Abstract: A model car display system adapted to display a model car, such as a die-cast model car, in association with dioramic and scenic elements to recreate a realistic and scaled down automobile-related scene. In one illustrated embodiment, the system is adapted to associate one or more model cars with scenery corresponding to a race track-like drag race scene by which the model cars are positioned to appear as if preparing to race. The system may include various elements to increase the realism thereof. For example, the system may include various rotational means adapted for rotating the wheels of a model car associated with the system and various associating means for securely associating the model car with the system while its wheels are being rotated.

Abstract: A wearable system is shown that presents one or more heads-up displays to the wearer. A data source provides information to an image generator that is sufficient to generate one or more display images, which are still or moving, characters or graphical displays. The output image from the image generator passes through a lens, reflects off a curved mirror, and passes back through the lens the other way. The image then passes through two non-doublet lenses, between which an intermediate image exists. The image reflects off the “lens,” or visor, of the glasses and proceeds to the pupil of the wearer's eye. Alternative embodiments use a helmet visor, mirror, or other (at least partially) reflective surface for the final reflection.

Abstract: Image-intensifying glasses 100 that are suitable for certain commercial and entertainment applications by virtue of their light weight, small size, and economical production, compared to certain other night vision products. In one disclosed embodiment, input light passes through two Amici prisms 144 and 148 and a field-flattening lens 150 to reach an image intensifier 152. The intensified image it produces is reflected off a first folding mirror 162, passes through a lens 154, reflects off a curved mirror 156, and passes back through the lens 154 the other way. The intensified image then passes through two additional, non-doublet lenses 158 and 160, between which an intermediate image exists. The intensified image then reflects off the “lens,” or visor 130, of the glasses and proceeds to the pupil of eye 131 of the wearer. Alternative embodiments use a helmet visor, mirror, or other (at least partially) reflective surface for the final reflection.

Abstract: A method of encapsulating an organic light-emitting device is disclosed, wherein the device includes a light-emitting portion and an electrical contact portion, the method including forming a polymer layer over the light-emitting portion and the electrical contact portion of the device; forming a separation in the polymer layer between a portion of the polymer layer disposed over the light-emitting portion of the device and a portion of the polymer layer disposed over the electrical contact portion of the device; adhering a film removal structure to the portion of the polymer layer disposed over the electrical contact portion of the device; and removing the film removal structure, thereby causing the removal of the portion of the polymer layer disposed over the electrical contact portion of the device.

Abstract: A method of forming an organic light emitting device on a substrate is provided, wherein the method includes forming an active device structure on the substrate, adhering a mask to the substrate, wherein the mask covers an electrical contact portion of the substrate while exposing the active device structure, forming an encapsulant layer over the active device structure and the mask, forming a separation between a portion of the encapsulant layer that covers the active device structure and a portion of the encapsulant layer that covers the mask, and removing the mask from the substrate.

Abstract: A method of forming a protective barrier in an organic light emitting device is disclosed, wherein the organic light emitting device is formed on a substrate and includes a plurality of layers of materials, the plurality of layers of materials including an organic light emitting layer. The method includes forming an inorganic layer and a semi-crystalline parylene-based polymer layer over an underlying layer, wherein the semi-crystalline parylene-based polymer layer is formed via transport polymerization of a reactive intermediate species. Organic light emitting devices having barriers are also disclosed.

Abstract: A method of forming an organic light emitting device on a substrate is provided, wherein the method includes forming an active device structure on the substrate, adhering a mask to the substrate, wherein the mask covers an electrical contact portion of the substrate while exposing the active device structure, forming an encapsulant layer over the active device structure and the mask, forming a separation between a portion of the encapsulant layer that covers the active device structure and a portion of the encapsulant layer that covers the mask, and removing the mask from the substrate.

Abstract: An organic opto-electronic device is disclosed. One embodiment comprises a substrate, one or more organic device layers disposed over the substrate, and a multi-layer barrier disposed over the one or more organic device layers, the multi-layer barrier comprising a parylene-based layer and a layer comprising an ultraviolet protectant material.

Abstract: The disclosure relates to any improved display system unit for holding display panels, photomurals, banners, signs or the like in a variety of sizes. There is also depicted multi-unit systems consecutively joined by hinged and straight connectors to form any desired display configuration. Interchangeable snap or press fit connectors allow alternate assemblies and wall or floor mounting.

