Other

Eastman Chemical Company

Rexham Corporation

Collins Aikman Corporation

Micro Lens Technology, Inc.

Kenneth E Conley

Candace Michele Tanner

Mary Ellen Conley

Max B Smith, Jr

Kerry Dwayne Dellinger

Jeff Hendrick

Thomas E Stull

A condensate trap for providing improved gas seal to a heating, ventilation, air conditioning, and refrigeration (HVAC/R) system. The trap can include an interior reservoir containing a volume of fluid to create a gas seal between an inlet pathway and an output. The interior reservoir can be accessed through an access port, by removing a removable cover, for maintenance and inspection. The trap can include vents or vent precursors for aiding in drainage of excess fluid, as well as early detection of problem conditions. The trap can be made from modified parts put together in a specific manner, or through purpose-built parts. The trap can include liquid level sensors and inspection windows to aid in early detection of problem conditions.

HVAC/R condensate trap

An auto stereoscopic frame system and the associated method of manufacturing is disclosed. The frame system generally comprises a frame defining an opening for housing a lens structure, said frame being operative for removable attachment to a display device which projects at least one image such that when the image is viewed through the lenticular sheet it is viewed in three dimensions. The frame is attached to the display device via a mounting mechanism. The lenticular sheet may be manufactured by providing a substantially transparent substrate material; forming a plurality of lenses on a first side of the substrate; and shaping the substrate to correspond to a display area of a display device, wherein the plurality of lenses are angled to correspond to the pixel size and pitch of the display area of a display device.

Autostereoscopic frame device for removable attachment to display panel

A lens structure is disclosed and the associated method of manufacturing the same having as its primary steps the provision of a substantially transparent substrate material; forming a plurality of lenses on a first side of the substrate; and shaping the substrate to correspond to a display area of a display device, wherein the plurality of lenses are angled to correspond to the pixel size and pitch of the display area. A display system is also disclosed, wherein the display systems generally includes a data source for processing, saving and playing at least one image; software for interlacing the image; software for processing slides and movies comprised of multiple images; a lenticular screen overlaid upon a video display device for viewing the interlaced images in three dimensions.

Lens structure and method of producing and displaying a three dimensional image

An engraved scannable marking code produced by providing a substrate of transparent material having a first side and a second side and an index of refraction greater than one; and forming a plurality of lenses on the first side of the substrate in pre-selected portions thereof, wherein the plurality of lenses and selected reminder portions form a desired marking code pattern operable for being read by a code reading apparatus.

Method of making an engraved scannable marking code

Disclosed herein is a method for producing a lenticular sheet comprising the steps of providing a substrate of transparent material having a first side and a second side; and engraving a cylinder with an inverse lens pattern, the inverse lens pattern being comprised of a plurality if inverse lenticule shapes, each inverse lenticule shape having an incremental pitch relative to the others; and using the engraved cylinder in an extrusion embossment process such that the substrate can be embossed with the inverse lens pattern, wherein the lenticular sheet produced comprises a lens pattern having a plurality of lenticules each of a uniform pitch relative to one another.

Method for producing an equal pitch extruded lenticular sheet

A digital display system is disclosed, wherein the display system generally includes a recording mechanism, such as a digital camera, a processing mechanism for processing and saving at least one image; software for interlacing the image; software for processing slides and movies comprised of multiple images; a digital display device for receiving, storing and displaying the image, and a lenticular screen overlaid upon the digital display device for viewing the interlaced images in three dimensions. A method of manufacturing a lenticular sheet is also disclosed as having as its primary steps the provision of a substantially transparent substrate material; forming a plurality of lenses on a first side of the substrate; and shaping the substrate to correspond to a display area of the display device, wherein the plurality of lenses are angled to correspond to the pixel size and pitch of the display area.

Device for displaying a three dimensional image

A method of manufacturing a lenticular sheet having as its primary steps the provision of a substantially transparent substrate material; forming a plurality of lenses on a first side of the substrate; and shaping the substrate to correspond to a display area of a display device, wherein the plurality of lenses are angled to correspond to the pixel size and pitch of the display area. A display system is also disclosed, wherein the display systems generally includes a computer for processing, saving and playing at least one image; software for interlacing the image; software for processing slides and movies comprised of multiple images; a lenticular screen overlaid upon a video display device for viewing the interlaced images in three dimensions.

