Storage medium, device, printing device, and printing system

Abstract

Provided are a storage medium, an apparatus, a printing apparatus, and a printing system that can easily set the shape of a label desired by a user. The storage medium stores a computer program that causes a computer to execute: a step of accepting input of label width information W; a step of accepting input of display region length information L; a step of accepting input of paste length information P; a step of accepting input of temporary fixation length information A; and a step of setting the shape of a label based on the input label width information W, display region length information L, paste length information P, and temporary fixation length information A.

Description

Technical Field

[0001] This invention relates to storage media, devices, printing apparatus, and printing systems. Background Technology

[0002] Labels (sometimes called "markers") are known to be wrapped around cables to distinguish them from other cables, such as fiber optic cables, electrical wires, and LAN cables. Printing devices for producing such labels are also known.

[0003] Patent Document 1 describes a printing device that can easily set the blank portion according to the diameter of the cable when making a label. If the diameter or outer circumference of the connecting cable is input into the printing device, the size of the blank portion can be set to the outer circumference of the cable.

[0004] Patent document 2 describes a printing apparatus for printing labels that can be wound onto cables with various outer diameters. This printing apparatus prints labels with multiple or more slits for separating the labels. Therefore, by separating the labels along selected slits, the user can obtain labels of the desired length.

[0005] Patent document 3 describes a printing apparatus for printing labels that are easily removable after being wrapped around a cable. This printing apparatus is capable of printing labels with multiple slots along the short side of the wrapped portion. Therefore, the user can easily remove the label from the cable by forcefully pulling it.

[0006] Existing technical documents

[0007] Patent documents

[0008] Patent Document 1: Japanese Patent Application Publication No. 2003-170628

[0009] Patent Document 2: Japanese Patent Application Publication No. 2018-172608

[0010] Patent Document 3: Japanese Patent Application Publication No. 2017-26888 Summary of the Invention

[0011] The problem that the invention aims to solve

[0012] However, the printing apparatus described in these patent documents cannot freely set the shape of the label. The printing apparatuses described in Patent Documents 1 to 3 all cut a roll of tape with a predetermined width to set the label, thus limiting the width of the label to the same as the width of the tape.

[0013] The inventors of this application focused on the following points: In such printing devices, it is possible that not all the information intended to be displayed on the label can be shown on the label, and conversely, labels with a display area that is too large compared to the information intended to be displayed on the label must be printed. On the other hand, if the production of the label shape is completely entrusted to the user (hereinafter referred to as "user"), the burden on the user is too great. In addition, there is also the possibility that labels with the functions expected by the user cannot be produced.

[0014] Therefore, the object of the present invention is to provide a storage medium, apparatus, printing apparatus, and printing system that can easily set the shape of a label as desired by the user and store a computer program.

[0015] Methods for solving problems

[0016] This disclosure provides a storage medium for storing a computer program. The computer program is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, around which a cable extending in a first direction can be wound. The label has a first portion and a second portion adjacent to the first portion in the first direction. The first portion has a first protrusion protruding beyond the second portion in a second direction perpendicular to the first direction and having a first adhesive surface on the back surface. The second portion has a second protrusion protruding beyond the first portion in a third direction opposite to the second direction and having a second adhesive surface on the back surface. The computer program causes a computer to perform: accepting input of label width information for setting the width of the second portion in the first direction; accepting input of display area length information for setting the height of a display area in the second portion in a second direction; accepting input of adhesive length information for setting the height of an adhesive area in the second portion that can be pasted to the third-direction end of the display area in the second portion in a second direction; accepting input of temporary fixed length information for setting the height of the first protrusion in the second direction; and setting the shape of the label based on the input label width information, display area length information, adhesive length information, and temporary fixed length information.

[0017] It should be noted that the display area length information used to set the height of the display area in the second direction can also include information on the cross-sectional shape of the cable that is being wound.

[0018] This disclosure provides a storage medium for storing various computer programs. The computer program is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, capable of being wound around a cable extending in a first direction. The label includes: a first label portion including a first display area; a second label portion adjacent to the first label portion in the first direction and including a second display area; and a leg portion adjacent to the first label portion in a second direction perpendicular to the first direction, having a width in the first direction smaller than the width of the first display area for winding around the cable. The computer program causes a computer to perform: receiving input of label width information for setting the width of the first label portion in the first direction; receiving input of winding portion width information for setting the width of the leg portion in the first direction; receiving input of winding portion length information for setting the height of the winding portion in the second direction opposite to the surface of the cable when wound around the cable in the leg portion; receiving input of neck length information for setting the distance in the second direction between the winding portion in the leg portion and the first label portion; and setting the shape of the label based on the input label width information, winding portion width information, winding portion length information, and neck length information.

[0019] This disclosure provides a storage medium for storing further different computer programs. The computer program is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, capable of being wound around a cable extending in a first direction. The label includes: a label portion including a display area, wound around the cable; and a laminated portion adjacent to the label portion in a second direction perpendicular to the first direction, wound onto the label portion. The computer program causes a computer to perform: a step of receiving input of label width information for setting the width of the label portion in the first direction; a step of receiving input of display area length information for setting the height of the label portion in the second direction; a step of receiving input of laminate length information for setting the height of the laminated portion in the second direction; and a step of setting the shape of the label based on the input label width information, display area length information, and laminate length information.

[0020] This disclosure provides a storage medium for storing further different computer programs. The computer program is used to set the shape of a label having a surface and a back side disposed on the side opposite to the surface, capable of being wound around a cable extending in a first direction. The label includes: a colored portion, wound around the cable and colored; a label portion adjacent to the colored portion in a second direction perpendicular to the first direction, including a display area, and wound around the colored portion; and a laminated portion adjacent to the label portion in the second direction and wound around the label portion. The computer program causes a computer to perform: a step of receiving input of label width information for setting the width of the label portion in the first direction; a step of receiving input of display area length information for setting the height of the label portion in the second direction; a step of receiving input of laminate length information for setting the height of the laminated portion in the second direction; and a step of setting the shape of the label based on the input label width information, display area length information, and laminate length information.

[0021] These computer programs stored on the storage medium can also be used to set the shape of the label formed by cutting the label paper adhered to the release paper. Furthermore, the computer can be further configured to place the label with the set shape within the label paper in a manner that makes the long side and second direction approximately parallel, and then display it on a monitor.

[0022] These computer programs can record and save data to non-transitory storage media, including NAND flash memory (used in SD cards, SSDs, etc.), non-volatile semiconductor storage media such as MRAM and ReRAM, and magnetic storage media such as HDDs.

[0023] Here, "roughly parallel" means that the angle between the long side of the label and the second direction is less than 10 degrees.

[0024] In addition, "label paper" includes paper types on which text, symbols, or pictures can be printed, especially films made of resin materials such as transparent laminated paper, PVC (Polyvinyl Chloride), PET (Polyethylene Terephthalate), and synthetic paper. Furthermore, an adhesive layer can be provided on the back of these laminated papers, PVC films, PET films, and synthetic papers.

[0025] "Adhesive surface" refers to a surface provided with an adhesive and at least one of the adhesives. It should be noted that, in this invention, an adhesive refers to a substance that, upon curing at room temperature, exhibits bonding strength and bonds with other objects, while an adhesive refers to a substance that, without curing at room temperature, bonds with other substances. The adhesive surface in this invention includes all surfaces provided with only an adhesive, surfaces provided with only an adhesive, and surfaces provided with both an adhesive and an adhesive; however, as described below, it is preferable to provide an adhesive.

