JP2016517560A - User interface for label printers - Google Patents

Abstract

Providing a first image on a label printer user interface, wherein the first image represents at least one of at least one label to be printed and at least one object to which the label is applied; Providing a second image on the user interface associated with the image, wherein the second image represents a size of the one image; allowing a user to change a size of the second image; A method is provided that includes updating the dimensions of the first image accordingly when the dimensions of the two images are changed.

Description

  The present application relates to a user interface for a label printer and aspects related to the user interface.

  Known label printing devices are disclosed in EP-A-322918 and EP-A-322919 (Brother Industries, Ltd.) and EP-A-267890 (Vatronic). Each label printing apparatus includes a cassette receiving bay for receiving a cassette or tape holding case. In EP-A-267890, the tape holding case contains an ink ribbon and a substrate tape, the substrate tape comprising an upper image receiving layer fixed to the backing layer with an adhesive. In EP-A-322918 and EP-A-322919, the tape holding case contains an ink ribbon, a transparent image receiving tape, and a double-sided adhesive tape. The double-sided pressure-sensitive adhesive tape is fixed to the image tape on one side of both sides coated with an adhesive after printing, and has a backing layer that can be peeled off from the other adhesive-coated side. In both these apparatuses, the image transfer medium (ink ribbon) and the image receiving tape (substrate) are in the same cassette.

  For example, in EP-A-578372, it has also been proposed by the applicant to accommodate the ink ribbon and the substrate tape in separate cassettes.

  In all of these cases, the image receiving tape advances to the print area overlapping the ink ribbon. The print area is composed of a fixed print head and a platen. The print head may be pressed against the platen to transfer the image from the ink ribbon to the image receiving tape. There are many ways to do this, including dry lettering or dry film impression, but the most common is currently by thermal printing. In the thermal printing, the print head is heated and heat transfers ink from the ink ribbon to the image receiving tape.

  In other known tape printing devices, so-called direct thermal tape is used, where the image is produced directly on the thermal tape directly without the intervention of an ink ribbon cassette. The elements of the print head are heated and the heat reacts directly with the chemicals in the thermal tape to produce an image in or on the tape.

  A device of the type described above is provided with a keyboard that allows the user to enter characters, symbols, etc. to form an image to be printed by a tape printer. Keyboards typically have text character keys and numeric keys for entering letters and numbers, respectively, and several function keys. The function keys, among other things, operate the menu and allow print attributes to be set.

  A “stand-alone” label printer can be distinguished from a “label printer system” comprising a printer connected to a PC or other computing device. In such a label printer system, a user uses a PC to create or edit a label for printing, and then sends the print data to the printer so that the printer prints the print data on a label medium. To do. In such a label printer system, a user looks at a PC display rather than a printer display to produce a label. Also, label editing software for creating a label is stored and executed in a PC instead of a printer.

  In contrast, stand-alone label printers operate independently of a PC or other computer to produce and print labels. Some stand-alone printers can be connected to a PC or other computer to receive certain data, but they are nevertheless independent of the PC or other computer to produce a label for printing. Works. This is because the label editing software used to create the label is stored and executed in the label printer itself. As such, stand-alone label printers typically include an integrated display. Through the display, the user can see the interface of the label editing software.

EP-A-322918 EP-A-322919 EP-A-267890 EP-A-578372

  According to a first aspect, a first image is provided on a label printer user interface, wherein the first image represents a label to be printed or an object to which a label is applied; associated with the first image Providing a second image on the user interface, wherein the second image represents a size of the one image; allows a user to change a size of the second image; A method is provided that includes updating the dimensions of the first image accordingly when the dimensions are changed.

  Preferably, a numerical value of the dimension of the second image is displayed on the user interface, and when the dimension of the second image is changed, the numerical value is updated accordingly.

  Preferably, a numerical value is displayed adjacent to the second image.

  Preferably, the numerical value is displayed in a toolbar area of the user interface.

  Preferably, the dimensions of the first image include one of the length and width of the label to be printed or the object to which the label is applied.

  Preferably, the dimensions of the first image include the distance between the printed label or the object to which the label is applied.

  Preferably, the second image includes an arrow.

  Preferably, changing the size of the second image includes selecting and dragging an edge of the second image.

  Preferably, changing the second image includes selecting an edge of the second image at a first location on the user interface and subsequently selecting a second location on the user interface.

  In a further aspect, there is provided a computer program comprising computer program code means configured to perform the above method when the program is executed on a computer.

  In a further aspect, an apparatus comprising a controller that outputs data to a display driver for driving the display to cause the display driver to display a first image on a label printer user interface on the display. Where the first image represents the label to be printed or the object to which the label is applied and displays a second image on a user interface associated with the first image, wherein the second image The image is configured to represent the size of the first image; the controller is configured to allow a user to change the size of the second image; the size of the second image has been changed Sometimes, the controller is provided with an apparatus configured to update the dimensions of the first image accordingly.

  Preferably, the controller is configured to output data for causing the display to display a numerical value of the size of the second image on the user interface, and accordingly when the size of the second image is changed The numerical value is updated.

  Preferably, the controller is configured to display the numerical value adjacent to the second image.

  Preferably, the controller is configured to cause the numerical value to be displayed in a toolbar area of the user interface.

  Preferably, the dimensions of the first image include one of the length and width of the label to be printed or the object to which the label is applied.

  Preferably, the dimensions of the first image include the distance between the printed label or the object to which the label is applied.

  Preferably, the second image includes an arrow.

  Preferably, the controller is configured to change the size of the second image in response to an operation of selecting and dragging the edge of the second image.

  Preferably, the controller selects an edge of the second image at a first position on the user interface and subsequently dimensions of the second image in response to selecting a second position on the user interface. Configured to change.

  In a further aspect, a user interface for a label printer is provided on the display; a first screen associated with the label creation process is displayed on the user interface; a selector selects a first position on the display; And in response to moving the selector to a second position on the display, displaying on the user interface a second screen associated with the label creation process, the two screens being the first A method different from the screen is provided.

  Preferably, the selector comprises a user control pointer on the display.

  Alternatively, the display includes a touch screen and the selector includes one of the user's finger and stylus.

  Preferably, the second point is arranged perpendicular to the first point.

  Preferably, the second point is arranged horizontally from the first point.

  Preferably, the content of the second screen displayed on the user interface depends on the direction in which the selector is moved on the display.

  Preferably, the user interface proceeds to the next step of the label creation process as the selector moves from right to left on the display.

  Preferably, as the selector moves from left to right on the display, the user interface shifts to a step before the label creation process.

  Preferably, the label creation process includes a label creation wizard.

  Preferably, the user interface includes an indicator for indicating to the user the progress of the label creation process.

  Preferably, the indicator is automatically updated in accordance with the movement from the first screen to the second screen.

  In a further aspect, there is provided a computer program comprising computer program code means configured to perform the above method when the program is executed on a computer.

