Abstract: A method of creating a confidence map for an electronic fillable form may include identifying, by an electronic device, one or more fillable fields of an electronic fillable form. The method may include, for one or more of the identified fillable fields, assigning one or more first coordinates of the electronic fillable form to define a graphical zone associated with the fillable field, assigning one or more second coordinates of the electronic fillable form to define a fill zone, assigning one or more third coordinates of the electronic fillable form to define a click zone, and assigning, by the electronic device, one or more fourth coordinates of the electronic fillable form to define a start zone representing a most likely selection area for the fillable field. The method may include creating, a confidence map associated with the electronic fillable form.

Abstract: A method of determining placement of an input indicator on an electronic fillable form may include identifying, by an electronic device, a confidence map associated with an electronic fillable form. The confidence map may include, for one or more fillable fields of the electronic fillable form, a set of coordinates that define an area associated with each of one or more zones. The method may include receiving, by the electronic device, a selection of a portion of the electronic fillable form associated with one or more selection coordinates of the electronic fillable form, identifying a zone to which the selection coordinates correspond, and causing an input indicator to be displayed in a fill zone associated with the identified zone.

Abstract: A document validation system receives a scan of a certified document. The system identifies a security template for the document, prompts a user to enter a validation document into the scanning device, receives the validation document, uses the security template identify the location of one or more security elements on the certified document, and analyzes the validation document to identify expected content that should appear on the certified document at the security element locations. The system determines whether the expected content matches actual content of the scan at the security element locations and generates a report of the result.

Abstract: A document generation system creates a secure document by: receiving document content to be printed onto a substrate; creating a stencil mask comprising an image of at least a portion of the document content; receiving an image of a watermark to be printed on the substrate; modifying the watermark to remove portions of the watermark that will correspond to locations of the stencil mask; causing a print device to print the document content on the substrate; and causing the print device to print the modified watermark through the stencil mask on the substrate.

Abstract: A package design system creates one or more package design files by creating cut line instructions and fold line instructions. If the system determines that the package should be split across two or more substrates, it will select a fold line and convert the selected fold line to a seam. Conversion to a seam may occur by creating cut line instructions for the selected fold line, imparting a first set of functional elements on a first side of the seam, and imparting a second set of functional elements on a second side of the seam. The first set of functional elements and the second set of functional elements will form a functional connection when the three-dimensional structure is formed.

Abstract: A package design system creates one or more package design files by creating cut line instructions and fold line instructions for a package flat. If the system determines that the package flat should be split into two or more subparts across two or more substrates or two or more sub-regions of a single substrate, it will select a fold line and convert the selected fold line to a seam. Conversion to a seam may occur by creating cut line instructions for the selected fold line, imparting a first set of functional elements on a first side of the seam, and imparting a second set of functional elements on a second side of the seam. The first set of functional elements and the second set of functional elements will form a functional connection when the three-dimensional structure is formed.

Abstract: A system creates a copy of a document by: receiving an electronic representation a document to be copied onto a substrate; identifying a non-invasive watermark to be printed on the substrate; analyzing the document and the non-invasive watermark to determine whether a threshold amount of the non-invasive watermark can be printed in a white space of the document; and creating a secure copy of the document with the watermark. If the threshold amount of the non-invasive watermark can be printed in the white space, the system will print at least a portion the non-invasive watermark in the white space. Otherwise, the system will modify at least a portion of the non-invasive watermark to comprise an invasive watermark portion, and it will print the invasive watermark portion over a portion of the document's content.

Abstract: A mobile electronic device is used to decode a printed correlation mark. The device receives an image of a printed correlation mark, identifies a decoding template, applies the template to detect hidden content within the printed correlation mark, and outputs an image of the detected hidden content on the display. The device may enhance the image before presenting it on the display.

Abstract: A method of determining a layout of a structural document may include receiving a plurality of images, determining a design associated with a structural document, determining a number of facets associated with the structural document based on the determined design, determining an image area associated with the structural document, and determining a layout associated with the structural document based on the determined image area. The method may include determining an image aspect ratio associated with each of the plurality of received images, determining an area aspect ratio associated with each of the one or more areas, assigning each received image to one of the one or more areas based on the determined aspect ratio associated with the image and the determined area aspect ratio associated with the area, and causing a graphical representation of the structural document to be displayed.