[0026] In addition, this disclosure provides an apparatus. This apparatus is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, around which a cable extending in a first direction can be wound. The label includes: a first portion; and a second portion adjacent to the first portion in the first direction. The first portion has a first protrusion protruding beyond the second portion in a second direction perpendicular to the first direction and having a first adhesive surface on the back surface. The second portion has a second protrusion protruding beyond the first portion in a third direction opposite to the second direction and having a second adhesive surface on the back surface. The apparatus includes: a unit for acquiring label width information for setting the width of the second portion in the first direction; a unit for acquiring display area length information for setting the height of a display area in the second portion in a second direction; a unit for acquiring adhesive length information for setting the height of an adhesive area in the second portion that can be adhered to a third-direction end of the display area in the second portion in the second direction; a unit for acquiring temporary fixed length information for setting the height of the first protrusion in the second direction; and a unit for setting the shape of the label based on the input label width information, display area length information, adhesive length information, and temporary fixed length information.

[0027] This disclosure provides a different apparatus. The apparatus is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, capable of being wound around a cable extending in a first direction. The label includes: a first label portion including a first display area; a second label portion adjacent to the first label portion in the first direction and including a second display area; and a leg portion adjacent to the first label portion in a second direction perpendicular to the first direction, having a width in the first direction smaller than the width of the first display area for winding around the cable. The apparatus includes: a unit for acquiring label width information for setting the width of the first label portion in the first direction; a unit for acquiring winding portion width information for setting the width of the leg portion in the first direction; a unit for acquiring winding portion length information for setting the height of the winding portion in the second direction facing the surface of the cable when wound around the cable in the leg portion; a unit for acquiring neck length information for setting the interval in the second direction between the winding portion in the leg portion and the first label portion; and a unit for setting the shape of the label based on the input label width information, winding portion width information, winding portion length information, and neck length information.

[0028] The present invention provides a further different apparatus. This apparatus is used to set the shape of a label having a surface and a back surface disposed on the side opposite to the surface, and capable of being wound around a cable extending in a first direction. The label includes: a label portion including a display area, wound around the cable; and a laminated portion adjacent to the label portion in a second direction perpendicular to the first direction, wound onto the label portion. The apparatus includes: a unit for acquiring label width information for setting the width of the label portion in the first direction; a unit for acquiring display area length information for setting the height of the label portion in the second direction; a unit for acquiring laminated length information for setting the height of the laminated portion in the second direction; and a unit for setting the shape of the label based on the input label width information, display area length information, and laminated length information.

[0029] These devices can also be further equipped with input units for information such as label width. The input unit can be a keyboard for inputting information by text, a mouse for inputting information based on the position of a pointer on a display, or a microphone for inputting information by voice.

[0030] Furthermore, this disclosure provides a printing apparatus. The printing apparatus includes: a transport unit for transporting a printing medium having a release paper and a label paper adhered to the release paper; a printing unit for printing on the label paper; and a cutting unit for acquiring information indicating the shape of a label set by the aforementioned apparatus, and cutting the label paper based on that information.

[0031] Here, the method of "obtaining information representing the shape of the label" includes, in addition to the method of obtaining information representing the shape of the label from the "device" by connecting the "device" and the "printing device" in a wired or wireless manner to a state where they can communicate, a method of obtaining information from a storage medium (e.g., SD card, HDD, SSD, etc.) that stores information representing the shape of the label set by the "device" by directly connecting the storage medium to the printing device or via a communication network.

[0032] The printing unit can also be configured to cut the label paper in such a way that the direction of transporting the printing medium and the second direction are approximately parallel.

[0033] Furthermore, this disclosure provides a printing system. The printing system includes: a transport unit for transporting a printing medium having a release liner and a label paper adhered to the release liner; a printing unit for printing on the label paper; the aforementioned apparatus; and a cutting unit for acquiring information indicating the shape of a label set by the apparatus and cutting the label paper based on that information. Attached Figure Description

[0034] Figure 1 This is a block diagram showing the physical structure of device 10.

[0035] Figure 2 This is a functional block diagram of device 10.

[0036] Figure 3 This is the display screen 10D1 when the shape setting program starts.

[0037] Figure 4 This is the display screen 10D2 when label L1 is selected.

[0038] Figure 5 This is a diagram showing the surface L1A of label L1.

[0039] Figure 6 This is the display screen 10D3 when label L3 is selected.

[0040] Figure 7 This is the display screen 10D4 when label L4 is selected.

[0041] Figure 8 This is a block diagram showing the structure of the printing system 800.

[0042] Label Explanation

[0043] 1 Printing Media

[0044] 10 devices

[0045] 10A Input Section

[0046] 10B Information Acquisition Department

[0047] 10C Shape Setting Section

[0048] 10D Display Unit

[0049] 10D1-10D4 display screen

[0050] 10E Storage Division

[0051] 10N Communications Department

[0052] 14 First protrusion

[0053] 100 tags

[0054] 500 printer

[0055] 520 sprocket

[0056] 521 thermal head

[0057] 522 plates

[0058] 523 Ink Ribbon Cartridge

[0059] 524 Ink Ribbon

[0060] 525 Cutting Mechanism

[0061] 525A Cutter

[0062] 527 Control Department

[0063] 800 Printing System

[0064] 1000 Labels

[0065] 2000 Labels

[0066] L1-L4 tags Detailed Implementation

[0067] Hereinafter, embodiments of the present invention will be described using the accompanying drawings. These embodiments are illustrative of the invention and are not intended to limit the invention to these specific embodiments.

[0068] Figure 1 This is a functional block diagram of the device 10 for setting the shape of a label according to this embodiment.

[0069] The device 10 can be implemented, for example, by a general-purpose computer with the computer program of this embodiment installed. The device 10 includes an input unit 10A for inputting information for setting various shapes of a label, an information acquisition unit 10B for acquiring information input by the input unit 10A, a shape setting unit 10C for setting the shape of the label based on the information acquired by the information acquisition unit 10B, and a display unit 10D for displaying the shape of the label set by the shape setting unit 10C. Furthermore, the device 10 includes a computer program (hereinafter sometimes referred to as a "shape setting program") for storing the computer program for setting the shape of the label as shown in this embodiment (hereinafter, it is sometimes referred to as a "shape setting program"). It should be noted that the computer program includes data required for shape setting, such as data representing the shape of a cable. Additionally, the computer program may also be configured as an application program that starts on an OS., and a storage unit 10E for determining shape data, etc., of the shape of the label set by the shape setting program. Details regarding the information acquired by the information acquisition unit 10B and the information displayed by the display unit 10D will be described in detail later.

[0070] Figure 2This is a block diagram showing the physical structure of device 10. Device 10 includes a CPU (Central Processing Unit) 10P, a RAM (Random Access Memory) 10E1 and a ROM (Read Only Memory) 10E2 that function as storage units 10E, a communication unit 10N, an input unit 10A, and a display unit 10D. These components are connected via a bus in a manner that enables them to send and receive data and signals. It should be noted that in this embodiment, the description focuses on a configuration where device 10 is a single computer, but device 10 can also be implemented by combining multiple computers. For example, device 10 can be configured to perform some or all of the computational processing using different processors connected via a communication network such as the Internet. Alternatively, device 10 can be configured to store some information using an SD card that can be separated from the main body of device 10. Figure 1 The structure shown is one example; the device 10 may also have other structures, or may not have some of these structures.