  In a further aspect, an apparatus comprising a controller, wherein the controller outputs to the display driver data for driving the display to cause the display driver to display a user interface for the label printer on the display; And displaying a first screen associated with the label creation process; and detecting selection of the first position on the display by the selector and movement of the selector to the second position on the display In response, the controller is configured to display a second screen associated with the label creation process on the user interface, wherein the second screen is provided with a device different from the first screen.

  Preferably, the selector comprises a user control pointer on the display.

  Preferably, the display includes a touch screen and the selector includes one of a user's finger and a stylus.

  Preferably, the second point is arranged perpendicular to the first point.

  Preferably, the second point is arranged horizontally from the first point.

  Preferably, the content of the second screen displayed on the user interface depends on the direction in which the selector is moved on the display.

  Preferably, in response to detecting a right-to-left selector movement on the display, the controller is configured to advance the user interface to the next step in the label creation process.

  Preferably, in response to detecting the movement of the selector from left to right on the display, the user interface transitions to the previous step of the label creation process.

  Preferably, the label creation process includes a label creation wizard.

  Preferably, the controller is configured such that the user interface displays an indicator for the user to indicate the progress of the label creation process.

  Preferably, the controller is configured to automatically update the indicator in response to movement from the first screen to the second screen.

  In a further aspect, an error counter associated with a number of errors in the label creation process is displayed on the user interface; allowing the user to repeat each error in the error counter, and the error counter display error count A method is provided for displaying an error associated with an in a preview area of the user interface.

  Preferably, a visual indicator is displayed adjacent to the display error.

  Preferably, the image of the object or label containing the error is concentrated in the preview area.

  Preferably, a label number indicator is provided to inform the user which label of the series of display errors is associated with.

  Preferably, the error counter includes a pop-up window that at least partially overlays the preview area.

  Preferably, the error counter includes at least one associated icon that increases the count of the error counter when activated by the user.

  Preferably, the error counter includes at least one associated icon that, when activated by the user, decreases the count of the error counter.

  In a further aspect, there is provided a computer program comprising computer program code means configured to perform the above method when the program is executed on a computer.

  In a further aspect, an apparatus comprising a controller, wherein the display driver drives the display to display on the user interface an error counter associated with a number of errors in the label creation process. Data is configured to output to the display driver; the controller is configured to allow a user to repeat each error in the error counter; An apparatus is provided that is configured to cause an associated error to be displayed in a preview area of the user interface.

  Preferably, the controller is configured to display a visual indicator adjacent to the display error.

  Preferably, the controller is configured to concentrate the image of the object or label containing the error in the preview area.

  Preferably, the controller is configured to display a label number indicator that informs the user which label of the series the display error is associated with.

  Preferably, the error counter includes a pop-up window that at least partially overlays the preview area.

  Preferably, the error counter includes at least one associated icon, and in response to activation of the icon by the user, the controller is configured to increase the count of the error counter.

  Preferably, the error counter includes at least one associated icon, and in response to activation of the icon by the user, the controller is configured to decrease the count of the error counter.

  In a further aspect, the label printer user interface displays a preview of the label to be printed in the first area and displays at least one icon associated with a plurality of options for creating the label in the second area. Wherein, after the user selects the at least one icon, the plurality of options is displayed to the user, whereby the displayed options are at least partially with the first region. A method of overlapping is provided.

  Preferably, the first area displays an image of an object associated with the printed label.

  Preferably, the size of the first region remains constant.

  Preferably, a plurality of options are displayed as a list.

  Preferably, a plurality of options are displayed as a menu.

  Preferably, the plurality of displayed options do not overlap the second area.

  Preferably, the displayed plurality of options includes an indicator pointing to the selected icon.

  Preferably, a plurality of icons are displayed in the second area, and after selection of the second icon, a plurality of options related to the two icons are displayed.

  Preferably, the indicator points to the second icon in response to the selection of the second icon.

  In a further aspect, there is provided a computer program comprising computer program code means configured to perform the above method when the program is executed on a computer.

  In a further aspect, an apparatus comprising a controller, wherein the controller outputs data for driving the display to the display driver for displaying a preview of the label on which the display driver is printed in a first area of the user interface. And is configured to display in the second region at least one icon associated with a plurality of options for creating a label; wherein after the user selects the at least one icon, the controller An apparatus is provided that is configured to display a plurality of options to a user such that the displayed options at least partially overlap the first region.

  Preferably, the controller is further configured to display an image of an object associated with the label in the first area.

  Preferably, the controller is configured to keep the size of the first region constant.

  Preferably, the controller is configured to display a plurality of options as a list.

  Preferably, the controller is configured to display a plurality of options as a menu.

  Preferably, the controller is configured to display the plurality of options such that the plurality of options do not overlap the second area.

  Preferably, the controller is configured to provide an indicator pointing to the selected icon for the plurality of displayed options.

  Preferably, the controller is configured to display a plurality of icons in the second area, and after selecting the second icon, the controller is configured to display a plurality of options related to the second icon.

  Preferably, in response to selection of the second icon, the controller is configured such that the indicator points to the second icon.

  Embodiments are described below by way of example only with reference to the drawings.

FIG. 1 is a plan view showing a predetermined portion of one type of label printing system. FIG. 2 is a plan view showing another type of predetermined portion of the label printing system. FIG. 3 is a schematic view of a predetermined portion of the label printing system. FIG. 4 illustrates a user interface according to an embodiment. FIG. 5 illustrates a user interface according to an embodiment. FIG. 6 shows the evolution of the user interface of FIG. FIG. 7 shows the evolution of the user interface of FIG. FIG. 8 shows a user interface according to a further embodiment. FIG. 9 shows the evolution of the user interface of FIG. FIG. 10 shows a user interface according to a further embodiment. FIG. 11 shows the evolution of the user interface of FIG. FIG. 12 shows the evolution of the user interface of FIG. FIG. 13 shows the evolution of the user interface of FIG. FIG. 14 shows a user interface according to a further embodiment. FIG. 15 shows the evolution of the user interface of FIG. FIG. 16 shows a user interface according to a further embodiment. FIG. 17 shows the evolution of the user interface of FIG. FIG. 18 shows the evolution of the user interface of FIG. FIG. 19 shows a user interface according to a further embodiment. FIG. 20 is a development of the user interface of FIG. FIG. 21a shows the selection of the first type of cable. FIG. 21b shows the selection of the second type of cable. FIG. 22a shows the selection of the first pipe label criterion. FIG. 22b shows the selection of the second pipe label criteria. FIG. 23a shows some available patch panel criteria or templates. FIG. 23b shows the selection of the first template. FIG. 23c shows the selection of the second template. FIG. 24a shows the selection of the first pole number of the breaker. FIG. 24b shows the selection of the second pole number of the breaker. FIG. 25a shows the selection of one label for all ports of the patch panel. FIG. 25b shows the selection of one label for each group of ports on the patch panel. FIG. 26a shows some examples of information displayed for a pipe marking label. FIG. 26b shows some examples of information displayed for a pipe marking label. FIG. 26c shows some examples of information displayed for a pipe marking label.

