Abstract: A method of resizing a liquid crystal display connected to at least one flex board, wherein the liquid crystal display has multiple layers including a liquid crystal layer contained between a pair of glass substrates and a pair of polarizers on opposite sides of respective ones of the glass substrates. The method comprises applying pressure sensitive tape for protecting the polarizers, dicing through the layers, including the polarizers, using a dicing wheel with predetermined diamond particle size to a specified depth and width of groove, cutting through the flex board using a UV laser, breaking off unwanted portions of the liquid crystal display and flex board defined by the dicing and cutting operations, and sealing remaining portions of the liquid crystal display.

Abstract: The present invention provides a novel organic electroluminescent device having an optical interference member which reduces the overall reflectance from the device. The invention is particularly suited to current-driven organic displays having an anode, an electroluminescent layer and a cathode, where at least one optical interference member is placed between two of the layers and thus forms part of the electrical circuit required to excite the display. The optical interference member is chosen to have a thickness which causes at least some destructive optical interference of ambient light incident on the display. In addition, the material(s) of the optical interference member are chosen to have a work function which is compatible with the highest occupied molecular orbital, or the lowest unoccupied molecular orbital of the electroluminescent layer, depending on the location of the optical interference member in relation to the anode, cathode and electroluminescent layer.

Abstract: The present invention provides a novel organic electroluminescent device having an optical interference member which reduces the overall reflectance from the device. The invention is particularly suited to current-driven organic displays having an anode, an electroluminescent layer and a cathode, where at least one optical interference member is placed between two of the layers and thus forms part of the electrical circuit required to excite the display. The optical interference member is chosen to have a thickness which causes at least some destructive optical interference of ambient light incident on the display. In addition, the material(s) of the optical interference member are chosen to have a work function which is compatible with the highest occupied molecular orbital, or the lowest unoccupied molecular orbital of the electroluminescent layer, depending on the location of the optical interference member in relation to the anode, cathode and electroluminescent layer.