[0071] CPU 10P is a processor that performs the various arithmetic and other processes shown in this embodiment by executing a computer program stored in RAM 10E1 or ROM 10E2. Therefore, CPU 10P functions as a shape setting unit 10C by performing predetermined arithmetic processes according to a shape setting program. Furthermore, CPU 10P functions as an information acquisition unit 10B that obtains information from the input unit 10A, the storage unit 10E, and the communication unit 10N. Moreover, CPU 10P stores the calculation results, etc., in RAM 10E1 or ROM 10E2.

[0072] ROM10E2 stores the necessary information, including the shape setting program (containing data required for each calculation process) and the calculation results (containing the shape data of the tag). ROM10E2 is constructed, for example, from a semiconductor storage element capable of electrically rewriting information, such as NOR flash memory or NAND flash memory, or from a CD, DVD, or HDD capable of recording information optically or magnetically. For example, ROM10E2 may also include an SD card or USB memory as part of its structure, storing the calculation results of the computer program of this embodiment, i.e., the shape data of the tag. Additionally, it may include a server storing the computer program of this embodiment and connected to CPU10P via a network.

[0073] RAM10E1 temporarily stores data and other information required for various operations of the computer program in this embodiment. RAM10E1 is composed of semiconductor storage elements capable of random access, such as SRAM (Static Random Access Memory) and DRAM (Dynamic Random Access Memory). RAM10E1 may also temporarily store at least a portion of the instructions of the computer program read from ROM10E2. It should be noted that at least a portion of RAM10E1 may also be composed of an LSI (Large Scale Integration) packaged integrally with CPU10P.

[0074] The communication unit 10N is used to connect the device 10 with the printer 500. Figure 8 The 10N communication unit is an interface for connecting to other devices. It can be connected to communication networks such as the Internet.

[0075] The input unit 10A receives information input from the user, such as a keyboard, mouse, touch panel, or microphone.

[0076] The display unit 10D is a display that visually displays the computation results of the CPU 10P, and may include an LCD (Liquid Crystal Display).

[0077] The following describes the operation of the CPU 10P of the device 10 when it executes the shape setting program stored in the storage unit 10E.

[0078] Figure 3 The display screen 10D1 of the display unit 10D when the shape setting program is started and the CPU 10P is executed is shown. This shape setting program can, for example, set the shape of label L1 as a rotating label, label L2 as a non-laminated wrapping label, label L3 as a laminated wrapping label, and label L4 as a flag label. As shown in the figure, any label can be wrapped around a cable. By executing the shape setting program, the CPU 10P displays multiple types of labels on the display unit 10D. The user uses the input unit 10A to select one type of label from the multiple types. The CPU 10P accepts the selection of one type of label. The structure of each label L1 to L4 will be described in detail later.

[0079] [Rotate Label]

[0080] Figure 4The display screen 10D2 of the display unit 10D is shown when the label L1, which is a rotating label, is selected by the user. The label L1 has a characteristic structure as described below.

[0081] Figure 5 The surface L1A of label L1 is shown. For convenience, [the following is omitted]. Figure 5 In this diagram, the direction to the right of the paper is designated as the first direction D1, the direction upwards on the paper is designated as the second direction D2, and the direction downwards on the paper is designated as the third direction D3. The second direction D2 and the third direction D3 are perpendicular to the first direction D1. The second direction D2 and the third direction D3 are opposite directions. However, for quantities that do not have orientation, such as height and width, the second direction D2 and the third direction D3 are used interchangeably, and sometimes they are shown without directional distinction in the accompanying drawings. Alternatively, the second direction D2 can be referred to as the third direction, and the third direction D3 as the second direction. Such a label L1 can be wrapped around a cable extending in the first direction D1.

[0082] The surface L1A of label L1 is a non-adhesive surface that is uncoated and printable. The back side is an adhesive surface coated with adhesive. Therefore, the back sides can be bonded to each other. Additionally, the back side can also be bonded to surface L1A.

[0083] As shown in the figure, label L1 has a first part L10 and a second part L20 that is adjacent to the first part L10 in the first direction D1.

[0084] The first part L10 has a first fitting portion L12 connected to the second part L20 and a first protrusion L14 adjacent to the first fitting portion L12 in the second direction D2 and protruding from the second part L20 in the second direction D2. As will be described later, the first protrusion L14 functions as an anchor.

[0085] In this embodiment, the first fitting portion L12 is formed in a rectangular shape. The first protrusion L14, adjacent to the first fitting portion L12 in the second direction D2, is also formed in a rectangular shape. However, the first protrusion L14 is not limited to a rectangular shape as long as it has a portion that protrudes in the second direction D2 relative to the second portion L20. For example, it may be formed with a shape where the width in the first direction D1 decreases as it travels towards the second direction D2 (e.g., a triangular shape).

[0086] The second part L20 has a second fitting part L22 connected to the first fitting part L12 and a second protrusion L24 that is adjacent to the second fitting part L22 in the third direction D3 and protrudes from the first part L10 in the third direction D3.

[0087] In this embodiment, the second fitting portion L22 is formed in a rectangular shape. Furthermore, the second protrusion L24, adjacent to the second fitting portion L22 in the third direction D3, is also formed in a rectangular shape. However, the second protrusion L24 is not limited to a rectangular shape as long as it has a portion protruding relative to the first portion L10 in the third direction D3.

[0088] Furthermore, a perforation line P1 (an example of a "fold line") is provided at the boundary between the first part L10 and the second part L20, extending in the second direction D2. The perforation line P1 is formed by intermittently removing a portion of the label 100. However, the fold line can also be formed by forming multiple small holes penetrating the label 100. It should be noted that the perforation line P1 is merely a structure to facilitate folding of the label L1 and may not be provided. In addition, the fold line mentioned here may also include a "crease" to facilitate folding by applying pressure to the label surface using a metal ball, roller, scraper, etc.

[0089] The following describes a method for wrapping a label L1 around a cable extending in the first direction D1.

[0090] First, bend label L1 along the perforation line P1 to bond the back of the first adhesive part L12 and the back of the second adhesive part L22 together.

[0091] exist Figure 4 In region AR6, the surface of label L1 after it has been bent and the back sides of the first adhesive portion L12 and the second adhesive portion L22 are bonded together is shown from a direction opposite to the second portion L20. As shown in the figure, on one side of the surface of label L1, an adhesive surface (the back side of the first protrusion L14) is provided at the end in the second direction D2, and a non-adhesive surface (the surface of the second portion L20) is provided adjacent to this adhesive surface in the third direction D3. On the other hand, on the opposite side of the surface, a different adhesive surface (the back side of the second protrusion L24) is provided at the end in the third direction D3, and a non-adhesive surface (the surface of the first adhesive portion L12) is provided adjacent to this adhesive surface in the second direction D2.

[0092] Next, attach the back side of the first protrusion L14 of label L1 to the surface of the cable. At this time, the surface of the second part L20, which faces the same side as the back side of the first protrusion L14, faces the surface of the cable.

