JP4805778B2 - Packaging method and apparatus - Google Patents

Description

  The present invention relates to a packaging method and apparatus, and more particularly to a packaging method and apparatus for packaging a planographic printing plate bundle formed by laminating planographic printing plates with cardboard or the like.

  In recent plate making methods (including electrophotographic plate making methods), lithographic printing plates such as photosensitive printing plates and heat-sensitive printing plates are widely used in order to facilitate automation of the plate making process. A lithographic printing plate is generally subjected to surface treatment such as graining, anodic oxidation, silicate treatment, and other chemical conversion treatments on a support such as a sheet-like or coil-like aluminum plate alone or in combination, and then a photosensitive layer. Or it manufactures by cut | disconnecting to a desired size, after performing a heat-sensitive layer application | coating and a drying process. The manufactured lithographic printing plate is subjected to plate making processes such as exposure, development, and gumming, and is set in a printing machine. Then, ink is applied to the lithographic printing plate set in the printing machine, and this is transferred to print characters, images, etc. on the paper.

  By the way, the lithographic printing plates are laminated in the thickness direction after production, and the laminated bundle is packaged in an interior paper such as kraft paper, and then stored in an exterior box and handled. As described in Patent Document 1, the outer box is formed into a box shape having a double-sided opening surface by forming a ruled line (bending line) or a notch (notch) on a single cardboard and then bending it. It is formed. Since the outer box is manufactured by bending a single cardboard, a lithographic printing plate can be packaged at a low cost.

  When packaging many kinds of lithographic printing plate bundles having different sizes in such an outer box, the following two methods are conceivable. The first method is a method of preparing cardboard (packaging material) in which ruled lines and notches are previously formed for each type of lithographic printing plate. According to this method, a small package without waste corresponding to the product size can be formed, so that it can be efficiently transported. Moreover, since there is no useless gap in the packaging material, the packaging material after use can be processed with a small burden. However, since the corrugated cardboard must be prepared for each size of the lithographic printing plate, there are problems that the stock space of the corrugated cardboard is increased and the work of switching the corrugated cardboard accompanying the change of the type of the lithographic printing plate bundle is troublesome.

The second method is a method corresponding to the case by filling the inside with a filler such as a side rail so as to fill a gap with the lithographic printing plate bundle without changing the cardboard. According to this method, since the types of cardboard can be reduced, it is possible to easily manage the cardboard and change the cardboard when changing the type. However, since uselessly large cardboard is used, there is a problem that transportation efficiency is lowered and it takes time to discard the cardboard after transportation.
Japanese Patent Laid-Open No. 54-12996

  As described above, the conventional packaging method has problems such as an increase in the cardboard stock space and an increase in labor for switching due to the type change as the types of lithographic printing plate bundles increase, or a decrease in transportation efficiency. There has been a problem such as an increase in the amount of discarded cardboard.

  The present invention has been made in view of such circumstances, and when packaging products (such as lithographic printing plates) have a wide variety of sizes, while reducing waste of packaging materials (such as cardboard) and improving transportation efficiency, And it aims at providing the packaging method and apparatus which can perform the management and switching operation | work of a packaging material easily.

In order to achieve the above object, the present invention determines a size and a packaging pattern of the packaging material based on information on the packaged product in a packaging method for packaging a packaged product by bending a plate-shaped packaging material. The packaging material supply step of selecting and / or cutting and supplying the packaging material to fit the determined size, and folding the supplied packaging material based on the determined packaging pattern A packaging material processing step for forming a line and / or notch, and transporting and placing the packaged product at a predetermined position of the packaging material on which the fold line and / or notch is formed, and along the fold line and a packaging body forming step of forming a package of box-type by bending the packaging material Te, at least a portion of said packaged article information is input from a sensor which measures the size of the packaged article Is the fact characterized.

According to the present invention, the packaging material is selected based on the information (size, type, etc.) of the packaged product, and the packaging pattern (for example, the position of the fold line (ruled line) or notch, the size of the ear part or the side rail, etc.) is selected. Since the wrapping material is determined and processed, appropriate wrapping according to the size of the packaged product can be performed, and waste of the wrapping material can be minimized. Moreover, according to this invention, since the package body after packaging can be made as small as possible, transportation efficiency can be improved. Furthermore, according to this invention, the kind of packaging material to prepare can be reduced and the stock space of packaging material can be made small.