  FIG. 1 shows a plan view of a first label printer, which has two cassettes arranged in the printer. In general, the label printer 1 is powered by a battery at least part of the time. Alternatively or additionally, the label printer can be powered from an electrical outlet.

  The upper cassette is positioned in the first cassette receiving unit 26 and includes a supply unit for the image receiving tape 4. The image receiving tape 4 passes through the printing area 3 of the label printer 1 to the outlet 5 of the label printer 1. The image receiving tape 4 includes an upper layer for receiving an image printed on the upper surface thereof, and has another surface coated with an adhesive layer, and a backing layer that can be peeled is fixed to the adhesive layer. The upper cassette 2 has a recess for accommodating the platen 8 of the label printer 1 and guide portions 22 and 24 for guiding the tape through the printing area 3. The platen 8 is mounted for rotation within the cage molding 10. Alternatively, the platen can be attached to the pin for rotation. It should be appreciated that other types of image receiving tape can alternatively or additionally be used. For example, the image receiving tape can be provided with a plurality of die cut labels.

  The lower cassette 11 is disposed in the second cassette receiving portion 28 and includes the thermal transfer ribbon 12. The thermal transfer ribbon 12 extends from the supply spool 30 to the take-up spool 32 in the cassette 11. The thermal transfer ribbon 12 extends through the print zone 3 overlapping the image receiving tape 4. The cassette 11 has a concave portion 14 for receiving the print head 18 of the label printer 1 and guide portions 34 and 36 for guiding the thermal transfer ribbon 12 through the printing zone 3. The print head 18 is in contact with the platen 8 and the operating position shown in FIG. 1 where the thermal transfer ribbon 12 and the image receiving tape 4 are held in an overlapping manner between the print head 18 and the platen 8, and the print head. 18 moves away from the platen 8 and is movable between a thermal transfer ribbon 12 and a non-operating position for releasing the image receiving tape 4. In the operating position, the platen 8 rotates to drive the image receiving tape 12 past the print head 18 and the print head 18 prints an image on the image receiving tape 4 by thermal transfer of ink from the ribbon 12. To be controlled. Each printing element in the print head 18 can be actuated separately and is actuated according to the desired image to be printed. The label printer 1 has a lid (not shown) which is hinged along the rear of the cassette receiving portions 26 and 28 and covers both cassettes in place.

  A DC motor 7 (see FIG. 3) drives the platen 8 continuously. The platen is configured to drive the image receiving tape 4 through the print zone 3 by the action of its own rotation. In other embodiments, the transfer of the image receiving tape across the print head is accomplished by other means such as, for example, a separate drive roller of a printer or cassette, or a pair of cooperating rollers located on either side of the tape, or other means Can be performed.

  The image is printed by the print head 18 on the image receiving tape in a row on a column base. The rows are close to each other in the direction of movement of the tape 4.

  FIG. 2 illustrates in plan view the cassette bay of a second label printer 1 'that uses one cassette system. The same reference numbers are used for those parts also shown in FIG. The cassette bay is indicated by a dashed line 40. The cassette bay 40 includes a thermal print head 18 and a platen 8 that together define a print zone 3.

  The print head 18 is pivotable about a pivot point so that the print head 18 can be in contact with the platen 8 for printing and the cassette is removed as in the first embodiment. It can be moved away from the platen 8 so that it can be replaced. Alternatively, the platen can be brought into contact with the print head for printing and can be pivoted away from the print head so that the cassette can be inserted. A cassette inserted into cassette bay 40 is indicated generally by the reference numeral 44. The cassette 44 holds the supply spool 46 of the image receiving tape 4. The image receiving tape 4 is guided by the guide mechanism (not shown) through the cassette 44, past the printing area 3, and from the cassette 44 through the outlet O to the cutting position C. The same cassette 44 also has an ink ribbon supply spool 48 and an ink ribbon take-up spool 50. The ink ribbon 12 is guided from the ink ribbon supply spool 48 to the printing area 3 and taken up by the ink ribbon take-up spool 50. Similar to the first embodiment, the image receiving tape 4 overlaps the ink ribbon 12 and passes through the printing area 3, and the image receiving layer contacts the ink ribbon 12. The platen of the second embodiment is also driven by a motor 7. The motor rotates and continuously drives the image receiving tape through the printing zone 3 during printing. In any of the embodiments, the tape can be driven in a stepwise fashion by a step motor.

  The image is printed on the tape, and the tape is conveyed from the printing area to the cutting position C. The cutting position C is provided at a part of the wall of the cassette 44 close to the printing area 3. Said part of the wall of the cassette 44 in which the cutting position C is defined is indicated by reference numeral 52. A slot 54 is defined in the wall portion 52, and the image receiving tape 4 passes through the printing area 3 and is conveyed from the cassette 44 through the outlet O to the cutting position C. In the cutting position C, the tape 4 is supported by the facing wall portion on either side of the slot 54.

  The second label printing apparatus 1 ′ includes a cutting mechanism 56. The cutting mechanism 56 includes a cutter support member 58 that holds the blade 60. The blade 60 cuts the image receiving tape 4 and then enters the slot 54. It should be appreciated that the first embodiment also typically includes a cutting mechanism.

  These example label printers 1 and 1 'may operate as stand-alone printing devices. A stand-alone printing device includes a controller for receiving input from a user and changing what is displayed on the display of the printing device. Furthermore, the label printers 1 and 1 'can alternatively or additionally be connected to or connected to a PC. In this case, the PC also includes a controller that receives input from the user and changes what is displayed on the printer or on the display of the PC.

  A basic circuit configuration for controlling the label printer 1 of FIG. 1 or the label printer 1 'of FIG. 2 is shown in FIG. There is a controller or “control means” (such as a microcontroller unit (MCU) or processor) 600 and a non-volatile memory 602, for example a read only memory (ROM) or a flash memory. Flash memory can be used instead of or in addition to read-only memory. Volatile memory including random access memory RAM 604 and / or display RAM is also provided. The MCU 600 is connected to receive label data input to the MCU 600 from a data input device such as the touch panel 608 of the touch screen 612 via the touch panel controller 606. In an alternative embodiment, the data input device includes one or more keys, a mouse, a digital pen or a trackball, or any other means for allowing a user to send commands to the controller 600 Multiple hardware keyboards may be provided. In certain embodiments, the touch screen 612 is omitted. The MCU 600 drives the display 610 (which forms a touch screen 612 with the touch panel 608) and outputs data to display a printed label (or part thereof) and / or a message to the user. Additionally, the MCU 600 also outputs data and drives the print head 18 so that the label data is printed on the image receiving tape that forms the label. Finally, MCU 600 also controls motor 7 to drive the platen. The MCU 600 may also control the cutting mechanism 56 of FIG. 2 or the cutting mechanism of the apparatus shown in FIG. 1 to allow a length of tape to be cut. In an alternative embodiment, at least a portion of the cutting mechanism can be manually operated.

  When the label printer 1 or 1 'is connected to an external device such as a PC, similar components such as at least one memory and at least one processor are provided to enable the PC to perform an operation for producing a label to be printed. It should also be understood that the PC is included. Such a PC is also connected to a display means such as a monitor. It should be appreciated that the label printer can be connected to any other suitable device such as a tablet or cell phone.