[0093] Then, the label L1 is folded up near the boundary between the first protrusion L14 and the second part L20, with the surface of the second part L20 facing outwards and the surface of the first fitting part L12 facing the cable surface. As a result, the surface of the second part L20 faces outwards.

[0094] Then, the label L1 is wrapped around the cable with the surface of the second part L20 facing outwards and the surface of the first adhesive part L12 facing inwards. At this time, the back of the first protrusion L14 functions as an anchor for the surface of the cable. Therefore, the label L1 can be easily wrapped around the cable.

[0095] Next, the label L1 is moved relative to the cable, peeling the back side of the first protrusion L12 off the surface of the cable. It should be noted that this step can be omitted. This is because the label L1 can be wound around the cable even without this step. This step can also be performed when it becomes necessary to move the label L1 relative to the cable as a rotating label.

[0096] Finally, the label L1 is wrapped around the cable by attaching the back of the second protrusion L24 to the adhesive portion of the end L20A1 in the second direction D2 of the second part L20.

[0097] The label L1, as described above, which is wrapped around a cable, can move both in the cable's extension direction and rotate in the circumferential direction by peeling off the first protrusion L12 from the cable. Because the label L1 can move relative to the cable in both the circumferential and extension directions, it is called a rotating label. With this label L1, unwanted portions can be discarded or residual portions on the cable can be removed after wrapping. Furthermore, the surface L1A of the label L1 is a non-adhesive surface without adhesive, while its back side is an adhesive surface with adhesive. Therefore, it is not necessary to have both an adhesive and a non-adhesive surface on one side. Thus, a label L1 capable of being wrapped around a cable can be easily manufactured.

[0098] The shape setting program and the device 10 operating according to the shape setting program of this embodiment can set the shape of such a label L1.

[0099] According to the shape setting procedure, the CPU 10P causes the display screen 10D2, which prompts the input of information for determining the shape of label L1, to be displayed on the display unit 10D.

[0100] Here, the inventors of this application focus on the following point: the height A of the second direction D2 of the first protrusion L14 (an example of "temporary fixed length information") is important information for the tag L1. That is, after the first protrusion L14 is temporarily fixed to the cable and functions as an anchor, it is peeled off from the cable. Therefore, if the height A of the first protrusion L14 is too large, it is not easy to peel off from the cable, and the possibility that the tag L1 will not function as a rotating tag increases. On the other hand, if the height A of the first protrusion L14 is too small, it is easy to peel off from the cable, and the possibility that it will not function as an anchor increases. In addition, the optimal height A will vary depending on the adhesion (adhesion force) of the adhesive provided on the back of the first protrusion L14 to the surface material of the cable. Therefore, the shape setting program allows the user to input information for setting the height A of the second direction D2 of the first protrusion L14. Specifically, according to the shape setting program, the information used by the CPU 10P to prompt the user to input the height A is displayed in area AR1 of the display screen 10D2. The user can input height A using the keyboard, mouse, or other input methods provided with the input unit 10A. However, a typical height A can be preset before the user inputs height A. Furthermore, considering the ease of peeling off the first protrusion 14, height A is preferably set to be less than half the circumference of the cable. Therefore, it is also possible to configure the system to prevent input of height A greater than half the circumference of the cable. If the user inputs height A, the information acquisition unit 10B (CPU 10P) accepts the input of height A and stores it in the storage unit 10E.

[0101] Additionally, the shape setting program allows the user to input information about the height L of the second direction D2 of the display area L20A2, which corresponds to the area that is visually recognizable from the outside when wrapped around a cable and can print identification information of the cable and other useful information (hereinafter referred to as "identification information, etc.") for marking the object to which the label is wrapped. Since the portion of the label L1 wrapped around the cable becomes the display area, the circumference of the cable or a length greater than the circumference of the cable corresponds to the height L of the second direction D2 of the display area L20A2.

[0102] Specifically, the CPU 10P displays information on the display screen 10D2 area AR2, such as the cable type (an example of "display area length information"), the cross-sectional shape of the cable (an example of "display area length information"), and the diameter of the cable (an example of "display area length information"), indicating the length of the cable in a specified direction (e.g., the first direction D1 or the second direction D2). The user can input this information using a keyboard, mouse, or similar device. When the user inputs this information, the information acquisition unit 10B (CPU 10P) receives the display area length information, which is used to set the height of the display area L20A2 in the second direction D2. Based on this, it acquires the height L and stores it in the storage unit 10E. For example, if cable type or other cable identification information is input as display area length information, the CPU 10P accesses the storage unit 10E, acquires information indicating the circumference L of the cable based on the input information, and stores it in the storage unit 10E. For example, if information for identifying the cross-sectional shape of the cable and information representing the length in a first direction of the cable's cross-section are input as display area length information, the CPU 10P calculates the information representing the circumference L based on this information, thereby obtaining the information representing the circumference L. For example, if the cable has a circular cross-section and a diameter of 10mm, the CPU 10P obtains the value obtained by multiplying 10mm by pi as the information representing the circumference L and stores it in the storage unit 10E.

[0103] Furthermore, the inventors of this application focused on the following point: the height P on the second direction D2 of the end L20A1 of the second part L20, which is attached to the end of the third direction D3 of the second part L20 (an example of "attachment length information"), is important information for the label L1. That is, the surface of the end L20A1 is the area where the back side of the end of the second part L20 is attached to the third direction D3. Therefore, the end L20A1 does not correspond to the display area (the area that is visually perceived from the outside). However, if the height P of the second direction D2 of the end L20A1 is too small, the adhesive force (adhesive strength) is too weak. Therefore, after the label L1 is wrapped around the cable, depending on the cable's usage environment (e.g., an environment where the cable is frequently plugged and unplugged relative to the connector) and the installation environment (e.g., a high temperature and high humidity environment), there is a possibility that the label L1 may break when the cable with the label L1 wrapped around it is moved or the label L1 is rotated. On the other hand, if the height P of the second direction D2 of the end L20A1 is too large, the efficiency of the label paper 1000 used for printing label L1 will decrease.

[0104] Therefore, the shape setting program allows the user to input information about the height P on the second direction D2 of the end L20A1 of the second direction D2. Specifically, the CPU 10P displays the information that prompts the user to input the height P on the area AR3 of the display screen 10D2. The user can input the height P using a keyboard, mouse, or other means provided with the input unit 10A. The user can set the optimal height P by considering factors such as the cable usage environment. However, a typical height P can also be preset based on the cable circumference L before the user inputs the height P. If the user inputs the height P, the information acquisition unit 10B (CPU 10P) accepts the height P input and stores it in the storage unit 10E. If the user does not input the height P, the information acquisition unit 10B (CPU 10P) accepts the preset height P input and stores it in the storage unit 10E.

[0105] Furthermore, the shape setting program of this embodiment is configured to prohibit the input of identification information, background color, etc., to the end L20A1. With this configuration, it is possible to suppress the application of ink or similar materials used to display cable identification information onto the surface of the end L20A1. As a result, situations such as "due to the application of ink or the like, the adhesive does not adhere directly to the surface of the end L20A1, resulting in decreased adhesion and peeling of the label L1" can be prevented.