The present invention is characterized in that the packaged product is a lithographic printing plate bundle in which lithographic printing plates are laminated. Since the lithographic printing plate has a photosensitive layer and a heat-sensitive layer, it is necessary to prevent the lithographic printing plate bundle after packaging from moving inside the package. Since the present invention determines the size and packaging pattern of the packaging material based on the information of the lithographic printing plate bundle, it can be packaged so that the lithographic printing plate bundle after packaging does not move. Is suitable.

The present invention is characterized in that the packaging material is cardboard.

According to the present invention, since the information of the packaged product is input from the sensor, the size of the packaging material can be automatically changed when the size of the packaged product is changed.

The present invention is characterized in that an ear portion is formed by folding the packaging material to the side of the packaged product. Since this invention determines a packaging pattern for every packaged product, even if it is a case where an ear | edge part is formed, it can prevent that the kind of packaging material increases. That is, in the case of forming the ear portion, there is a problem that the number of types of packaging materials is further increased. However, the present invention can solve this problem.

The present invention is characterized in that in the packaging body forming step, a side rail member is provided on a side of the packaged product to form the packaging body. According to the present invention, since the side rail member is provided on the side of the packaged product, the types of packaging materials can be further reduced.

The present invention is characterized in that the side rail member is manufactured using chips generated when the packaging material is cut. According to the present invention, since the side rail member is formed using the chips cut from the packaging material, the cost can be reduced.

In order to achieve the above object, the present invention provides a packaging apparatus that wraps a packaged product by bending a plate-shaped packaging material, an input unit that inputs information about the packaged product, and a substrate that is input by the input unit. A control device that determines the size and packaging pattern of the packaging material according to information on the packaged product, and a packaging material supply device that selects and / or cuts and supplies the packaging material to match the determined size, A packaging material processing apparatus for processing a fold line and / or notch in the packaging material according to the determined packaging pattern, and the packaged product at a predetermined position of the packaging material in which the fold line and / or notch is processed. And a packaging body forming device that forms the box-shaped packaging body by bending the packaging material along the fold line, and the input means is a size of the packaged product. Measure Characterized in that it is a that sensor.

According to the present invention, the packaging material is selected based on the information (size, type, etc.) of the packaged product, the packaging pattern is determined, and the packaging material is processed. This can be done and waste of packaging material can be minimized. Moreover, since the package after packaging can be made as small as possible, the transport efficiency can be improved. Furthermore, according to this invention, since the kind of the packaging material to prepare can be reduced, the stock space of a packaging material can be made small.

  According to the present invention, since the packaging material is processed and packaged based on the information of the packaged product, appropriate packaging can be performed for each packaged product, and even when the types of packaged materials increase The waste of the packaging material can be minimized and the transport efficiency of the package can be improved.

  Hereinafter, preferred embodiments of a packaging method and apparatus according to the present invention will be described with reference to the accompanying drawings.

  FIG. 1 is a block diagram showing a schematic configuration of a packaging device 10 in the present embodiment, and FIG. 2 is a perspective view schematically showing a packaging state in order. Note that the reference numerals attached to the arrows in FIG. 2 correspond to the reference numerals attached to the respective process parts in FIG. 1 and mean that the process parts are processed.

  The packaging apparatus 10 wraps the lithographic printing plate bundle 12 (corresponding to a packaged product) by bending a sheet-like cardboard (corresponding to a packaging material) 14 shown in FIG. 2 to form a box-shaped packaging body 22. Device.

  As shown in FIG. 1, the packaging apparatus 10 mainly includes a control unit 20, a packaging material supply unit 30, a packaging material processing unit 40, a packaging body forming unit 50, a finishing unit 60, and a side rail unit 70. Among these process units, the packaging material supply unit 30, the packaging material processing unit 40, the packaging body forming unit 50, and the finishing unit 60 are arranged on one line.