  In the following, it should be understood that the label can be produced either on the label printing device itself or on an external device such as a PC connected to the label printer or both. Thus, hereinafter, it will be understood that terms such as “memory”, “processor” and “display” may refer to those components in either or both of the label printing device and the PC.

  It should be appreciated that the label printer is shown for illustrative purposes only. In other embodiments, the ink ribbon may be omitted. In some embodiments, the printer may use a different printing technology, for example, thermal printing, such as inkjet printing. In certain embodiments, the print head may be fixed, and in other embodiments both the platen and the print head may be movable.

  The user input device can be provided by any suitable device. The input device may be provided by a keyboard and / or touch screen.

  FIG. 4 generally illustrates a user interface 400 according to certain embodiments. The user interface 400 may be presented on a PC monitor, a label printing device display, or a device to which a label printer is connected. The user can move around the user interface 400 by known means. For example, the user may operate a mouse or trackball and select an option in the user interface 400 by placing the mouse pointer on the icon and clicking on the icon to select the icon. be able to. However, it should also be appreciated that in other embodiments where, for example, a touch screen is used, the user may directly touch the screen or display to select an icon and enter information. The user may also use a hardware keyboard or the like attached to a PC or directly attached to a label printer to move around the user interface.

  In the embodiment of FIG. 4, if the user clicks on the home icon 402, the user is now provided with a home screen 401. This provides the user with many label types. Label types can be selected by clicking on their respective icons. These label types include general label 404, cable wrap label 406, 110-block label 408, patch panel label 410, horizontal breaker label 412, asset tracking label 414, heat shrink label 416, arc flash label 418, quick label 420, It includes a flag label 422, a distribution panel label 424, a terminal block label 426, a vertical breaker label 428, a pipe marking label 430, a cell flaming cable wrap label 432, and a know rights label 434. It should be appreciated that additional label types can be displayed alternatively or additionally on the home screen 401. Examples of other label types may include safety labels and material management labels.

  It should be understood that the display may display one or more label types. These label types may include one or more of the label types described above and / or one or more other label types.

  The heat shrink label 416, the arc flash label 418, the self-flamming cable wrap label 432, and the know right label 434 are each displayed with an exclamation mark near their icon. This informs the user that their label type is not available in a given context. For example, it may not be possible to print those label types on a selected type of label material. The selected type of label material is shown in portion 436 of user interface 400.

  It should be appreciated that the label type can be displayed such that available label types are displayed together for a selected label material and / or property and / or size. It should be understood that the label type may be displayed such that a label type that is not available for a selected label material and / or property and / or size is displayed together. In the example shown in FIG. 1, the available label types may be displayed in the area of the display that is considered the first area that should be seen, or in the area that is considered to contain the most relevant or important information. . For a list, this can be at the top of the list. If left and right alphabets are used, the available choices can be displayed on the left side of the screen.

  The type of label option is presented to the user when the user clicks the “New label” icon 438. In the embodiment of FIG. 4, the “new label” screen also doubles as the home screen.

  Other options are also available to the user via the user interface 400. These include an “Open Label” icon 439. By clicking on this icon, the user can open a previously saved label. By clicking on the “File Management” icon 440, the user can manage their stored files, eg rename the file and move the file to and from the label printer. Enter the interface. The user can also access the settings menu via icon 442 to change user interface settings. For example, the user can change the language settings and whether to use imperial units or metric.

  By clicking on icon 444, the user is presented with a drop-down list of label printers. The type of label printer selected may determine, for example, the type of label available to the user and / or the format options available.

  Icon 446 is a “Quick Print” icon, which allows the user to quickly print the currently displayed label by clicking on icon 446.

  If the user is already in the process of preparing a label and exits the label editing screen for any reason, the user can quickly return to editing the label by clicking the “continue editing” icon 448.

  FIG. 5 shows a user interface 500 associated with creating a patch panel label. This screen can be reached by selecting the patch panel icon 410 (see FIG. 4). The patch panel user interface 500 includes three general areas: an options or toolbar area 502; a label preview area 504; a data entry area 506.

  In the toolbar area 502, the user can change the label and / or the manner in which the label is applied. In the embodiment of FIG. 5, the user prepares a patch panel label, so the options relate to the patch panel and / or associated label. For example, as shown at 508, the user can change the number of ports on the patch panel. In this example, the number of ports is set to 12. This number can be adjusted by the user in any known manner. For example, if the user hovers the mouse pointer over the “number of ports” option 508, up and down arrows may be displayed, which allows the user to increase and decrease the number of ports. In region 510, the user can adjust the center-to-center distance between the patch panel ports. As shown at 512, the user can adjust the number of ports per group. In this example, the user has selected 6 ports per group. As shown at 514, the user is also presented with options for adjusting the group clearance, ie, the distance between groups of ports. In this example, the user has set the group clearance to 1/4 inch. As shown at 516, the user has the option to adjust the label settings. This provides the user with a drop-down menu that allows the user to select between a separate label and a continuous label. In the “separate” label, there is a separate label for each patch panel group. With a “continuous” label, a single label is provided to cover all of the patch panel group. In this example, the user has selected a separate label for each patch panel group.

  The label preview area 504 displays the image of the label 518 and the image of the target 520 to be printed. In this case, the target is the patch panel 520. The properties of the patch panel 520 match the properties input to the toolbar 502. For example, the patch panel has 12 ports, and each group has 6 ports.

  Hereinafter, the image of the patch panel 520 is an additional image representing the dimensions of the patch panel. This additional image includes a double-headed arrow 522 and a double-headed arrow 524. An arrow 522 indicates the length of the first group of ports of the patch panel 520. Patch panel 520 includes a first group of ports 521 and a second group of ports 523. Arrow 522 represents the length of the first group of ports 521. This length value is shown adjacent to the 526 label. In this example, the overall length of the first group of ports is indicated as 3 inches and 5/8 inches. The distance between the port groups 521 and 523 is indicated by 528, ie, the adjacent arrow 524. In this example, the distance between groups is a quarter inch, which matches the group clearance set at 514. It will be appreciated that the means for indicating the dimensions of the patch panel can take other forms, and the use of arrows is merely an example. For example, bars and lines without arrows can be used. It will also be appreciated that arrows or other means can be used to represent or indicate any dimension of the object 520 or label 518. For example, the dimensions can be length, width, depth, corner dimensions, and the like.

  In the embodiment of FIG. 5, the arrow includes vertical lines 530, 532, and 534 at its ends. This clearly defines the end of the dimension indicated by the arrow.

  Data entry area 506 allows a user to enter information into data grid 536. Data in the data grid 536 is automatically mapped to the label 518 or can be dragged and dropped onto the label 518. Alternatively, the user can enter data directly into label 518 by clicking on label 518 and subsequently entering the required data.