[0106] On the other hand, the shape setting program is configured to allow input of identification information, etc., to the display area L20A2. Specifically, the CPU 10P is used to prompt the user to input information, such as identification information including strings used to identify cables, which is displayed on area AR7 of the display screen 10D2. The user can use the input unit 10A to input strings, for example, on multiple lines.

[0107] Furthermore, the shape setting program allows the user to input label width information (an example of "label width information") for setting the width W of the second part L20 in the first direction. The width W of the second part L20 in the first direction corresponds to the width of the label L1 when it is wrapped around the cable. Specifically, the CPU 10P uses the input information indicating the width W to display the information on area AR4 of the display unit 10D. The user can input the information indicating the width W using a keyboard, mouse, etc. If the user inputs this information, the information acquisition unit 10B (CPU 10P) accepts the input of the width W and stores it in the storage unit 10E.

[0108] By executing the above steps, the information acquisition unit 10B of the CPU 10P, which operates according to the shape setting program, receives information for determining height A, height P, height L, and width W. Additionally, the information acquisition unit 10B also receives identification information to be printed on the label L1. It should be noted that the input order of this information can be arbitrary. Furthermore, it accepts pre-set values ​​even when the user does not input any information.

[0109] The shape setting unit 10C of the CPU 10P, which operates according to the shape setting procedure, sets the shape of the label L1 based on the received information and stores it in the storage unit 10E as shape data (including printing data such as identification information to be printed on the label L1. The same applies below). Alternatively, the label L1 with the set shape can be displayed in area AR5 of the display screen 10D2.

[0110] Furthermore, the shape setting program causes the CPU 10P to display the label paper 1000 for printing the label L1, and displays the label L1 (in its pre-bending state) defined by height A, height P, height L, and width W within the label paper 1000. Specifically, the CPU 10P displays one or more labels L1 within the label paper 1000 in area AR8 of the display screen 10D2, such that the transport direction of the label paper 1000 is approximately parallel to the second direction D2 of the label L1. The user can easily determine how many labels L1 can be placed on the first direction D1 of the label paper 1000 based on the current width W of the label L1. Moreover, it can determine, for example, whether slightly reducing the width W allows for one more label L1 to be placed on the first direction D1, or whether slightly increasing the width W does not change the number of labels L1 placed on the first direction D1. Therefore, by using the shape setting program and device 10, the user can efficiently utilize the label paper 1000, which is the object of label printing.

[0111] Furthermore, according to the shape setting program and apparatus 10 of this embodiment, the user can set the width and height of the display area L20A2. Therefore, the user can either set the width W, which corresponds to the width of the display area L20A2, to be larger than the height L of the display area L20A2, or conversely, set the width W to be smaller than the height L. Thus, for example, in cases where information needs to be printed in multiple lines, such as printing identification information for identifying cables on the first line and different types of information related to the cable (e.g., information indicating the cable replacement period) on the second line, the shape setting program and apparatus 10 of this embodiment can print the desired information in the desired form by setting the width and height of the display area L20A2 according to the number of characters and lines of information to be printed in each line. On the other hand, in conventional labels where at least one of the height and width in a predetermined direction is preset, it is difficult to print information in the desired form.

[0112] Furthermore, according to the shape setting program and apparatus 10 of this embodiment, the user can easily determine the shape of the label by simply inputting information for determining the height A, height P, height L, and width W. Therefore, even labels with complex shapes, such as label L1, can have their shapes easily set. However, this does not prevent the input of information other than this information (e.g., information such as the background color of the display area L20A2, text size, font, and corner radius R of the label included in the identification information). In addition, this information can also be configured to be input by dragging a portion of the label L1 displayed on the display unit 10D using a mouse (or touch panel).

[0113] In addition, according to the shape setting program, the CPU10P displays the label L1 in area AR5 of the display screen 10D2 before it is folded along the perforation line P1, and displays the folded state in area AR6. Therefore, the user can easily understand how to bend the label L1 and wrap it around the cable.

[0114] It should be noted that the shape setting program can also be configured to set a self-laminating rotating label having a laminated portion covering the printed area as a deformation of label L1. In this case, the second bonding portion L22 corresponds to the display area L20A2. Additionally, the second protrusion L24 corresponds to the laminated portion. It can also be configured to allow the user to set the length of the second direction D2 of the display area L20A2 and the length of the second direction D2 of the second protrusion L24.

[0115] [Self-laminated wrapping label]

[0116] Figure 6The display screen 10D3 of the display unit 10D is shown when the label L3, which is a self-laminated wrapping label, is selected. However, for constituent elements that can be reasonably understood to show the same or identical structure as that described for label L1, the same reference numerals are used and detailed descriptions are omitted, with the description focusing on the different parts.

[0117] Surface L3A of label L3 ( Figure 6 The first side is the uncoated, non-adhesive surface that can be printed. The second side is the adhesive surface coated with adhesive. Therefore, the two sides can be bonded to each other. Additionally, the second side can also be bonded to surface L3A.

[0118] The label L3 has a label portion L30 with a cable wrapped around it extending in a first direction D1 and a laminate portion L32 that is adjacent to the label portion L30 in a second direction D2.

[0119] The label portion L30 is the part that is bonded to the surface of the cable. The laminate portion L32 is transparent and is wrapped around the surface of the label portion L30 to protect the cable identification information printed on the label portion L30. Therefore, the label portion L30 is equivalent to the display area.

[0120] The shape setting program and apparatus 10 of this embodiment can set the shape of such a label L3. According to the shape setting program, the CPU 10P prompts the display unit 10D to display the input information for determining the shape of the label L3.

[0121] Here, the inventors of this application focus on the following point: the height M (an example of "lamination length information") of the second direction D2 of the laminated portion L32 is important information for the label L3. That is, the laminated portion L32 protects the identification information of the cable printed on the label portion L30 by wrapping it around the surface of the label portion L30, so it is sufficient to set the height M to be the same as the height L (an example of "display area length information") of the second direction D2 of the label portion L30. However, depending on the usage environment of the label L3, there are cases where it is preferable to double-wrap the laminated portion L32 for protection. In this case, the double-wrapped portion can be set to be longer than the single-wrap portion, taking into account the thickness of the label. However, if the height M of the laminated portion L32 is too large, it is difficult to use the label paper 2000 for printing the label L3 efficiently. Therefore, the shape setting program of this embodiment allows the user to input information for setting the height M. Specifically, the CPU 10P displays the information used to prompt the user to input the height M in the area AR10 of the display screen 10D3 according to the shape setting program. Users can input the height M using the keyboard, mouse, or other input methods provided with the input unit 10A. However, before the user inputs the height M, it can also be set to a state where a typical height M is preset.

[0122] By designing the label's shape to fit various cable sizes, users can set the height M of the area they want to protect. For example, users can set the label to print cable identification information only on the upper part of the label portion L30 (the end of the second direction D2), and simultaneously set the height M to 1.5 times, 1.25 times, or other times the height L instead of twice the height L, thus ensuring that the cable identification information is printed and only the area that should be protected is double-protected. With this setting, the length of the laminated portion L32 can be reduced to less than half compared to previous methods, while still protecting identification information in the same way.