  The control unit 20 is connected to the planographic printing plate bundle manufacturing apparatus 100, and information on the planographic printing plate bundle is input from the manufacturing apparatus 100. Here, the information of the lithographic printing plate bundle 12 includes the size of the lithographic printing plate bundle 12 (plane size and thickness), the type of the lithographic printing plate stored in the lithographic printing plate bundle 12, and the like. When this information is input, the control unit 20 obtains a size necessary for packaging the lithographic printing plate bundle 12 (hereinafter referred to as a necessary minimum size). Furthermore, the control unit 20 selects a cardboard having a size equal to or larger than the minimum required size and closest to the minimum required size among the plurality of types of cardboards 14 that are stocked. At the same time, the control unit 20 selects the most appropriate packaging pattern for the selected corrugated cardboard 14 (that is, the position of the ear ruled line L1, the flap ruled line L2, and the notch 14C described later, the presence / absence and size of the side rail 16, and the number of times the ear part 14A is bent). To decide. At that time, if the required minimum size and the size of the cardboard 14 are the same, the control unit 20 determines the packaging pattern as it is, and if the cardboard 14 is larger than the required minimum size, (1) a blank sheet of the cardboard 14 is placed. At least one method of cutting, (2) increasing the number of times and the area of bending of the later-described ear portion 14A, and (3) changing the position and size of the side rail 16 is selected. Thus, the size and packaging pattern of the cardboard 14 are determined.

  The packaging material supply unit 30 includes a selection unit 32 and a cut unit 34. The selection unit 32 is a device that selects and conveys the corrugated cardboard 14 having a size determined by the control unit 20 from a plurality of types of corrugated cardboard 14 stocked. For example, the blanking sheet of the corrugated cardboard 14 stacked vertically From the top surface, it is configured to supply one line at a time using a suction cup or the like. The cardboards 14 are stocked with different types of blank sheets and different types such as A flutes, B flutes, AB flutes, BC flutes, etc., and are selected from these. Also, packaging materials other than corrugated cardboard 14 (for example, cardboard with cushion material, coated cardboard, paper material such as chip ball, plastic material such as plastic cardboard and plastic sheet, wood material such as plywood, and metal material such as steel plate) Etc.) may be stocked and selected. Further, the selective conveyance of the packaging material is not limited to automatic, and may be performed manually, or a pallet on which a bundle of blank sheets of cardboard 14 is placed may be set in the supply unit. In the present embodiment, a plurality of types of packaging materials are stocked and selected from among them. You may respond by increasing an area or packing buffer materials, such as a side rail.

  The cardboard 14 selected by the selection unit 32 is sent to the cut unit 34. The cutting unit 34 is a device that cuts to the size as necessary (that is, when the control unit 20 determines that the cardboard 14 needs to be cut). The cutting method is not particularly limited. For example, a blank sheet of cardboard 14 is cut in the conveyance direction with a rotary slit, or the sheet is temporarily stopped and shear cut is performed in a direction perpendicular to the conveyance direction. Or the method of cutting between runs by the rotary share method without stopping the line is adopted. Moreover, it is not limited to the mechanical cutting method, You may make it perform the sublimation type cut by a laser, and the cut of the batch punching system by die-cutting. In the case of die cutting, it is necessary to prepare a die cutter of a required size, but it is possible to cope with all sizes by making the slit and cut positions variable.

  The cut of the cardboard 14 may be any of four side cut, three side cut, two side cut, and one side cut. That is, any cut position in FIGS. 3A to 3H may be selected. FIG. 3A is an example of cutting four sides of the cardboard 14, and FIGS. 3B and 3C are examples of cutting three sides of the cardboard 14, and FIG. 3D and FIG. e) and FIG. 3 (f) are examples in which two sides of the cardboard 14 are cut, and FIGS. 3 (g) and 3 (h) are examples in which one side of the cardboard 14 is cut. In these drawings, a two-dot chain line L indicates a cutting position, and reference numeral 14B indicates a portion that becomes a chip (end material) after cutting. It is preferable that the control unit 20 determines and selects which type in FIGS. 3A to 3H is to be cut for each lithographic printing plate bundle 12. In that case, it is preferable that the control part 20 determines a cutting position so that the chip 14B (end material) after cutting by the cutting part 34 can be utilized as the side rail 16 by the side rail part 70 mentioned later. When the control unit 20 determines that the cut is unnecessary, the cardboard 14 is not processed by the cut unit 34 and is conveyed to the next packaging material processing unit 40.

  The packaging material processing unit 40 includes a ruled line processing unit 42 and a notch processing unit 44. FIG. 4 is a perspective view showing an example of the ruled line processing section 42 and the notch processing section 44.