  The user can change the parameters of label 518 and / or subject 520 as shown in FIG. As described above, one way to change parameters is in the toolbar area 502. Also, the user can change the dimensions of label 518 and / or object 520 by changing the length of arrows 522 and 524. For example, if the arrow 522 is shortened, the length of the first port group 521 is shortened accordingly. Similarly, when the arrow 522 is lengthened, the first port group 521 is extended accordingly.

  In one embodiment, the arrow 522 can be extended and / or shortened by “grabbing” the arrowed end with, for example, a mouse pointer, and then dragging and dropping the arrow end until it reaches the desired new length. In the example of FIG. 6, the user extends the length of the arrow 522, but the length of the first port group 521 is increased accordingly. In this example, the user has selected or “grabbed” the right end of arrow 522 by clicking or selecting the right end arrow in any other manner and then dragging the arrow to the desired length. As shown at 526, the length extends from a length of 3 and 5/8 inches to 4 and 3/4 inches as shown in FIG. In some embodiments, the length displayed next to the arrow at 526 is updated as the arrow length is changed (ie, in real time). Thus, the user can easily see the change in length during the drag operation. Further, by increasing the overall length of the patch panel groups 521 and 523, the center distance between the ports also increases. This is indicated at 510, and the center-to-center distance has increased from 39/64 inches in FIG. 5 to 51/64 inches as shown in FIG. This value 510 in the toolbar 502 can also be updated simultaneously during the operation of changing the length of the arrow 522. “Simultaneous” means that the value changes in real time or simultaneously with the length of the changing arrow.

  It should be understood that a “drag and drop” operation that changes the length of the arrow can be implemented in many ways. For example, the user can hold down the mouse button while changing the length of the arrow. In another embodiment, the user can click the mouse button once to start the operation and then click the mouse button again to end the operation. When using the touch screen, the user selects the end of the arrow with his / her finger and then drags the finger on the screen to change the length of the arrow, or touches the screen at a different position and moves the arrow A new position for the end of the can be selected.

  Similarly, the user can change the distance between the port groups 521 and 523. As shown in FIG. 7, the arrow 524 is extended, and the port groups 521 and 523 are also extended accordingly. The arrow may be extended in the same or similar manner as arrow 522 as described above. The value 528 has been updated to show an increase in group clearance from a quarter inch as shown in FIG. 6 to 1 inch as shown in FIG. Again, the displayed value can be changed in real time or “simultaneously” when the arrow is extended. Also, the value 514 in the toolbar 502 has been updated to reflect the increase in group clearance up to 1 inch. This value in the toolbar can also change in real time when the arrow 524 is extended.

  It will also be appreciated that adjusting the value in the toolbar area 502 may adjust the value in the preview area 504 in real time accordingly. Further, adjustment of the length of arrows 522 and 524 provides real-time adjustment of the image of label 518 and the image of object 521, but may not provide real-time adjustment of the displayed value.

  Of course, it will be appreciated that this principle can be extended to other label types and is not limited to patch panel labels. 8 and 9 show the adjustment of the “general label”. A generic label can be prepared by first clicking or selecting a generic label icon 404 on the user interface 400. Next, a user interface screen 1600 is presented to the user, for example, as shown in FIG. The user interface 1600 includes a toolbar area 1602, a label preview area 1604, and a data input area 1606.

  The toolbar area 1602 provides the user with a number of options. These include allowing the user to switch the label orientation between portrait mode and landscape mode. As shown at 1608, in this example, the user has selected landscape mode. As shown at 1610, the user can use the toolbar to change the length of the label using a “stepper” 1611. In option box 1612, the user can change several layout options for the label, such as whether the label is bounded and whether the trailer and leader lengths match. The user can click on the “Set as Default” option 1614 to save the current setting as a new default setting.

  The label preview is indicated at 1618 in the label preview area 1604. At 1622, an arrow is shown adjacent to the label 1618, which indicates the length of the label 1618. A numeric value for the length of label 1618 is shown at 1626. In the example of FIG. 8, the length of the label is 2 inches. This is consistent with the length of the label shown at 1610 in the toolbar 1602.

  The length of arrow 1622, and accordingly the length of label 1618, can be lengthened or shortened by adjusting the length of arrow 1622 in the same or similar manner as described with respect to FIGS. That is, the user can select the end of the arrow 1622 and move it to a new position to set a new length. In FIG. 9, the user has increased the length of arrow 1622 and hence the length of label 1618 from 2 inches as shown in FIG. 8 to 3 inches as shown in FIG. The image of label 1618 can be updated in real time or “simultaneously” when adjusting the length of arrow 622. Further, the length of the label indicated by 1610 is also updated in real time. Also, it can be seen that when the label length is changed by the user in the option box 1610, the image of the label 1618 and the image of the arrow 1622 are updated in the label preview area 1604 in real time or “simultaneously”. I will.

  It will be appreciated that in FIGS. 5-9, the extension of the arrow and the corresponding extension of the associated image of the object or label are discussed. Of course, it will be appreciated that the same principles can be applied to the shortening of arrow images and the associated shortening of labels and / or target images.

  Some embodiments may increase user convenience. This is because the user can see the current length of the dimension being changed at any time in the label or object change procedure. Providing real-time updates is useful for users. This is because it makes it possible to make adjustments in a one-step process. Further, by providing an arrow (or other suitable image) adjacent to the label or object to be changed, it is not necessary to select the image of the label or object itself to perform the change. This means that the user does not have to obscure the label or target image during the change procedure with a pointer or the like. This improves the user experience. This is because it improves the field of view of the label and / or object.

  A method for creating a patch panel label is described with respect to FIGS. 5-7, and a method for creating a general label is described with respect to FIGS. In each of these examples, the options (eg, labels and / or subject parameters) available to the user are displayed on the user interface simultaneously, eg, in the toolbar areas 502 and 1602. The user can adjust the options available on the toolbar in the desired order.

  10 to 13 show another method of creating a patch panel label. However, it should be noted that this is merely exemplary and that these principles can be applied to the creation of any other label type, for example the type of label shown in FIG. 10-13 show a series of screens used to guide the user to the patch panel label creation process in a linear step-by-step manner. That is, FIGS. 10 to 13 show a label creation “wizard”.

  FIG. 10 shows the first screen 700 of the label creation wizard. Bars 702 at the top of the screen display to the user that they are in patch panel mode. The second bar 704 displays to the user information that requires input, in this case “Set port numbers”. In some embodiments, a default value is provided, which can then be adjusted by the user. In the editing area 706, the user can input necessary information. In this case, in box 708, the user can enter the number of ports per row. In this case, the user has selected 24. In box 710, the user can specify how many ports should be included in each group, in which case the user has set a value of 6. A patch panel preview according to the input information is shown at 712.

  In 714, an indicator is provided to indicate how much label creation processing is required for the user. In FIG. 10, the circle highlighted in 714 indicates that the user is in the state of Step 1 out of 3. This information is also displayed in the area 716 of the display.