Abstract: A display rack for rounded articles generally includes a product track with a pusher block slidably mounted thereon. The pusher block is biased toward a front portion of the display rack, and the side walls of the display rack are configured to support a circular or elliptical product. Additionally, the display rack can be provided with front and/or rear removable panel carriers configured to removably receive front and rear panels.

Abstract: A display rack for rounded articles generally includes a product track with a pusher block slidably mounted thereon. The pusher block is biased toward a front portion of the display rack, and the side walls of the display rack are configured to support a circular or elliptical product. Additionally, the display rack can be provided with front and/or rear removable panel carriers configured to removably receive front and rear panels.

Abstract: The disclosure relates to any improved display system unit for holding display panels, photomurals, banners, signs or the like in a variety of sizes. There is also depicted multi-unit systems consecutively joined by hinged and straight connectors to form any desired display configuration. Interchangeable snap or press fit connectors allow alternate assemblies and wall or floor mounting.

Abstract: An adjustable snap-fit display assembly is used in a product display assembly. The display assembly stores and displays products of a variety of shapes and sizes and automatically delivers the products to the front of the display assembly. The adjustable display assembly includes a frame and a product supporting and feeding assembly. The product supporting and feeding assembly has tracks and, in some instances, dividers. The product tracks and dividers can be separately formed or integrated into a single component. The tracks and/or dividers are considered insertable components that can be added or removed as needed and that can be separated by varying distances depending on the width of product to be displayed. The insertable components generally are freely slideable and are snap-fit onto the frame. The product supporting and feeding assembly allows product to be fed forward to a front fence such that all or almost all of the available shelf depth can be used.

Abstract: The disclosure relates to any improved display system unit for holding display panels, photomurals, banners, signs or the like in a variety of sizes. There is also depicted multi-unit systems consecutively joined by hinged and straight connectors to form any desired display configuration. Interchangeable snap or press fit connectors allow alternate assemblies and wall or floor mounting.

Abstract: An adjustable display rack is used in a shelf management system. The rack stores and displays products of a variety of shapes and sizes and automatically delivers the products to the front of the rack. The adjustable display rack includes a frame and a product supporting and feeding assembly. The assembly includes product tracks that can be added or removed as needed and that can be separated by varying distances depending on the width desired. The assembly also includes dividers. The product tracks and dividers can be separate or integral. The product tracks have raised rails extending from a front of the track to a back of the rack for attachment of a removable pusher block and a roll spring which urges the pusher block forward. Additionally, a spacer block can be fitted onto the pusher block to increase its height and width or used to change the spacing between the tracks. The tracks are generally freely slidable in races formed within the frame.

Abstract: A display rack comprises a frame, at least one dividing base unit and a track. The track supports a follower arrangement. The base unit comprises a partition wall and a support surface. The track is positioned on the support surface and is capable of lateral translation relative to the support surface. The base unit itself is laterally displaceable relative to the frame. The base unit reinforces the track unit against generally vertical bending forces.

Abstract: The disclosure relates to any improved telescoping display system unit for holding display panels, photomurals, banners, signs or the like in a variety of sizes. There is also depicted multi-unit systems consecutively joined by hinged and straight connectors to form any desired display configuration. Interchangeable snap or press fit connectors allow alternate assemblies.

Abstract: The present invention features apparatus and a method for controlling luminance emitted from a back light module for a large, tiled, flat-panel, liquid crystal display (LCD). A mechanism is provided for achieving luminance stability of fluorescent lamps, high efficiency and long life through controlling and maintaining lamp tube wall temperatures. Air flow variations are controlled by a microprocessor and a network of electric fans. The lamps may also be dimmed selectively to obtain optimum lamp tube wall temperatures. There is also provided a mechanism for safely preventing overheating of the back light and display due to high ambient temperatures or component failures. Further, the controls can be used in conjunction with ambient light sensing or manual controls to maintain appropriate output light intensity.

Abstract: The present invention features apparatus for uniformly distributing luminance from a back light module for a flat panel, liquid crystal display (LCD). Luminance uniformity, high efficiency and long lamp life are achieved by distributing the lamp cathode thermal energy and maintaining uniform lamp wall temperatures. A heat sink is attached to the fluorescent lamps in the cathode areas, providing cooler operating temperatures at the lamp ends. A thermal sensor is also mounted in the heat sink body. In addition, open louver slots positioned behind the lamps allow for cool air to enter behind each lamp. The size, shape and position of these louvers can be selected so that the lamp temperatures are essentially constant over their entire length.