  The ruled line processing unit 42 is a process unit that processes a ruled line (folded line) on the corrugated cardboard 14. For example, the ruled line processing unit 42 processes the ear ruled line L1 with a rotary ruled line blade 90 and a receiving roller 92 as shown in FIG. The rotary ruled line blade 90 has a convex part 91 on the outer peripheral surface of the roller, and forms an ear ruled line L1 in the transport direction by pressing the convex part 91 against the cardboard 14 supported by the roller 92. The rotary ruled line blade 90 and the receiving roller 92 are supported so as to be movable in the width direction. Based on the position of the ear ruled line L1 determined by the control unit 20, the positions of the rotary ruled line blade 90 and the receiving roller 92 are changed in the width direction. Adjusted to. 4 has a press 94 and a cradle 95, and the press 94 and the cradle 95 form a flap crease line L2 in a direction orthogonal to the transport direction. The flap ruled line L2 may be processed by a rotary rotary press.

  The structures of the ear ruled lines L1 and the flap ruled lines L2 are not particularly limited as long as the cardboard 14 is easily bent. For example, the surface layer of the corrugated cardboard 14 is continuously or intermittently cut linearly or the corrugated cardboard 14 is crushed linearly.

  The ruled line processing unit 42 selects the type of blade according to the type of the corrugated cardboard 14, and adjusts the clearance between the blade and the receiving side, thereby adjusting the depth and shape of the ear ruled line L1 and the flap ruled line L2. It is preferable to adjust. Further, it is preferable that the ruled line processing portion 42 provides the accuracy of the folding position without causing the cardboard 14 to break by partially humidifying the cardboard 14.

  The cardboard 14 on which the ear ruled line L1 and the flap ruled line L2 are formed by the ruled line processing unit 42 is conveyed to the notch processing unit 44, and a notch (notch) 14C is formed. The configuration of the notched portion 44 is not particularly limited. For example, as shown in FIG. 4, a method of punching using die sets 96 and 96 having punching blades at the top and bottom is employed. In this case, the position of the notches 14C may be adjusted by adjusting the positions of the die sets 96, 96 in the width direction or changing the cutting timing in accordance with the packaging pattern determined by the control unit 20. In addition, as the notch processing part 44, you may make it cut | disconnect between runs by a notary system. Notch scraps 14D (see FIG. 2) generated in the notch processing section 44 are self-running out of the system by a conveying means such as a conveyor (not shown) or air.

  The packaging material supply unit 30 and the packaging material processing unit 40 preferably clean the paper dust generated in the process by a suction method and the like so as not to adhere to the cardboard 14.

  The corrugated board 14 in which the ear ruled line L1, the flap ruled line L2, and the notch 14C are processed by the packaging material processing unit 40 is conveyed to the package forming unit 50 of FIG.

  The package forming unit 50 includes an ear part processing part 52, a side rail attaching part 54, a setting part 56 for a planographic printing plate bundle, and a bending part 58.

  The ear part processing part 52 is a step of forming the ear part 14A by folding back the end part in the width direction of the cardboard 14 along the ear ruled line L1. As a method for folding the cardboard 14, there are employed a method in which the cardboard 14 is stopped and folded at the folding station, or a method in which the cardboard 14 is folded using the movement during movement. The bent ear portion 14A may be fixed with a hot-melt adhesive or an adhesive tape. Thereby, the ear | edge part 14A as shown to Fig.5 (a) and FIG.5 (b) is formed. The size of the ear portion 14A (that is, the height h and the width W) is determined by the control unit 20. Specifically, the control unit 20 determines the height h of the ear portion 14A according to the thickness of the planographic printing plate bundle 12 and determines the width W of the ear portion 14A according to the size of the planographic printing plate bundle 12. Then, the number of folding and the folding position are adjusted so as to form the ear portion 14A having the shape. At that time, the size and structure (for example, selecting a hollow structure) of the ear portion 14A may be determined according to the type (type of application surface, etc.) and weight of the lithographic printing plate bundle 12. 5A shows an example in which the number of times of bending is one, and FIG. 5B shows an example in which the number of times of bending is two. However, the number of times of bending is not limited to this, and the number of times of bending is three times or more. There may be. The ears 14 </ b> A formed as described above prevent the planographic printing plate bundle 12 from being displaced inside after packaging, and act as a cushioning material for the planographic printing plate bundle 12 during transportation of the package 22. The cardboard 14 on which the ears 14A and 14A are formed is conveyed to the side rail attachment part 54.