  An image of the user's hand is displayed at 718. In some embodiments, this is an actual icon on the user interface that the user can move with a mouse or tracker pad or other similar means. However, for the purposes of this example, a “wizard” is displayed on the touch screen, and the image of the hand 718 is illustrative of the user's hand (or stylus or other means) and is actually on the screen. Is not displayed. An arrow 720 indicates the direction of movement of the user's hand and is not actually displayed on the wizard screen. As described in connection with further drawings, the user can move the wizard screen by touching the touch screen and moving the position of the hand on the touch screen. In FIG. 10, it can be considered that the user is first touching the screen at position 722.

  As shown in FIG. 11, in the next step, the user drags his finger from position 722 to position 724. This action of moving the user's finger from right to left on the screen moves information displayed on the screen accordingly from right to left. That is, the box 708 shown in FIG. 10 has now moved to the left to the extent that it no longer appears on the screen 700, and as shown in region 726, at the right edge of the screen is the next step of the wizard. Is starting to be displayed on the screen 700.

  As shown in FIG. 12, the user continues to move his finger from right to left to a third position 728 and a greater percentage of the next step of the label creation wizard becomes visible in region 726.

  As shown in FIG. 13, the user then lifts his finger from the touch screen and the wizard proceeds to the next step. In doing so, indicators 714 and 716 indicate that the user is in step 2 of 3 of the label creation wizard. Currently, area 704 indicates that the user needs to define label settings. For example, the user can select one label for all ports or separate labels for different groups of ports.

  The user can also move the wizard screen using “previous” and “next” buttons 728 and 730.

  In FIGS. 10-13, the user proceeds to a later wizard screen by dragging or “swiping” his / her finger from the right to the left on the screen, but of course, the user performs the reverse operation, ie, from left to right. You will see that you can return to the previous screen by swiping in. These directions can also be changed. For example, the user can swipe from left to right to move to the next screen, and swipe from right to left to return to the previous screen. It is also possible to move between screens using the vertical movement of the user's finger or stylus on the screen.

  In the described embodiment, the user touches the screen at the first position and then moves or moves between the wizard screens by moving the finger to the second position while maintaining contact with the screen. In another embodiment, the user does not need to maintain contact with the screen. That is, the user simply touches the screen at the first position and then touches the screen at the second position so as to move between wizard steps (maintaining contact with the image between these two positions). Without). In some embodiments, the next or previous wizard screen is not displayed until the user stops touching the screen.

  10 to 13 can be applied to movement between other types of screens, but is not limited to the label creation wizard.

  The described embodiments allow a user to move between screens in a user friendly and intuitive manner. This can speed up the label creation process.

  In some embodiments, the user interface updates to display a full wizard screen when the user releases the screen or deselects. If the user interface shows a partial amount of the two wizard screens and the user releases the contact, then the screen that is displayed after each is displayed when the user releases the contact from the screen. Can depend on screen ratio. For example, in FIG. 11, if the user releases the screen, the user interface will revert to that shown in FIG. This is because only a small amount of the subsequent screen is shown in the area 726. Similarly, if the user releases the screen in FIG. 12, the user interface proceeds to display the second step of the wizard. This is because most of the screen was displayed when the user released the contact from the screen.

  Some embodiments may also provide an improved method for moving between labels and / or errors, as shown in FIGS. For example, FIG. 14 shows a user interface 800 for creating a label. The user interface includes an information area 802 that provides user information regarding the current process. For example, the information area in FIG. 14 indicates that the user is currently in the process of navigating the label. In area 808 of information area 802, the user is given information regarding which label of the series is currently displayed. In the example of FIG. 14, the user is given information that the first label is being prepared from a series of five labels.

  A label preview area 804 provides a preview of the label 810 to be printed. In this case, since the user has created a patch panel label, a preview of the patch panel 812 is also provided.

  In an options area 806 at the bottom of the user interface, the user can select from the options. In the example of FIG. 14, the user can use “radio” buttons 814 and 816 to move between the label and the error, respectively. In this example, the user is currently choosing to move between labels. Thereby, a label navigator “pop-up” or tool 818 is displayed on the user interface 800. The label navigator tool 818 superimposes a label and a preview area of the label showing the object side by side so that the label is visible and the object is still only partially visible. By looking at the label preview area, the human mind will interpret the label preview area as if there were no overlapping windows. Therefore, by providing information in the manner described, more information can be provided to the user with a limited display size.

  The label navigator tool 818 includes a first area 820 that informs the user which label is currently being viewed (in this case, label number 1). A numerical stepper 822 is also provided. The numerical stepper 822 includes a minus (−) button 824 and a plus (+) button 826. The user can move the label using the numeric stepper 822 by selecting either the minus icon 824 or the plus icon 826. As shown in FIG. 15, the user has selected the plus icon 826, and accordingly, the label numbers in the area 820 and the area 808 are updated, so that the currently displayed label is 2 out of a series of five. The label 811 is the second label.

  This concept can also be extended to display “errors” to the user. Errors may be accidentally created by the user during the label creation process, and these errors can be detected by the label creation program. As shown in FIG. 16, the user has selected an “errors” radio button 816. In response, a pop-up or error navigation tool 828 is displayed on the user interface. The error navigation tool 828 includes a first area 830 that displays to the user which error number is being viewed. In this example, the user is looking at error number 1. The error navigation tool 828 also includes a numerical stepper 832 that includes a minus icon 834 and a plus icon 836 that allow the user to move the error.

  A first error is present on the first label. In response, display area 808 informs the user that the error is in the first label of a series of five labels. The error is in area 838 of label 810. Region 838 is highlighted by a box 840 and a warning sign 842 that includes an exclamation point to clearly indicate where the error is on label 810. Of course, it will be appreciated that other methods of indicating errors may be used, such as the use of different colors, shades, flashing backgrounds, and the like. A warning sign 846 is also present in the display area 844. However, since this is not the currently selected error, it is not highlighted by a box as in region 838.

  In FIG. 17, the user has selected the plus icon 836 to advance the counter to display the second error. In response, region 844 is highlighted with a box to indicate that this is the location of the second error. This error is also included in the first label, as indicated by region 808.

  In FIG. 18, the user selects the plus icon 836 again so as to move to the third error. This error exists in area 850 of second label 848. In response, this area is highlighted in box 852 and displays a warning in the form of an exclamation point 854.

  Since an error exists in the second label 848, the area 808 has been updated to indicate this. Once the user has addressed all errors, the user can click the “done” button 856.

  Another feature provided in some embodiments is a menu “pop-up” or “overlay” as shown in FIGS. FIG. 19 shows a user interface 900 for label creation processing. The user interface 900 includes an information area 902, a label preview area 904, and an option area or toolbar 906. An information area 902 informs the user that the patch panel mode is in progress. Label preview area 904 includes a preview of label 908. Also, the information area 902 informs the user with a symbol 910 that the label printer is connected to the PC, and the symbol 912 indicates the current battery charge level of the label printer.

  The toolbar area 906 includes an “undo” function 914 that allows the user to undo the previous operation, and a “redo” function 916 that allows the user to redo the previously undone operation. Is provided. The magnifying glass icon 918 allows the user to zoom in and zoom out of the label preview. The maximize function 920 allows the user to maximize the user interface to fill the display.

