Abstract: A heat shrinkable film is formed with a lenticular lens array oriented and sized so that the film may be formed in a sleeve to shrink with application of heat about a container and provide for lenticular image effects as applied to the container.

Abstract: Disclosed herein is a method of making a corresponding lenticular image comprising: providing an output device in communication with a computer having a memory; receiving into the computer memory an interlaced image file; converting the interlaced image file into an output having an output resolution; varying the resolution of the output to define a varied output resolution; and creating a corresponding lenticular image using the output at the varied output resolution. In a preferred embodiment, the output device is a plate setter and the output is a plate. As such, in at least one embodiment, the method is suitable for use with a Computer-to-Plate (“CTP”) system.

Abstract: Described in this application is a method of making a continuous lenticular image label web and a process for making a plurality of lenticular labels using a continuous lenticular image label web. In addition, a continuous lenticular image label web is described and detailed. Several advantages accrue from the methods described, including reduced time and cost to manufacture lenticular image labels. Advantageously, on-serting of lenticular labels is not required.

Abstract: Disclosed herein is a method for determining a lenticular lens resolution for use in digital press printing. The method includes determining a digital press machine resolution d, setting a master interlaced image resolution m for a master interlaced image such that the master interlaced image resolution is equal to the machine resolution, setting a number of frames f to be included in the master interlaced image, and determining a lenticular lens resolution L according to the relationship L=d/f. The result is a digitally output lenticular image that can be have many applications, including use in products such as containers, packages, labels, and the like. The selection process accounts for variations in digital press machine resolutions, lenticular lens resolution variations, various screening algorithms, to yield a high quality, commercial-grade digitally output lenticular image.

Abstract: Disclosed herein is a digitally imaged lenticular product comprising a lenticular lens having an array of lenticules defining a front surface, and a substantially flat back surface located opposite the front surface. The product further includes a digitally output interlaced image digitally printed and joined to the flat back surface of the lens so as to be in correspondence with the array of lenticules. The digitally output interlaced image includes at least one individually customizable element. The digitally imaged lenticular products can be part of a variety of consumer end products, such as a container, a cup, a label, and a package. This permits final digitally imaged lenticular products to have a wide range of variance and versions, both from one lenticular run to the next, as well as within a run, thereby accommodating individualized data.

Abstract: Disclosed herein is a method of making a corresponding lenticular image comprising: providing an output device in communication with a computer having a memory; receiving into the computer memory an interlaced image file; converting the interlaced image file into an output having an output resolution; varying the resolution of the output to define a varied output resolution; and creating a corresponding lenticular image using the output at the varied output resolution. In a preferred embodiment, the output device is a plate setter and the output is a plate. As such, in at least one embodiment, the method is suitable for use with a Computer-to-Plate (“CTP”) system.

Abstract: Disclosed herein is a method and an apparatus for determining a lenticular lens resolution for use in digital press printing. The method and an apparatus consists of determining a digital press machine resolution d, setting a master interlaced image resolution m for a master interlaced image such that the master interlaced image resolution is equal to the machine resolution, setting a number of frames f to be included in the master interlaced image, and determining a lenticular lens resolution L according to the relationship L=d/f. The result is a digitally output lenticular image that can be have many applications, including use in products such as containers, packages, labels, and the like. The selection process accounts for variations in digital press machine resolutions, lenticular lens resolution variations, various screening algorithms, to yield a high quality, commercial-grade digitally output lenticular image.

Abstract: Disclosed herein is a digitally imaged lenticular product comprising a lenticular lens having an array of lenticules defining a front surface, and a substantially flat back surface located opposite the front surface. The product further includes a digitally output interlaced image digitally printed and joined to the flat back surface of the lens so as to be in correspondence with the array of lenticules. The digitally output interlaced image includes at least one individually customizable element. The digitally imaged lenticular products can be part of a variety of consumer end products, such as a container, a cup, a label, and a package. This permits final digitally imaged lenticular products to have a wide range of variance and versions, both from one lenticular run to the next, as well as within a run, thereby accommodating individualized data.

Abstract: A lenticular bar code image includes a lenticular lens having a front surface including a plurality of lenticules and a back surface opposite the front surface; and an image joined to the back surface of the lens, the image including a bar code symbol having bars. The lenticular lens and the image are in overlay relationship with one another such that a lenticular bar code angle is formed between the bars of the bar code symbol and the lenticules of the lenticular lens. As such, the bar code symbol is readable through the lenticules of the lenticular lens when the lens and image are in overlay relationship with respect to each other. The invention provides a reliable way to scan products, such as cups, containers, labels, and packages having lenticular images that include bar codes, such as UPC symbols.