[0123] Furthermore, the shape setting program is configured to set the candidate height M based on the height L of the second direction D2 of the label portion L30. For example, regarding height M, amounts of 1, 1.25, 1.5, and 2 times the height L are displayed in a drop-down selection manner. Figure 6 In area AR10, an example is shown where height M is selected as 1.25 times height L. In this way, the shape setting program displays multiple candidate heights M set based on height L in a selectable manner. The user can easily select the appropriate height M.

[0124] The input of the width W of the first direction D1 of the label portion L30 (an example of "label width information") (area AR4), the input of the height L of the second direction D2 of the label portion L30 (an example of "display area length information") (AR2), and the input of the identification information of the cable printed to the label portion L30 (AR7) can be understood in the same way as the case of label L1, so the explanation is omitted.

[0125] According to the shape setting program and apparatus 10 of this embodiment, the user can set the width and height of the label portion L30, which corresponds to the display area of ​​label L3. Therefore, the user can either set the width W of the label portion L30 to be larger than the height L, or conversely, set the width W to be smaller than the height L. Thus, as described above, for example, different information can be printed on multiple lines. Furthermore, the effects that are similar to those in setting the shape of label L1 are omitted from the description.

[0126] By executing the above steps, the information acquisition unit 10B of the CPU 10P, which operates according to the shape setting procedure, receives information used to determine the height M, height L, and width W in a random order. Additionally, the information acquisition unit 10B also receives identification information to be printed on the label L3. The shape setting unit 10C of the CPU 10P, which operates according to the shape setting procedure, sets the shape of the label L3 based on the received information and stores it as shape data of the label L3 in the storage unit 10E. Furthermore, the label L3 with the set shape can also be displayed in area AR5 of the display screen 10D3.

[0127] Furthermore, according to the shape setting procedure, the CPU10P displays the label paper 2000 used for printing label L3 in area AR8 of display screen 10D3, and arranges label L3, which has height M, height L, and width W, within the label paper 2000. More specifically, the CPU10P arranges label L1 within the label paper 2000 in area AR8 of display screen 10D3, such that the transport direction of label paper 2000 and the second direction D2 of label L3 are approximately parallel. Therefore, the user can efficiently use the label paper 2000 intended for printing by adjusting the width W of label L3, etc.

[0128] [Second Embodiment of Self-Laminated Wrapped Label]

[0129] The second embodiment of the self-laminated wrapping label will now be described. It should be noted that parts that those skilled in the art would understand to have the same structure as other embodiments are referred to by the same names but are omitted or simplified in description; the description will focus on the different parts.

[0130] The inventors of this application focused on the following point: when wrapping labels around dark-colored cables such as red and black, the cable color can show through, especially when wrapping self-laminated wrapping labels, where the cable color easily shows through. If the cable color shows through, identification information printed on the display area is not easily visible, sometimes hindering the label's function. Therefore, research was conducted, and it was found that "since self-laminated wrapping labels are translucent, only the background ink layer of the display area prevents the cable color from showing through," which is considered one of the reasons.

[0131] Therefore, the self-laminating wrapping label of this embodiment is a label having a surface and a back side provided on the side opposite to the surface and capable of being wrapped with a cable extending in a first direction. It has three parts: a colored part, a label part, and a laminating part. The colored part is wrapped with the cable and is colored. The label part is adjacent to the colored part in a second direction perpendicular to the first direction, includes a display area, and is wrapped with the colored part. The laminating part is adjacent to the label part in the second direction and is wrapped with the label part.

[0132] That is, by attaching a colored portion (the colored portion is provided on the opposite side of the laminated portion L32) to the label L3 based on the label portion L30 and adjacent to it in the second direction D2, the wrapping label of this embodiment can be constructed.

[0133] By attaching a colored portion and wrapping that colored portion around the cable, it is possible to suppress the transmission of color from the cable.

[0134] The color used for the coloring portion is preferably a light color such as white or gray, or the same color as the background color of the display area. By coloring with a light color or the same color as the background color of the display area through printing or the like, the transmission of the cable color can be suppressed, and identification information printed on the display area is not easily seen due to the suppression of the color transmission of the colored portion.

[0135] Preferably, the width of the first direction D1 of the colored portion is the same as the width W of the first direction D1 of the label portion L30, and the height of the second direction D2 is the same as the height L of the second direction D2 of the label portion L30.

[0136] A computer program for setting the shape of such a label causes the computer to perform the following steps: accepting label width information for setting the width of a label portion in a first direction; accepting display area length information for setting the height of a label portion in a second direction; accepting lamination length information for setting the height of a laminated portion in a second direction; and setting the shape of the label based on the input label width information, display area length information, and lamination length information.

[0137] If the width of the first direction D1 and the height of the second direction D2 of the colored portion are not input, it is also possible to configure the same width and height as the label portion as the width and height of the colored portion.

[0138] [Flag Tag]

[0139] Figure 7 The display screen 10D4 of the display unit 10D is shown when label L4, as a flag label, is selected. However, for constituent elements that are reasonably understood to be the same or identical in structure as those described for label L1 or label L3, detailed explanations are omitted and the same reference numerals are used. Hereinafter, the explanation will focus on the different parts. It should be noted that in... Figure 7 In the diagram, the orientation of label L4 in region AR5 and label L4 in region AR11 has been changed by 90 degrees. Figure 7The orientations of the first direction D1, the second direction D2, and the third direction D3 shown are based on label L4 shown in area AR5. For simplicity, it is assumed that the bottom direction of the paper is the second direction D2 and the top direction is the third direction D3.

[0140] The surface L4A of label L4 is a non-adhesive surface that is uncoated and printable. The back side is an adhesive surface coated with adhesive. Therefore, the back sides can be bonded to each other. Additionally, the back side can also be bonded to surface L4A.

[0141] The label L4 includes: a first label portion L40, which is a display area that can be visually recognized from the outside and can print identification information; a second label portion L42, which is adjacent to the first label portion L40 in the first direction D1 and is a second display area; and a leg portion L44, which is adjacent to the first label portion L40 in the second direction D and has a width smaller than the width of the first label portion L40 in the first direction D1 for winding around a cable.

[0142] The shape setting program and apparatus 10 of this embodiment sets the shape of the label L4. According to the shape setting program, the CPU 10P prompts the display unit 10D to display the input information for determining the shape of the label L4.

[0143] Here, the inventors of this application focus on the following point: the width W2 of the leg portion L44 in the first direction D1 (an example of "wrap width information") is important information for the label L4. That is, the leg portion L44 (including the wrapping portion L44A) is the part that is bonded to the surface of the cable, so the width W2 is important in determining the adhesion (adhesion) of the label L4 to the cable. However, a larger width W2 results in a higher adhesion (adhesion), which is not necessarily preferred. For example, if the width W2 is too large, it may be difficult to bend the cable into the desired shape at the part where the label L4 is wrapped. Therefore, depending on the cable's usage environment, there may be a situation where it is preferable not to make the width W2 too large. Thus, the shape setting program allows the user to input information for setting the width W2 of the leg portion L44 in the first direction D1. Specifically, the information used by the CPU 10P to prompt the input of the width W2 is displayed in area AR14 of the display screen 10D4. The user can input the width W2 using a keyboard, mouse, or the like provided with the input unit 10A. However, before user input, the system can be set to a state where a typical width W2 is preset. If the user inputs a width W2, the information acquisition unit 10B (CPU 10P) accepts the input width W2 and stores it in the storage unit 10E.