  The side rail attachment portion 54 is a step portion for attaching the side rails 16 and 16 supplied from the side rail portion 70 described later to the cardboard 14. The side rails 16 and 16 are usually disposed on a side different from the ear part 14A (that is, a pair of sides forming the width direction) for the same purpose as that of the ear part 14A (that is, the purpose of preventing slippage and cushioning). In the side rail mounting portion 54, the side rails 16 and 16 stocked in the magazine portions 18 and 18 shown in FIG. 2 are taken out, arranged at predetermined positions, and fixed with hot melt resin or adhesive tape.

  When the control unit 20 determines that the side rail is unnecessary, the corrugated cardboard 14 is passed without functioning the side rail mounting portion 54 and is conveyed to the setting unit 56.

  The setting unit 56 is a process unit that sets the planographic printing plate bundle 12 on the cardboard 14 one by one. As the lithographic printing plate bundle 12, a laminate of a predetermined number of lithographic printing plates is wrapped with a general packaging material (for example, kraft paper) and taped, or a laminate of lithographic printing plates is shrink-wrapped. Various forms are possible, such as those in which a laminate of a lithographic printing plate is fixed on a mount with a band. The planographic printing plate bundle 12 is directly supplied from the planographic printing plate bundle manufacturing apparatus 100 (see FIG. 1). The planographic printing plate bundle manufacturing apparatus 100 and the packaging apparatus 10 are interlocked by the control unit 20, and even when the type of the planographic printing plate bundle 12 is changed, the cardboard 14 and the planographic printing plate bundle 12 are in good timing. It is transported and set. In the present embodiment, the lithographic printing plate bundle manufacturing apparatus 100 supplies the lithographic printing plate bundle directly. However, the present invention is not limited to this, and the stocked lithographic printing plate bundle 12 is supplied to the setting unit 56. May be. In this case, a sensor for measuring the size of the lithographic printing plate bundle 12 is provided in the supply line of the lithographic printing plate bundle 12, and the size measured by this sensor is input to the control unit 20, and each process is performed based on this information. It is good to control the part.

  The configuration of the setting unit 56 is not particularly limited. For example, as shown in FIG. 6, the planographic printing plate bundle 12 is conveyed by a conveyor 55, and a predetermined position of the cardboard 14 (specifically, the ears 14A, 14A). The structure set between each other and between the side rails 16 and 16 is employ | adopted. As a method for transporting the lithographic printing plate bundle 12, a pick-and-place mechanism, a method of supporting it with a receiving sheet and pulling it out later may be used.

  The cardboard 14 on which the lithographic printing plate bundle 12 is set by the setting unit 56 is conveyed to the folding unit 58. The folding part 58 is a process part which is bent according to the flap ruled line L2 in the width direction, and as shown in FIG. 7 (a), by folding the flap doors 14E and 14E, the box-shaped package 22 (see FIG. 2). Manufacturing. In this bending part 58, it is preferable to apply hot melt resin before bending, so that it is glued simultaneously with the bending process, and it may be fixed with an adhesive tape after the bending process. Note that, depending on the thickness of the corrugated cardboard 14, it is difficult to bend at one time. That is, it is possible to provide a process of folding back and attaching a folding crease after folding, and folding the flap doors 14E and 14E after this process to form the package 22 (see FIG. 2). Although FIG. 7A shows an example in which the flap doors 14E and 14E have a symmetrical shape, as shown in FIG. 7B, asymmetrical flap doors 14E and 14E may be provided. In this case, if the package 22 after packaging is stored vertically with the large flap door 14E on the lower side, the planographic printing plate bundle 12 can be taken out easily. The package 22 formed as described above is conveyed to the finishing unit 60.

  The finishing unit 60 includes a tape applying unit 62, a label applying unit 64, and a stacking unit 66. The tape sticking part 62 is a process part which sticks the tape 24 to the mating part of the flap doors 14E and 14E (see FIG. 7) using a tape dispenser to reinforce the sealing part. The label affixing unit 64 is a process unit that affixes a product recognition label 26 (see FIG. 2) on the top or side of the package 22, and the label 26 is printed on the spot or embedded with an IC chip. An IC tag or the like can be used. Moreover, you may make it print a character, a barcode, etc. directly on the surface of the package 22 by an inkjet stamping.