Abstract: The present invention provides a lenticular lens and method for manufacturing the lens, and in particular when the lens is a lenticular lens web, such that finishing operations (e.g., cutting, laminating, etc.) and various end-use applications of the lens (e.g., labeling) can be achieved or accommodated in-line with the manufacture of the lens web. A lenticular pattern-forming device comprising a housing that is rotatable about a central longitudinal axis is disclosed. The housing has an outer surface having a groove pattern. The groove pattern includes circumferentially and longitudinally extending grooves on the outer surface and the grooves have substantially equal groove widths. The longitudinally extending grooves are substantially parallel with the central longitudinal axis and grooves cover the outer surface of the housing.

Abstract: Disclosed herein is a molded article bearing a lenticular image on its surface that is prepared by a method comprising the steps of: A providing a mold in which to form the molded article; B. inserting a lenticular image into the mold; C. introducing a molten plastic into the mold to form the molded article with the lenticular image attached to a surface of the molded article; and D. removing the molded article with the attached lenticular image from the mold.

Abstract: Methods are disclosed for preparing and applying an interlaced image to a curved surface. In one embodiment of the invention, a method for preparing an interlaced image for application to a curved surface, the interlaced image comprising two or more frames, such that when the interlaced image is viewed through a lenticular lens, the lens comprising a plurality of lenticules and having a base resolution, from a predetermined viewing distance, the interlaced image is viewed substantially free of distortion, the method comprising the steps of: A. determining the base resolution of the lens; B. determining a resolution of the lens when the lens is configured to conform to the curved surface; C. manipulating the interlaced image, the image comprising interlaced segments, to conform with the resolution of the lens as applied to the curved surface such that the lenticules of the lens are in correspondence with the segments of the image; and D.

Abstract: Disclosed herein is a high definition lenticular lens and a high definition lenticular image. The high definition lenticular lens can comprise a front surface having a plurality of lenticules and a substantially flat back surface opposite the front surface. Each lenticule has characteristic parameters that include a focal length, an arc angle, and a width. The arc angle is greater than about 90 degrees and the width is less than about 0.0067 inches. The lens has a gauge thickness that is equal to or substantially equal to the focal length. The high definition lenticular image comprises a precursor image joined to the high definition lenticular lens.

Abstract: A method of producing a multidimensional image having a special effect. A lenticular lens is provided having a plurality of equally spaced, parallel lenticular lines and a substantially planar back surface. A plurality of planar images are created, ordered, and interlaced into a desired sequence. The interlaced images are printed and arranged in a desired manner in relation to the lenticular lens. A special effect coating is then applied to a desired portion of the interlaced images to create a desired visual effect.

Abstract: Multi-dimensional lithographs which impart the illusions of depth and/or motion to a viewer are prepared by constructing and sequencing a plurality of electronic pages, preferably four or more; rasterizing, compressing and converting each page; interlacing the pages in a desired sequence; outputting the interlaced frames to an imaging device; and producing a lithographic separation from the imaging device. In the rasterization of each frame, nonbinary pixels are created that correspond to the resolution of the line count of the lenticular lens that will ultimately be applied to a print of the lithograph times the number of frames in the lithographic separation. The frames are compressed to an amount equal to the reciprocal of the number of frames from which the lithographic separation is prepared. In the converting step, the nonbinary pixels of the compressed frames are converted to individual color plates of binary pixels.

Abstract: Multidimensional lithographs which impart the illusions of depth and/or motion to a viewer are prepared by constructing and sequencing a plurality of electronic pages, preferably four or more; rasterizing, compressing and converting each page; interlacing the pages in a desired sequence; outputting the interlaced frames to an imaging device; and producing a lithographic separation from the imaging device. In the rasterization of each frame, nonbinary pixels are created that correspond to the resolution of the line count of the lenticular lens that will ultimately be applied to a print of the lithograph times the number of frames in the lithographic separation. The frames are compressed to an amount equal to the reciprocal of the number of frames from which the lithographic separation is prepared. In the converting step, the nonbinary pixels of the compressed frames are converted to individual color plates of binary pixels.

Abstract: Multidimensional lithographs which impart the illusions of depth and/or motion to a viewer are prepared by constructing and sequencing a plurality of electronic pages, preferably four or more; rasterizing, compressing and converting each page; interlacing the pages in a desired sequence; outputting the interlaced frames to an imaging device; and producing a lithographic separation from the imaging device. In the rasterization of each frame, nonbinary pixels are created that correspond to the resolution of the line count of the lenticular lens that will ultimately be applied to a print of the lithograph times the number of frames in the lithographic separation. The frames are compressed to an amount equal to the reciprocal of the number of frames from which the lithographic separation is prepared. In the converting step, the nonbinary pixels of the compressed frames are converted to individual color plates of binary pixels.