  The toolbar 906 also includes selectable icons 922, 924, 926, and 928.

  Icon 922 is a “properties” icon that allows the user to change the properties of the label being created. Icon 924 is an “insert” icon that provides the user with options that can be inserted into the label. Icon 926 provides the user with a serialization function, and icon 928 provides the user with options to allow the user to move between multiple labels.

  In FIG. 19, the user has selected an icon 922 to pop up and display a “properties” menu 930 that partially overlaps the label image 908. In this case, since the user has created a patch panel label, the properties available to the user are those related to the patch panel label, such as port number, label settings (number of labels per group), patch panel dimensions and Whether to display a separator line. Property menu 930 includes a “close” button 932 in the form of an “x” and an indicator (in this case, arrow 934) pointing to property icon 922 to indicate that menu 930 is associated with that icon.

  In FIG. 20, the user is in a general label mode as shown in the information area 902. In FIG. 20, the user has selected an icon 924 that opens a new “insert” menu 936. In addition, the insertion menu 936 partially overlaps the label image 908 '. The insert menu provides user options related to items that can be inserted into the label, such as text 938, barcode 940, image 942 or shape 944. Image 942 and shape 944 options include arrows 946 and 948 associated with them, respectively. If the user selects either of these arrows 946 or 948, a further options menu is displayed on the right side of the menu 936 and again overlaps or partially overlaps the label preview 908 '. This further option menu provides, for example, a selection of images or shapes that can be inserted into the label. Here, arrow 934 'points to an "insert" icon 924 to indicate that the displayed menu 936 is associated with this icon.

  Reference is made to FIGS. 21 a and b showing a user interface displayed for the cable wrap mode in one embodiment. In cable wrap mode, the user may have the option of selecting a particular cable type. In the example shown in FIG. 21a, the user has selected the cable type CAT5 / 6 as reference numeral 100a. In FIG. 21b, the user has selected 2/0 cable type AWG: 4 / 0- as reference numeral 100b. It should be understood that the cable type can be any suitable cable type in addition to or instead of the two given examples.

  The first cable type of FIG. 21a has a cable diameter of 6 mm, while the diameter of the type of cable selected in FIG. 21b has a cable diameter of 11.64 mm. As can be seen, the image of cable 102a shown in FIG. 21a is correspondingly smaller than the image of cable 102b shown in FIG. 21b. The size of the label 104a for the cable of FIG. 21a is shorter than the corresponding label 104b for the cable of FIG. 21b. The dimensions of the cable are indicated by arrow 106a in FIG. 21a and by arrow 106b in FIG. 21b. These arrows are provided adjacent to the cable image. These show the dimensions of the displayed cable image.

  This allows the user to see that changing the object (in this case a cable) changes the image of the object being displayed and may also change the characteristics of the label itself.

  Reference is made to FIGS. 22a and 22b which show examples of pipe marking options.

  FIG. 22a shows a first example of setting a label for pipe marking according to the standard ASME A13.04 indicated by reference numeral 110a, while FIG. 22b is ASME A13.102 indicated by reference numeral 110b in this example. Some other label settings are shown. The images of the pipes in these two examples are displayed on the user interface, indicated by reference numeral 112a in FIG. 22a and reference numeral 112b in FIG. 22b, respectively.

  In FIG. 22a, a label 114a is shown wrapped around the pipe. The diameter of the pipe is shown at 116a adjacent to the image of pipe 112a. The width of the label is shown at 118a adjacent to the image of label 114a on pipe 112a.

  In FIG. 22b, a label 114b is shown extending along the length of the pipe 116b. The image shows a label on the pipe. The length of the label is indicated by 118b and is adjacent to the image of label 114b on the pipe. Also, the pipe diameter is shown adjacent to the pipe and is shown at 116b.

  This allows the user to see that a change in label settings results in a change in the label itself, which is reflected in the displayed image.

  Mention patch panel mode. In the patch panel mode as shown in FIG. 23 a, the user can select a template option from the template menu 120. As can be seen, a number of different predefined templates are available for the user to select. These can reflect standards, various products, can be set by the user and / or can be default options.

  In FIG. 23b, the user has selected the first template, and in FIG. 23c, the user has selected the second template. The selection of the first template is shown in FIG. 23b, which shows an image of the patch panel 122a with the image of the label 124a applied to the adjacent patch panel. The dimensions of the patch panel are displayed adjacent to the patch panel and are designated 126a. Various options are displayed at the top of the interface. In this example, the following options are shown: number of ports 127; distance between centers of ports 128; number of ports in each group 129; distance between groups 130. For each choice, the currently selected value is displayed. In the example shown in FIG. 23b, the number of ports is 16, the center-to-center distance is 26.46 mm, each group has 16 ports, and the group clearance is 6.35 mm.

  In contrast, the template displayed in FIG. 23c has 24 ports, the center-to-center distance is 16.23 mm, 8 ports are arranged in the group, and the group clearance is 6.35 mm. is there. As can be seen, the image of the patch panel and the label applied to it is different from that shown in FIG. 23b, reflecting this patch panel configuration. The displayed image reflects the value of the currently selected option.

  In the configuration shown in FIG. 23c, the length of the group of ports is indicated by the dimension adjacent to the port and is indicated by 126b. The distance between two adjacent groups of ports is displayed in the user interface below the spacing between the two groups and is shown as 126c.

  This allows the user to see that changing the template changes the displayed image of the target (patch panel) and may also change the label characteristics.

  Reference is made to FIG. 24a which shows an example of a vertical breaker. It should be understood that the described example is equally applicable to horizontal breakers. In the example shown in FIG. 24a, the number of poles of the first breaker is selected to be 1, while in FIG. 24b, the number of poles selected for the first breaker is three. Has been.

  In FIG. 24a, menu 140a is displayed, indicating the number of poles selected for the first breaker, in this example one. Therefore, the breaker image 146a shows the first breaker as having a single pole. A label image 142a is displayed adjacent to the vertical breaker image. Dimension information 144a is displayed adjacent to the label image.

  In FIG. 24b, menu 140b indicates that the first breaker has three poles. Correspondingly, the breaker image 146b shows that the first breaker has three poles. Accordingly, the image of label 142b has been adjusted to show a single field adjacent to the 3-pole breaker. The dimension information 144b is displayed again.

  Reference is made to FIG. 25a showing a label setting menu 150 for a patch panel. This label setting menu gives the user the option of having one label for all ports or one label per group. FIG. 25a shows the option of selecting one label for all ports, while FIG. 25b shows the option selection of one label for each group. As can be seen, the label images shown in FIGS. 25a and 25b, respectively, reflect the option selected by the user. As usual, the patch panel image is also displayed.

  Reference is made to FIGS. 26a, 26b and 26c showing some examples of information messages that can be displayed to the user. Figures 26a-c in the context of pipe marking are merely exemplary. In the example shown in FIG. 26a, the user has selected the label option ASME A13.102. In order to comply with the ASME A13.1 standard for a 12 mm label, a first information window 160 is shown indicating that a minimum font size of 36 should be selected.