  The stacking unit 66 is a process unit for stacking the packaging bodies 22 and automatically palletizes the pallet 28 (see FIG. 2) automatically selected according to the size of the packaging body 22 in a predetermined loading form. At that time, it is possible to integrate all sizes in various forms by using a robot. In addition, when accumulating in the accumulating unit 66, NG products (for example, a package in which equipment trouble or product trouble occurs) are sent out of the system. This is possible by detecting items important for management and tracking the results.

  Next, the side rail part 70 of FIG. 1 is demonstrated. The chips 14B (see FIG. 2) cut by the cutting unit 34 are supplied to the side rail unit 70 by conveying means such as a conveyor or air. The side rail part 70 consists of the side rail process part 72 and the side rail storage part 74, and the chip 14B is cut by the side rail process part 72 to a required magnitude | size. For example, as shown in FIG. 8, the cutting piece 14B is cut in the longitudinal direction by the cutting roller 75, and the cutting piece 14B is cut in the width direction by the upper and lower blade shear cutting type cutting machine 76. Thereby, the side rail 16 of a desired size can be formed. The processing of the side rail 16 may be performed simultaneously with the cutting of the cardboard 14 by the cutting portion 34 of FIG. Further, the size of the side rail 16 is not limited to one type, and a plurality of types of side rails may be always stocked in the side rail storage unit 74. The side rail storage unit 74 includes the magazine units 18 and 18 of FIG. 2, and the side rails 16 and 16 are stocked in the magazine units 18 and 18. The stocked side rail 16 is supplied to the side rail attaching portion 54 of the packaging body forming portion 50. At that time, the side rails 16 and 16 having an appropriate size determined by the control unit 20 are selected and supplied. In the above embodiment, the side rails 16 are formed using the chips 14B. However, the present invention is not limited to this. For example, as shown in FIG. 9, a long side rail hoop material 78 is used. While feeding out, the side rail 16 may be formed by being cut to a desired size by the feed cut portion 79.

  The control unit 20 described above is connected to all of the packaging material supply unit 30, the packaging material processing unit 40, the packaging body forming unit 50, the finishing unit 60, the side rail unit 70, and the lithographic printing plate bundle manufacturing apparatus 100 via a network or the like. Connected and configured to control all these process parts. The control unit 20 is configured to perform control in consideration of a time lag during conveyance when changing the type of the planographic printing plate bundle 12. That is, when the type of the lithographic printing plate bundle 12 is changed, the packaging is continuously performed without stopping the line, and control is performed so that the changed lithographic printing plate bundle 12 is set on the corrugated cardboard 14 corresponding to the change. I do.

  In the above-described embodiment, the order of operations may be changed within each of the process units 40, 50, 60. For example, the order of the side rail attaching part 54 and the setting part 56 may be reversed, or the order of the tape attaching part 62 and the label attaching part 64 may be reversed.

  Next, the operation of the packaging device 10 configured as described above will be described.

  Since the lithographic printing plate bundle 12 contains a lithographic printing plate having a photosensitive layer or a heat-sensitive layer therein, it is necessary to prevent the lithographic printing plate bundle 12 from moving inside the package 22 after packaging. Therefore, the cardboard 14 needs to be bent by forming the ear ruled line L1, the flap ruled line L2, and the notch 14C in accordance with the size of the planographic printing plate bundle 12. Further, the ear portion 14A of the cardboard 14 needs to have a shape suitable as a cushioning material for each lithographic printing plate bundle 12, and the width W or height of the ear portion 14A depends on the planar size and thickness of the lithographic printing plate bundle 12. It is necessary to determine the length h (or the number of bendings). Accordingly, the corrugated cardboard 14 has a problem that an appropriate size and packaging pattern are different for each planographic printing plate bundle 12.

  On the other hand, the lithographic printing plate bundle 12 has a problem that the lithographic printing plate bundle 12 has various sizes because a necessary number of lithographic printing plates having a flat size are stacked and packaged for each shipping destination. For this reason, if the corrugated cardboard 14 is prepared for each type of the lithographic printing plate bundle 12, there is a problem that the types of the corrugated cardboard 14 increase and stock becomes difficult, and the lithographic printing plate bundle 12 is packaged with the common corrugated cardboard 14. When the side rails 16 are packed inside, the packaging body 22 becomes unnecessarily large and the conveyance cost increases, and there is a problem that the cost for processing the cardboard 14 after conveyance increases.

