Abstract:
A conducting film or device multilayer electrode includes a substrate and two transparent or semitransparent conductive layers separated by a transparent or semitransparent intervening layer. The intervening layer includes electrically conductive pathways between the first and second conductive layers to help reduce interfacial reflections occurring between particular layers in devices incorporating the conducting film or electrode.
Abstract:
An exemplary liquid crystal panel (400) includes a first substrate (401) having a common electrode layer (429), a second substrate (402) parallel to the first substrate, and a liquid crystal layer (403) between the first and second substrates. The liquid crystal layer defines an active area (406) thereat. The second substrate includes common lines (440). Electrical coupling elements are disposed at the active area, so as to electrically couple the common electrode layer to the common lines.
Abstract:
A composite lens assembly comprising an electro-active lens assembly, a first lens wafer, and a second lens wafer is provided. The electro-active lens assembly has an upper substrate layer with a planar upper surface and a lower substrate layer with a planar lower surface. The first lens wafer has a planar lower wafer surface adjacent and parallel to the planar upper surface of the upper substrate layer of the electro-active lens assembly. The second lens wafer has a planar upper wafer surface adjacent and parallel to the planar lower surface of the lower substrate layer of the electro-active lens assembly.
Abstract:
An electronic appliance includes an array of elements and an addressing substrate. The array of elements includes: first and second surfaces opposed to each other; element regions, arranged in matrix between the first and second surfaces and including electrodes; and a first group of terminal electrodes on the second surface, each of which is electrically connected to associated one of the electrodes. The addressing substrate includes: a substrate having a third surface opposed to the second surface; a second group of terminal electrodes on the third surface, each of which is electrically connected to associated one of the terminal electrodes in the first group; and an addressing driver, which transmits or receives a predetermined signal to/from the element regions via the second group of terminal electrodes while addressing the element regions one after another.
Abstract:
An electro-optical device comprises first and second substrates (10, 20) disposed facing each other, an interconnect (14) formed on the surface of the first substrate (10) opposing the second substrate (20), and a conductive member (40) passing through the second substrate (20) and reaching both surfaces of the second substrate (20), and the conductive member (40) and interconnect (14) are electrically connected between the first and second substrates (10, 20).
Abstract:
An apparatus introduces fluid in vias formed in an LCD element free of voids or air bubbles in the fluid material. A support base secures the LCD element in place during fluid flow from a fluid dispenser positioned proximate to the LCD element. Fluid flow is facilitated by thermal energy from a heating element arranged in thermal contact with the support base.
Abstract:
A method of fabricating LCOS devices and testing them at the wafer-scale to identify known-bad dice, to facilitate completing fabrication of only known-good dice. A wafer-scale transparent electrode glass is temporarily placed over the wafer, and liquid crystal material is injected into the LCOS device cavities through fill holes extending through the wafer. After removing the glass and separating the wafer into dice, only the good dice have their die-scale glass attached, liquid crystal material re-injected, solder bumps affixed, and substrate attached.
Abstract:
A method of constructing a liquid crystal display element or similar article of manufacture includes providing a first transparent substrate bondable to a second transparent substrate. The second transparent substrate has a plurality of vias passing through opposing active faces. A dispensing technique is used to fill the vias void-free with an optical grade adhesive material to form the LCD element.
Abstract:
A liquid crystal display and method of making same has a first transparent substrate bondable to a second transparent substrate. The second transparent substrate has a plurality of vias passing through opposing active surfaces of the second transparent substrate. Vias are filled void-free with an optical grade adhesive material when the first and second transparent substrates are bonded together.
Abstract:
An integrated circuit may have a spatial light modulator formed on one side of a semiconductor support and a microprocessor formed on the opposite side. The microprocessor and the spatial light modulator may communicate with one another through electrical connections which extend completely through the semiconductor support. The microprocessor may be contacted using bump packaging techniques.