  In the example shown in FIG. 26b, the diameter of the pipe is increasing, and accordingly, the image 162b of the pipe is also increased compared to the image 162a of FIG. 26a. The first information window 164 displayed to the user indicates that a minimum font size of 70 should be selected in order to comply with the ASME A13.1 standard 12 mm label. To comply with the ASME A13.1 standard for mm labels, a second information window 166 is displayed to the user indicating that a maximum pipe diameter of 30 mm should be selected.

  Reference is made to FIG. 26c, which shows a first information window 164 identical to FIG. 26b, and an additional information window 168 showing that markers larger than 2 inches are used for this size of pipe diameter.

  It should be understood that more than one window may be displayed simultaneously. The actual information displayed can be any suitable information.

  Different information can be provided to the user when the user changes the pipe and / or label size and / or font size and / or tape width. In the example shown in FIGS. 26a-c, the user is encouraged to provide a label that conforms to a particular standard for pipe marking.

  In other embodiments, the displayed information can be applied to any of the different types of labels, and the message or template or simply label convenience to encourage the user to comply with a particular standard. It should be understood that this can be a message for improvement.

  Information can be provided for any suitable type of label.

  A variety of different label applications have been described. It should be understood that in some embodiments, one or more features described in connection with one label application can be used in one or more other label applications.

  By way of example only, label applications can be used with one or more of the following objects: pipes, cables, breakers, wires, patch panels, distribution panels, terminal blocks, and 110 blocks.

  These pop-ups or overlays help the user create labels efficiently. In contrast to the user using a completely new menu screen, overlaying the label image not only speeds up the label creation process, but also allows the user to select from different options more quickly. It can also be possible. For example, if the user opens the properties menu 930 and wants to select the insert menu 924 instead, all the user has to do is select the insert icon 924. The user need not exit a previously opened property menu before doing this. Therefore, a label can be created more quickly. Also, by maintaining at least a portion of the image of the label on the display, the user can remain aware of the label context when moving the displayed option. In addition, many items can be displayed simultaneously in a pop-up that can reduce the amount of navigation required by the user.

  One of ordinary skill in the art can implement any of the methods described herein on a computer readable medium (such as a CDROM or memory in a stand-alone printer) for controlling a controller (or other similar device as described above). It will be understood that it can be implemented using a computerized computer program.

  Embodiments can be used with continuous tape or die cut labels. Die cut labels are provided on a continuous backing layer, but are individual precut labels. The tape or die cut label can be provided in a cassette or simply on a roll.

  What has been described above is merely illustrative of the principles of certain embodiments. Modifications and variations to the described embodiments will be apparent to those skilled in the art in view of the teachings herein. Accordingly, those skilled in the art can devise many techniques that are not explicitly described herein but that embody the principles of the described embodiments and that are within the scope of the claims. It will be understood that.

DESCRIPTION OF SYMBOLS 1 Label printer 2 Upper cassette 3 Print area 4 Image receiving tape 5 Outlet 8 Platen 10 Cage molding 11 Lower cassette 12 Thermal transfer ribbon 14 Recess 18 Print head 22 Guide part 24 Guide part 26 1st cassette receiving part 28 2nd cassette receiving part 30 Supply spool 32 Take-up spool 34 Guide section 36 Guide section 40 Cassette bay 44 Cassette 400 User interface 402 Home icon 500 User interface 502 Option or toolbar area 504 Label preview area 506 Data input area

Claims (23)

Next step:
Providing a first image on a label printer user interface, wherein the first image represents at least one of at least one label to be printed and at least one object to which the label is applied;
Providing a second image on the user interface associated with the first image, wherein the second image represents a dimension of the first image;
Allowing the user to change the dimensions of the second image;
Updating the dimension of the first image accordingly when the dimension of the second image is changed.   The method of claim 1, wherein the value of the dimension of the second image is displayed on the user interface, wherein the value is updated accordingly when the dimension of the second image is changed.   The method of claim 2, wherein the numerical value is displayed adjacent to the second image.   The method according to claim 2 or 3, wherein the numerical value is displayed in a toolbar area of the user interface.   The dimension of the first image includes one or more of a printed label length, a printed label width, and at least one target dimension to which the label is applied. the method of.   The method according to claim 1, wherein the dimensions of the first image include one or more of the distance between printed labels or the distance between two or more objects to which the label is applied.   The method according to claim 1, wherein the second image includes an arrow.   The method according to claim 1, wherein changing the dimension of the second image comprises selecting and dragging an edge of the second image.   The changing the second image comprises selecting an edge of the second image at a first location on the user interface and subsequently selecting a second location on the user interface. The method in any one of 1-7.   10. A method according to any preceding claim, wherein the at least one object comprises one of a pipe, cable, breaker, patch panel, distribution panel, terminal block and 110 block.   The method according to claim 1, wherein when the dimension of the second image is changed, the appearance of the first image is changed depending on the changed dimension.   A computer program comprising computer program code means configured to perform the method of any of claims 1 to 11 when the program is executed on a computer. A device comprising a controller, the controller comprising:
Output to the display driver data for driving the display to display the first image on the label printer user interface to the display, wherein the first image is at least one printed Represents at least one of the label or at least one subject to which the label is applied; and
Displaying a second image on the user interface associated with the first image, wherein the second image is configured to represent a dimension of the first image;
The controller is configured to allow a user to change the dimensions of the second image;
An apparatus configured to update the dimensions of the first image accordingly when the dimensions of the second image are changed.   The controller is configured to output data for causing the display to display a numerical value of the size of the second image on the user interface, and accordingly when the size of the second image is changed 14. The apparatus of claim 13, wherein the numerical value is updated.   The apparatus of claim 14, wherein the controller is configured to display the numerical value adjacent to the second image.   16. The apparatus according to claim 14 or 15, wherein the controller is configured to cause the numeric value to be displayed in a toolbar area of the user interface.   17. Apparatus according to any of claims 13 to 16, wherein the dimensions of the first image comprise one or more of the length of the printed label, the width of the printed label and the object to which the label applies. .   17. An apparatus according to any of claims 13 to 16, wherein the dimensions of the first image include one or more of the distance between printed labels and the distance between two or more objects to which the label is applied.   The apparatus according to claim 13, wherein the second image includes an arrow.   The apparatus according to any of claims 13 to 19, wherein the controller is configured to change a dimension of the second image in response to an operation of selecting and dragging an edge of the second image.   In response to the controller selecting an edge of the second image at a first location on the user interface and subsequently selecting a second location on the user interface, the controller measures the size of the second image. 20. An apparatus according to any of claims 13-19, configured to change.   The apparatus according to any of claims 13 to 21, wherein the at least one object comprises one of a pipe, a cable, a breaker, a patch panel, a distribution panel, a terminal block and a 110 block.   23. The controller of any of claims 13-22, wherein the controller is configured to change the appearance of the first image as a function of the changed size when the size of the second image is changed. Equipment.

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