[0144] Additionally, the shape setting program allows the user to input information about the height Lw of the second direction D2 of the winding portion L44A, which faces the surface of the cable and is bonded to it, in the leg portion L44 of label L4. Specifically, the CPU 10P displays information used to urge the user to identify the cable type (an example of "winding portion length information"), the cross-sectional shape of the cable (an example of "winding portion length information"), and the diameter of the cable (an example of "winding portion length information") indicating the length in a specified direction (e.g., the first direction D1 or the second direction D2) of the cable cross-section (an example of "winding portion length information") on area AR13 of display screen 10D4. The user can input this information using a keyboard, mouse, etc. If the user inputs this information, the information acquisition unit 10B (CPU 10P) accepts the input of the winding portion length information for setting the height of the second direction D2 of the winding portion L44A, acquires the height Lw, and stores it in the storage unit 10E. The method for acquiring the height Lw is the same as the method described above, so the description is omitted.

[0145] Furthermore, the inventors of this application focused on the following point: the neck length N (an example of "neck length information") used to set the distance between the winding portion L44A in the leg portion L44 and the first label portion L40 in the second direction D2 is important information for the label L4. That is, if the neck length N is too large, the first label portion L40 and the second label portion L42 will sag, making it difficult to visually confirm the identification information printed on the first label portion L40, etc. On the other hand, if the neck length N is too small, the rigidity is too high, and depending on the usage environment, the first label portion L40, etc., may interfere with adjacent cables or other obstacles. Therefore, the shape setting program allows the user to input information for setting the neck length N. Specifically, the information used by the CPU 10P to prompt the input of the neck length N is displayed in area AR15 of the display screen 10D4. The user can input the neck length N using a keyboard, mouse, etc. provided with the input unit 10A. If the user inputs, the information acquisition unit 10B (CPU 10P) accepts the input of the neck length N and stores it in the storage unit 10E.

[0146] In addition, the shape setting program allows the user to input information (area AR16) for setting the height M of the second direction D2 of the leg portion L44 sandwiched by the first label portion L40 and the second label portion L42, which is "overlap information"; information (area AR4) for setting the width W of the first direction D1 of the first label portion L40, which is "label width information"; and information (area AR17) for setting the height L of the second direction D2. If the user inputs this information, the information acquisition unit 10B (CPU 10P) accepts the input of this information and stores it in the storage unit 10E.

[0147] It should be noted that the shape setting program can also be configured so that the user can set the position of the cut line for the leg portion L44. By folding the leg portion L44 inward based on the cut line, the user can clamp the end of the leg portion L44 with the desired height M using the first label portion L40 and the second label portion L42.

[0148] By executing the above steps, the information acquisition unit 10B of the CPU 10P, which operates according to the shape setting procedure, can receive information for determining width W2, height Lw, neck length N, height M, width W, and height L in a random order. Based on the received information, the shape setting unit 10C acquires the shape data of the shape setting label L4 and stores it in the storage unit 10E. In addition, the label L4 of the set shape is displayed in area AR5 of the display screen 10D4.

[0149] Furthermore, according to the shape setting procedure, the CPU10P displays the label paper 1000 used for printing label L4, and displays the label L4, whose shape has been set as described above, within the label paper 1000. Therefore, the user can efficiently use the label paper 1000 as the printing object for label L4.

[0150] Furthermore, according to the shape setting program and apparatus 10 of this embodiment, as described above, the shape of the label can be easily set. Moreover, the user can set the width and height of the display area of ​​label L4, namely the first label portion L40 and the second label portion L42; therefore, as described above, different information can be printed on multiple lines, for example.

[0151] As such, according to the shape setting program of this embodiment and the device 10 that operates according to the shape setting program, the user can easily set a label with a shape corresponding to the desired information.

[0152] [Printing device and printing system]

[0153] The printer 500 and printing system 800 of this embodiment will be described below.

[0154] Figure 8 This is a schematic diagram showing the structure of a printing system 800 having a printer 500 ("printing device") and a device 10 connected to the printer 500. The printer 500 is a cutting printer capable of printing on a printing medium 1 and forming label sheets with multiple labels such as labels L1, label L2, or label L4 by cutting label paper in half according to label shape data.

[0155] Printing medium 1 comprises label paper and release paper adhered to the label paper. The label paper and release paper are laminated. The label paper is made of printable paper or film, and an adhesive for bonding with the release paper is provided in layers on the back side. The label paper may also be laminated paper or laminated film.

[0156] Multiple through holes are formed at equal intervals along the long side of the printing medium 1 at both ends along its short side. The printing medium 1 of this embodiment has a width of, for example, 10 cm or more, such that multiple labels can be formed along its short side. The printing medium 1 is mounted on the printer 500 in a ring-shaped configuration with its short side as the axis.

[0157] The printer 500 includes a storage section for rotatably storing a rolled-up printing medium 1 and a pair of sprockets 520 (an example of a "transport unit") for transporting the printing medium 1 in the long direction by rotating it in a state that engages with through holes provided at both ends in the short-side direction of the printing medium 1. Furthermore, upstream of the sprockets 520 in the transport direction of the printing medium 1, the printer 500 includes a thermal head 521 (an example of a "printing unit") that applies heat and a table 522 disposed opposite to it. The thermal head 521 is configured to apply heat to the printing medium 1 based on print data to be printed on the label. Additionally, an ink ribbon cartridge 523 is mounted in the printer 500. The ink ribbon 524 of the ink ribbon cartridge 523 is disposed between the thermal head 521 and the table 522. When the thermal head 521 applies heat based on print data, the dye (ink) contained in the ink ribbon 524 is transferred to the label paper of the printing medium 1, thus enabling printing according to the print data.

[0158] The printer 500 has a cutting mechanism 525 (an example of a "cutting unit") for cutting the printing medium 1 located downstream of the sprocket 520. The cutting mechanism 525 includes, for example, a cutter 525A that can move along the short side of the printing medium 1. According to shape data, the cutter 525A moves along the short side of the printing medium, and the printing medium 1 is transported along its long side, thereby cutting the printing medium 1 in half. That is, the cutter 525A cuts the printing medium 1 by passing through the label paper in the stacking direction but not through the release paper. It should be noted that the cutter 525A can also form perforated lines by repeatedly reciprocating in a direction perpendicular to the surface of the printing medium 1.

[0159] Furthermore, the printer 500 includes a balance detection sensor 526 for detecting the remaining amount of the printing medium 1. The balance detection sensor 526 includes a light-emitting part 526A and a light-receiving part 526B disposed opposite to it.

[0160] The printer 500 has a control unit 527 equipped with a microcomputer. The control unit 527 controls the motor driving the drive sprocket 520, the cutting mechanism 525, the thermal head 521, etc.

[0161] It should be noted that the printer 500 is not limited to having a thermal printhead 521, as long as it can print on the printing medium 1 and cut the printing medium 1 into a specified shape. For example, it can also be a printer or a laser printer that has an inkjet printhead that uses piezoelectric elements or the like to eject ink to print identification information onto the printing medium 1.

