange | positioned in the row can be enlarged, a large installation space is securable. Further, if this interval is narrowed to, for example, the first embodiment, laser processing can be performed with higher definition.

  Although the embodiments of the present invention have been described above, the present invention is not limited to the above-described embodiments, and various modifications and changes can be made as in the modifications described later, and these are also included in the present invention. Within the technical scope. In addition, the effects described in the embodiments are merely a list of the most preferable effects resulting from the present invention, and the effects of the present invention are not limited to those described in the embodiments. It should be noted that the above-described embodiment and modifications described later can be used in appropriate combination, but detailed description thereof is omitted.

(Deformation)
(1) In the embodiment, an example in which the rollers 21 and 22 feed the processed paper W at a constant feed speed is shown, but the present invention is not limited to this. For example, even when the feed rate is variable, the processing control unit 40 determines the position of the processing paper W, determines whether there is an overlapping region of the processing line 37b and the mark, and performs laser irradiation. Laser processing can be performed similarly to the embodiment.

(2) In the embodiment, the example in which the marking process is performed for only one character has been shown, but the present invention is not limited to this. For example, even if the processed shape of the processed data storage unit 11a is a continuous character, it can be dealt with by performing the mark king process continuously. In addition, when the processed paper is processed into a booklet or the like in a later process, the server control unit 12 processes the processing data that can be changed for each page in advance, and the processing control unit 40 By controlling the laser processing apparatus 20 based on the data after the data processing, it is possible to deal with processing such as a booklet.

(3) In the embodiment, the example in which the processing line is one row is shown, but the present invention is not limited to this. The processing line may be a plurality of rows. Thereby, processing speed can be improved rather than the case of one row. In this case, laser processing can be performed in a wider area by providing a plurality of laser oscillators or increasing the number of splitters and the number of laser heads.

(4) In the embodiment, the processing content has shown an example of marking a mark, but is not limited to this. The processing content may be any as long as it can be processed by laser irradiation, for example, perforation processing, perforation processing, and the like.

DESCRIPTION OF SYMBOLS 1 Inline form processing system 10 Management server 11a Processing data memory | storage part 20 Laser processing apparatus 21,22 Roller 30,230 Laser processing part 31 Laser oscillator 32 Infinite focus lens 35 Pretta 36-1 to 36-16 Optical fiber 37-1 to 37 -16, 237A-1 to 237A-8, 237B-1 to 237B-8 Laser head 38, 238A, 238B Shutter unit 40 Processing control unit 50 Printer

Claims (8)

A paper feed section for feeding processed paper in the feed direction;
A plurality of laser irradiation units provided so as to irradiate the processing paper with a laser and each irradiation position on the processing paper is arranged in a direction orthogonal to the feeding direction;
A storage unit for storing the machining shape;
A laser control unit that collectively controls whether or not each laser irradiation unit performs laser irradiation ,
The laser controller is
Whether or not the processing area corresponding to the processing shape of the storage unit and the processing line that is a line connecting the irradiation position of the laser irradiation unit overlap based on the position in the feeding direction of the processing paper fed by the paper feeding unit Determine
If it is determined that the overlap, the laser irradiation unit corresponding to the overlap region is controlled to laser process the processing shape on the processing paper;
A laser processing apparatus characterized by the above. In the laser processing apparatus of Claim 1,
When the laser control unit determines that there are two or more laser irradiation units corresponding to the overlapping region, the laser control unit controls two or more laser irradiation units to perform laser irradiation;
A laser processing apparatus characterized by the above. In the laser processing apparatus of Claim 1 or Claim 2,
A laser oscillator that emits laser light;
A laser branching part for branching the laser light emitted from the laser oscillator to be distributed to the plurality of laser irradiation parts,
A laser processing apparatus characterized by the above. In the laser processing apparatus of Claim 3,
Comprising a plurality of optical fibers for guiding the laser beam branched by the laser branching section to each laser irradiation section;
A laser processing apparatus characterized by the above. In the laser processing apparatus according to any one of claims 1 to 4,
The laser irradiation unit irradiates laser light having an infinite focal length;
A laser processing apparatus characterized by the above. In the laser processing apparatus according to any one of claims 1 to 5,
Each of the laser irradiation units includes a shutter unit that switches between shielding and passing of the laser light emitted by each of the laser irradiation units,
A laser processing apparatus characterized by the above. In the laser processing apparatus according to any one of claims 1 to 6,
Two laser irradiation units for laser irradiation to adjacent laser irradiation positions are:
When viewed from a direction orthogonal to the feed direction, arranged at different positions ,
The laser irradiation direction is different and the laser irradiation position is on the same processing line,
A laser processing apparatus characterized by the above. The laser processing apparatus according to any one of claims 1 to 7,
A printing device that is different from the laser processing device, is connected inline to the laser processing device, and prints the processed paper while flowing the processed paper in the feed direction;
A management device that is different from the laser processing device and the printing device, transmits processing data to the laser processing device, and transmits print data to the printing device;
A laser processing system comprising:

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