Abstract:
An electron beam emitting device having a first plate provided with electron emitting elements (15) and an electrode (8) opposed to the first plate and given a potential for accelerating electrons emitted from the electron emitting elements (15). A potential regulating part (9) is provided on the electrode (8) side of the first plate, a first potential regulating part that constitutes the potential regulating part (9) is provided within the region of the potential regulating part (9) to which the electrode (8) is projected. The potential regulating part is further defined in a range of 0.83d from the end of the projection region in any direction parallel to the first plate, where d is the distance between the electrode (8) and the potential regulating section (9). Thereby, the path of electrons is stabilized, and a good image can be formed without displacement of light-emission position.
Abstract:
A panel display using gold as a conductive element (30) and a matrix of carbon fibers (40) as emitters is presented. The invention provides a novel defined pixel width of three emitter fibers per cell wherein each cell is positioned within three emulsion layers of suspended nano-crystals stack positioned vertically atop one-another. Each of these respective layers is excited by a single carbon fiber. In the preferred embodiment, fiber length ends from each cell are positioned at the mid-point of each respective polymer layer thickness and produce one of red, green, or blue colors required to complete the image formation.
Abstract:
An organic light emitting device (1) includes a substrate (2), and at least one conductor (11) formed on the substrate (2). A first insulating layer (13) is formed on the at least one conductor (11) and the substrate (2). The insulating layer (13) includes at least one pixel opening formed therein defining a pixel area (14). A second insulating layer (15) is formed on the first insulating layer (13). The organic light emitting device (1) also includes an OLED layer (18) formed on the at least one conductor (11) in the pixel area (14). The organic light emitting device (1) may further include a sealing structure formed over the OLED layer (18). The sealing structure includes at least one material (182) formed over the OLED (18). The first insulating layer (13) and the sealing structure form a protective barrier around the OLED layer (18). Methods for forming the pixel area (14) and the organic light emitting devices (1) are also disclosed.
Abstract:
Una solución precursora que comprende: un primer precursor metálico de sol-gel o un precursor metaloides de sol-gel; un disolvente polar prótico, en la cual el disolvente polar prótico es un ácido orgánico; y un disolvente polar aprótico de alquilamina, en la cual dicha solución precursora forma un gel después de que se aplica una fuerza de cizalla a dicha solución precursora, en cuyo caso se seleccionan cantidades relativas de dicho disolvente polar prótico y dicho disolvente polar aprótico para controlar la formación de gel la solución precursora, y en cuyo caso dicho disolvente polar aprótico se encuentra presente en dicha solución precursora entre 1 y 25 % en volumen.
Abstract:
A barrier film including a substrate; a base polymer layer adjacent to the substrate; an oxide layer adjacent to the base polymer layer; a adhesion-modifying layer adjacent to the oxide layer; and a top coat polymer layer adjacent to the adhesion-modifying layer. An optional inorganic layer can be applied over the top coat polymer layer. The inclusion of a adhesion-modifying layer provides for enhanced resistance to moisture and improved peel strength adhesion of the top coat polymer layer to the underlying barrier stack layers.
Abstract:
An electron beam emitting device having a first plate provided with electron emitting elements (15) and an electrode (8) opposed to the first plate and given a potential for accelerating electrons emitted from the electron emitting elements (15). A potential regulating part (9) is provided on the electrode (8) side of the first plate, a first potential regulating part that constitutes the potential regulating part (9) is provided within the region of the potential regulating part (9) to which the electrode (8) is projected. The potential regulating part is further defined In a range of 0.83d from the end of the projection region in any direction parallel to the first plate, where d is the distance between the electrode (8) and the potential regulating section (9). Thereby, the path of electrons is stabilized, and a good image can be formed without displacement of light-emission position.
Abstract:
FIELD: display engineering; production of ac color plasma panels characterized by high definition of pixels. ^ SUBSTANCE: degradation of phosphor due to plasma discharge is eliminated by disposing it on insulating layer surface of capacitive structure; the latter is produced in various design alternates of panel within picture element beyond area of plasma discharge current passage through display electrode insulator surface. Charge accumulation due to correction of electricity conducting layer field on capacitive-structure insulating layer surface during plasma discharge results in stopping of phosphor bombardment. ^ EFFECT: enhanced service life of panel. ^ 24 cl, 12 dwg
Abstract:
An apparatus for enhancing contrast in a flat panel display is provided. O ne embodiment includes a electroluminescent display having a front electrode, a n electroluminescent layer, an optical interference member, and reflective rea r electrode. The optical interference member is made from a semi-absorbing material, and the actual material, its thickness, "n" value, and "k" value are all so chosen such that ambient light incident upon the display is substantially reduced by destructive interference.