[0162] The printer 500 is connected to the device 10 in a communicative manner via the communication unit 10N. The control unit 527 of the printer 500 is configured to acquire shape data (including print data for printing identification information, etc.) of the label L1, etc., stored in the storage unit 10E of the device 10 via the communication unit 10N. Based on the acquired print data, the control unit 527 generates control data for operating the thermal head 521 and sends it to the thermal head. Therefore, printing on the print medium 1 according to identification information, etc., is possible. Furthermore, based on the acquired shape data, the control unit 527 generates control data for operating the cutter 525A of the cutting mechanism 525 and sends it to the cutting mechanism 525. Therefore, cutting (half-cutting) of the print medium 1 according to the shape data is possible.

[0163] It should be noted that the printer 500 and device 10 can also be connected via a communication network such as the Internet. Alternatively, the printer 500 and device 10 may not be connected. For example, the printer 500 can acquire the shape data by storing the shape data set using device 10 on a storage medium such as an SD card or USB memory and then reading it. In this case, the printer 500 may also have an SD card slot and an SD card reader for mounting and reading the SD card. Furthermore, the printer 500 and device 10 can also be integrated.

[0164] It should be noted that the shape data can also include positional information determining the cutting position on the printing medium 1. In this case, the shape setting program can also generate the shape data in such a way that the transport direction of the printing medium 1, i.e., the long side direction, is approximately parallel to the second direction of the label. By setting it to such a structure, when the release paper is peeled from the label paper of the printing medium 1, the peeling direction of the release paper (the long side direction of the printing medium 1) is parallel to a portion of the label's outline, thus enabling the release paper to be peeled smoothly from the label paper.

[0165] The printer 500 halves the label paper of the printing medium 1 based on the shape data generated by the device 10, enabling easy creation of label sheets with multiple labels having the user's desired shape. Furthermore, by generating shape data using the device 10, multiple labels can be efficiently configured on the label paper.

[0166] Furthermore, the labels shown in each embodiment have an adhesive surface formed by applying an adhesive. However, an adhesive surface can also be formed by applying an adhesive or the like. However, by using an adhesive that does not cure at room temperature to form the adhesive surface, a rotating label that can easily rotate relative to the cable can be created.

[0167] Furthermore, the present invention can be modified in various ways without departing from its spirit. For example, within the scope of ordinary inventiveness of those skilled in the art, some of the constituent elements of one embodiment can be added to other embodiments. In addition, some of the constituent elements of one embodiment can be substituted for the corresponding constituent elements of other embodiments.

Claims

1. A storage medium storing a computer program for setting a shape of a label, the label having a surface and a back surface provided on a side opposite to the surface, capable of winding around a cable extending in a first direction, the label having: first portion; a first portion, and a second portion adjacent to the first portion in the first direction, the first portion having a first protruding portion protruding in a second direction perpendicular to the first direction more than the second portion and having a first adhesive surface on the back surface, the second portion having a second protruding portion protruding in a third direction opposite to the second direction more than the first portion and having a second adhesive surface on the back surface, wherein the computer program causes a computer to execute: a step of accepting input of label width information for setting a width of the first direction of the second portion; a step of accepting input of display area length information for setting a height of the second direction of a display area in the second portion; a step of accepting input of attachment length information for setting a height of the second direction of an attachment area in the second portion capable of attaching an end portion of the third direction of the display area; a step of accepting input of temporary fixing length information for setting a height of the second direction of the first protruding portion; and a step of setting a shape of the label based on the input label width information, the display area length information, the attachment length information, and the temporary fixing length information.

2. A storage medium storing a computer program for setting a shape of a label, the label having a surface and a back surface provided on a side opposite to the surface, capable of winding around a cable extending in a first direction, the label having: a first label portion including a first display area; a second label portion adjacent to the first label portion in the first direction, including a second display area; and a leg portion adjacent to the first label portion in a second direction perpendicular to the first direction, having a width in the first direction smaller than a width of the first display area for winding around the cable, wherein the computer program causes a computer to execute: a step of accepting input of label width information for setting a width of the first direction of the first label portion; a step of accepting input of winding portion width information for setting a width of the first direction of the leg portion; a step of accepting input of winding portion length information for setting a height of the second direction of a winding portion in the leg portion which faces a surface of the cable when wound around the cable; a step of accepting input of neck length information for setting a separation in the second direction between the winding portion in the leg portion and the first label portion; and a step of setting a shape of the label based on the input label width information, the winding portion width information, the winding portion length information, and the neck length information.

3. The storage medium according to claim 1 or 2, the computer program being a computer program for setting a shape of a label formed by cutting a label paper adhered with a release paper, The computer program further causes the computer to execute a step of arranging a label having the set shape in the label sheet in a manner that a long side direction of the label sheet and the second direction are substantially parallel and displaying on a display.

4. An apparatus for setting a shape of a label, The label has a surface and a back surface provided on a side opposite to the surface, and is capable of being wound around a cable extending in a first direction, The label includes: a first portion; and a second portion adjacent to the first portion in the first direction, The first portion includes a first protruding portion protruding in a second direction perpendicular to the first direction more than the second portion and having a first adhesive surface on the back surface, The second portion includes a second protruding portion protruding in a third direction opposite to the second direction more than the first portion and having a second adhesive surface on the back surface, wherein The apparatus includes: a unit that acquires label width information for setting a width of the first direction of the second portion; a unit that acquires display area length information for setting a height of the second direction of a display area in the second portion; a unit that acquires attachment length information for setting a height of the second direction of an attachment area in the second portion capable of attaching an end portion of the third direction of the display area; a unit that acquires temporary fixing length information for setting a height of the second direction of the first protruding portion; and a unit that sets a shape of the label based on the input label width information, the display area length information, the attachment length information, and the temporary fixing length information.

5. An apparatus for setting a shape of a label, The label has a surface and a back surface provided on a side opposite to the surface, and is capable of being wound around a cable extending in a first direction, The label includes: a first label portion including a first display area; a second label portion adjacent to the first label portion in the first direction and including a second display area; and a leg portion adjacent to the first label portion in a second direction perpendicular to the first direction and having a width smaller than a width of the first display area in the first direction for winding around the cable, wherein The apparatus includes: a unit that acquires label width information for setting a width of the first direction of the first label portion; a unit that acquires winding portion width information for setting a width of the first direction of the leg portion; a unit that acquires winding portion length information for setting a height of the second direction of a winding portion in the leg portion that faces a surface of the cable when wound around the cable; a unit that acquires neck length information for setting a gap of the second direction between the winding portion in the leg portion and the first label portion; and a unit that sets a shape of the label based on the input label width information, the winding portion width information, the winding portion length information, and the neck length information.

6. A printing apparatus including: a conveyance unit that conveys a print medium including a label sheet and a release sheet to which the label sheet is adhered; a printing unit that performs printing on the label sheet; and The cutting unit acquires information indicating the shape of the label set by the device according to claim 4 or 5, and cuts the label sheet based on the information.

7. The printing apparatus according to claim 6, The printing unit is configured to cut the label sheet in a manner such that a direction in which the print medium is transported and the second direction are substantially parallel.

8. A printing system comprising: a transport unit that transports a print medium including a release sheet and a label sheet adhered to the release sheet; a printing unit that performs printing on the label sheet; the device according to claim 4 or 5; and a cutting unit that acquires information indicating the shape of the label set by the device, and cuts the label sheet based on the information.

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