  On the other hand, the packaging apparatus 10 according to the present embodiment inputs information on the lithographic printing plate bundle 12, selects the size of the cardboard 14 based on this information, and further wraps the cardboard 14 on the line appropriately. Since the pattern is processed, waste of the cardboard 14 can be minimized, and an appropriate packaging body 22 can be formed for each lithographic printing plate bundle 12 to improve the conveyance efficiency of the packaging body 22. it can.

  In the present embodiment, since the ears 14A of the cardboard 14 are formed or the side rails 16 are supplied based on the information of the planographic printing plate bundle 12, a buffer function is provided for each type of the planographic printing plate bundle 12. Can be set. Therefore, damage of the planographic printing plate bundle 12 can be more reliably prevented during transportation of the package 22.

  In the present invention, the control unit 20 based on the information of the lithographic printing plate bundle 12, such as the type of tape 24, the type and content of the label 26, the palletizing pattern when being stacked on the pallet 28, etc. It is preferable that all items to be changed every 12 are automatically changed.

The block diagram which shows schematic structure of the packaging apparatus of this invention Perspective view schematically showing the packaging procedure Perspective view showing the cutting position of cardboard The perspective view which shows an example of a ruled line process part and a notch process part Diagram showing the shape of the ear Perspective view showing the setting part of a lithographic printing plate bundle The perspective view explaining a bending part The perspective view which shows a side rail process part typically The perspective view which shows typically the side rail process part different from FIG.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 10 ... Packaging apparatus, 12 ... Planographic printing plate bundle, 14 ... Corrugated cardboard, 16 ... Side rail, 20 ... Control part, 22 ... Packaging body, 30 ... Packaging material supply part, 32 ... Selection part, 34 ... Cut part, 40 ... Packaging material processing part, 42 ... Ruled line processing part, 44 ... Notch processing part, 50 ... Packaging body forming part, 52 ... Ear part processing part, 54 ... Side rail attachment part, 56 ... Setting part, 58 ... Bending part, 60 ... Finishing part, 62 ... tape attaching part, 64 ... label attaching part, 66 ... stacking part, 70 ... side rail part, 72 ... side rail processing part, 74 ... side rail storage part, 100 ... lithographic printing plate bundle manufacturing apparatus

Claims (7)

In a packaging method for packaging a packaged product by bending a plate-shaped packaging material,
A determination step of determining the size and packaging pattern of the packaging material based on the information of the packaged product;
A packaging material supply step of selecting and / or cutting and supplying the packaging material to fit the determined size;
A packaging material processing step of forming fold lines and / or notches in the supplied packaging material based on the determined packaging pattern;
A box-shaped packaging body in which the packaged article is conveyed and placed at a predetermined position of the packaging material in which the folding line and / or notch is formed, and the packaging material is folded along the folding line. Forming a package body; and
Equipped with a,
At least a part of the information of the packaged product is input from a sensor that measures the size of the packaged product .   The packaging method according to claim 1, wherein the packaged product is a lithographic printing plate bundle in which lithographic printing plates are laminated.   The packaging method according to claim 1 or 2, wherein the packaging material is cardboard. The packaging method according to claim 1, wherein an ear portion is formed by folding the packaging material to a side of the packaged product. 5. The packaging method according to claim 1, wherein in the packaging body forming step, a side rail member is provided on a side of the packaged product to form the packaging body. The packaging method according to claim 5, wherein the side rail member is manufactured using chips generated when the packaging material is cut. In a packaging device for packaging a packaged product by bending a plate-shaped packaging material,
An input means for inputting information on the packaged goods;
A control device for determining the size and packaging pattern of the packaging material according to the information of the packaged goods input by the input means;
A packaging material supply device that selects and / or cuts and supplies the packaging material to fit the determined size;
A packaging material processing apparatus for processing a fold line and / or a notch in the packaging material according to the determined packaging pattern;
The packaged product is transported and placed at a predetermined position of the packaging material in which the fold line and / or notch is processed, and the packaging material is folded along the fold line to form a box-shaped packaging body. A packaging body forming apparatus for forming
With
The packaging device, wherein the input means is a sensor for measuring a size of the packaged product.

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