Abstract: When printing 3D objects designed by a particular designer, authentication information such as a serial number and a digital signature of the designer are inserted into a CAD file for printing the object. The authentication information is represented as physical structures in or on the 3D-printed object. The physical structures (e.g., pits, cavities of one or more shapes, etc.) can be detected by a scanner (e.g., an ultrasound or the like), and the detected authentication information can be transmitted to an authentication server that determines the authenticity of the 3D-printed object and transmits the authenticity determination to a user.

Abstract: A method and system for embedding a database in a 3D object uses a 3D dimensional printing device and a computer-readable memory that stores a build sequence comprising instructions that, when executed by a processor, will cause the 3D printing device to form a three-dimensional object with an embedded data structure by depositing layers of build material and by including, in one or more of the layers, physical representations that represent a data structure.

Abstract: A method of extracting data embedded in a 3D object includes a 3D scanning device scanning a 3D object and extracting data embedded as physical representations in the 3D object. A processing device will identify, from the extracted data, instructions for performing an action on the data such as: displaying at least a portion of the data, transmitting at least a portion of the data to an external database, transmitting at least a portion of the data to an external application, or receiving user input for handling the data. The processing device may be part of the 3D scanning device or part of another device or system that is in communication with the 3D scanning device. The method includes performing the action, and returning a result of the action to a user of an electronic device. It may also include receiving a user selection of the portion of the data.

Abstract: A system and method for enhancing images including an image capture device operably connected to a data processing device that captures an image of a target vehicle, and a processor-usable medium embodying computer code, said processor-usable medium being coupled to said data processing device, said computer program code comprising instructions executable by said processor. The instructions configured for identifying a region within the image including a window of the target vehicle, applying a first image enhancement effect to the identified region, applying a second image enhancement effect to a remainder of the image not including the identified region, the second image enhancement effect different than the first image enhancement effect.

Abstract: A method and system of producing a three-dimensional object with an anti-counterfeiting measure uses a processor to access a data file including a plurality of parameters for producing a three-dimensional object, wherein the parameters comprise a plurality of structural parameters. The processor may also cause a three dimensional printing device to form the three dimensional object that exhibits the structural parameters by identifying a build material, identifying a concealment material, causing the three dimensional printing device to deposit a mixture of the build material and the concealment material in a plurality of layers, and causing the three dimensional printing device to cure the build material and concealment material to form the three-dimensional object with the anti-counterfeiting measure.

Abstract: Disclosed is a system and methods for selecting, organizing and presenting selected regions of digital documents within a dynamic display window for the arrangement and review of such regions.

Abstract: A mobile electronic device is used to decode a printed correlation mark. The device receives an image of a printed correlation mark, identifies a decoding template, applies the template to detect hidden content within the printed correlation mark, and outputs an image of the detected hidden content on the display. The device may enhance the image before presenting it on the display.

Abstract: A document contains a security element that combines a correlation mark and pantograph mark. The pantograph mark includes a dot pattern, part of which is printed to correspond to foreground pixels of the correlation mark, and another part of which is printed to correspond to background pixels of the correlation mark.

Abstract: A method and system automatically and dynamically updates the design of perforation lines in a package design file. It identifies an edge between two facets to which a perforation line is to be applied, determines a length of the edge, and uses the length of the edge and a default cut segment length to determine a number of cut segments that will be included in the perforation line. The method and system also may determine a phasing for the perforation line to ensure that the ends of the line are either a cut or spacer, depending on the desired function or placement of the line.

Abstract: A secure document contains a security mark that includes a background that exhibits a first color, and a foreground that exhibits a second color. The first color and the second color together exhibit a chrominance variation that is not visible to the unaided human eye or when viewed with the assistance of a magnifying glass, but that is visible when viewed with the assistance of a microscope. A method and system for printing such a document are also disclosed.

Abstract: A document contains a security element that combines a correlation mark and microgloss mark so that foreground pixels of the correlation mark are printed in a toner of a first color, and pixels of the correlation mark overwrite portions of the correlation mark in a second color, but neither the first color nor the second color appear on areas that correspond to background pixels of the correlation mark.