Method of producing and displaying a three dimensional image

A method for producing a lenticular material having a predetermined surface characteristic of high quality and definition formed on one side thereof is disclosed. The method includes the steps of providing a rotating, engraved cylindrical roll, advancing a material along a predetermined path of travel while directing one surface of the material into contact with a peripheral surface of the rotating, engraved cylindrical roll, applying to the peripheral surface of the roll a coating of a uncured resin, such that the coating is located about the roll and beneath the material, controlling the thickness of the coating, curing the resin coated about the material, and directing the material with the cured resin thereon away from the rotating cylindrical roll.

Method for producing a patterned sheet or film having a predetermined surface characteristic

Method of producing a sheet having lenticular lenses for a three dimensional display system

An apparatus for producing a patterned material having a predetermined surface characteristic of high quality and fine definition formed on one side thereof, said apparatus comprising: a cylindrical roll having a peripheral surface of a predetermined texture corresponding to the desired surface characteristic to be produced in the material, corresponding adjustable nip rolls being spaced apart at a predetermined distance to form a fixed narrow gap of predetermined width therebetween, means operatively connected to said cylindrical roll for rotating said cylindrical roll at a predetermined speed of rotation, means for directing the material through the narrow gap onto the peripheral surface of said cylindrical roll and over a predetermined arcuate path therealong, means for applying to the exposed surface of the cylindrical roll as it rotates a coating of a flowable uncured thermosetting resin, means for curing the coating of uncured thermosetting resin while it is in contact with the peripheral surface of said cylindrical roll and the material to cure and harden the coating, means for controlling the coating thickness of the cylindrical roll, and means for directing the material away from said cylindrical roll to thereby separate the cured coating from the peripheral surface of said cylindrical roll and to thus provide a material with a predetermined surface characteristic of high quality and fine definition.

Apparatus and method for producing a patterned sheet and/or film having a predetermined surface characteristic

A transparent substrate having a lens array pattern located in a pre-selected area such that the lens array pattern forms an engraved scannable marking code operable for being read by a code reading apparatus, wherein the lens array pattern has a shape selected from the group consisting of lenticular, lineal fresnel, dot or prismatic. A method of producing an engraved scannable marking code is also disclosed.

Engraved scannable marking code

A method of producing a package from lenticular sheet having anisotropic optical properties comprising the steps of providing a body of transparent material having a pair of opposing sides and an index of refraction greater than one; forming a plurality of lenses on the first side of said pair of opposing sides in pre-selected portions of the first side; forming a pre-determined package design from the lenticular sheet, and wherein the remainder of the first side of said pair of opposing sides outside the pre-selected lens portions is generally flat and transparent. A method of manufacturing a lenticular sheet comprising the steps of producing a transparent sheet by engraving a desired lens pattern over an entire cylinder or flat plate; placing a mask over selected lens areas; metal plating the unmasked areas to a thickness greater than the surface of the masked areas; cutting the plated areas back to the level of the masked areas; and forming a pre-determined package design from the lenticular sheet.

Method of producing a package from a sheet having lenticular lens in pre-selected areas

A method of producing a lenticular sheet having anisotropic optical properties comprising the steps of providing a body of transparent material having a pair of opposing sides and an index of refraction greater than one; forming a plurality of lenses on the first side of said pair of opposing sides in pre-selected portions of the first side; and wherein the remainder of the first side of said pair of opposing sides outside the pre-selected lens portions is generally flat and transparent. A method of manufacturing a lenticular sheet comprising the steps of producing a transparent sheet by engraving a desired lens pattern over an entire cylinder or flat plate; placing a mask over selected lens areas; metal plating the unmasked areas to a thickness greater than the surface of the masked areas; and cutting the plated areas back to the level of the masked areas.

Method of producing a sheet having lenticular lens in pre-selected areas

A two-dimensional display having a three-dimensional visual appearance has printed on a substantially flat or planar surface a predetermined message or information. Superposed over the message is a lenticular lens. Adjacent to the message are a series of spaced apart lines which may either be coplanar or non-coplanar relative to the message. The spaced apart lines are arranged so that they are in a non-registration relationship with the spacing of individual lenticules forming the lenticular lens. The display produces an appearance of having the lines float or move as a viewer's focal angle or perspective of the display changes. A method for making such a display is also provided.

Multi-layer display having combination of visually moveable and stationary elements therefore

A method for producing an anisotropic optical device that enables the viewer to perceive a repertoire of preselected images over a first range of angles of regard in previously unachievably thin anisotropic sheets. The device, which is useful as advertising media in a wide variety of forms, includes a bilaterally stabilized base film layer, a molded lenticular surface having lenses with substantially circular cross section adhesively affixed to a first side of the base film; and a computer-generated image that is registered to the lenticular surface and affixed to the second side of the bilaterally stabilized base film.

Growing community of inventors

Matthews, NC, United States of America

Kenneth E Conley