Abstract: An excimer lamp according to an embodiment of the present disclosure is capable of improving start-up characteristics and a light irradiation efficiency of a lamp and being miniaturized. The excimer lamp includes a light emitting tube emitting light, a first electrode disposed at an outer side of the light emitting tube, a second electrode disposed at an outer side of the light emitting tube in correspondence to the first electrode, and an auxiliary light emitting body disposed between the first electrode and the second electrode to emit light toward the light emitting tube when a voltage is applied to the first and second electrodes, and a light irradiation device having the same.

Abstract: An embodiment of the present disclosure provides a display device including a substrate, a thin film transistor on the substrate, a first electrode electrically connected to the thin film transistor, a light emitting layer and a second electrode overlapping the first electrode, a first partition wall between the first electrode and the second electrode, and a second partition wall overlapping the first partition wall, wherein the first partition wall includes at least one of a black pigment and a black dye, wherein the second partition wall includes an organic insulating material, and wherein a portion of the second partition wall overlaps the first electrode.

Abstract: A physical unclonable functions (PUF) device including a first copper electrode, a second electrode, and a silicon oxide layer positioned directly between the first copper electrode and the second electrode; a method of producing a PUF device; an array comprising a PUF device; and a method of generating a secure key with a plurality of PUF devices.

Abstract: A display device includes: an array substrate; a counter substrate; a liquid crystal layer between the array substrate and the counter substrate; and a light source. The array substrate includes: signal lines; scanning lines; a grid-shaped organic insulating layer that extends along the scanning lines and the signal lines and overlies the scanning lines and the signal lines; pixel electrodes provided in regions surrounded by the scanning lines and the signal lines; and a first orientation film that covers the pixel electrodes. A portion of each pixel electrodes overlaps a slant surface of the organic insulating layer. The counter substrate includes: a common electrode overlapping the respective pixel electrodes; a protective film that has an insulating capability and a light transmitting capability and covers a side of the common electrode facing the array substrate at least in the display region; and a second orientation film that covers the protective film.

Abstract: A liquid crystal display device is provided and includes first substrate having first and second surfaces; a liquid crystal layer; and spacers arranged between first and second surfaces, spacers including first spacer section protruding from first surface toward second surface and second spacer section protruding from second surface toward first surface, second spacer section being opposed to first spacer section with gap, or being in contact with the first spacer section, wherein spacers are arrayed in first direction and second direction crossing first direction, and spacers are connected to at least one adjacent spacer via connection section.

Abstract: The silicate of magnesium and of barium, strontium or calcium of the invention is characterized in that it is in the form of a suspension of solid crystallized particles in a liquid phase, said particles having a mean size between 0.1 ?m and 1 ?m. It is prepared by spray-drying a liquid mixture comprising compounds of magnesium, of silicium and of at least one first element chosen from barium, strontium and calcium, by submitting the dried mixture to a first calcination in air and to a second calcination in a reducing atmosphere and by wet milling the calcined mixture.

Abstract: An electroluminescent display panel and manufacturing method thereof, and a display device are provided. The electroluminescent display panel includes a base substrate, pixel structures disposed on the base substrate; and an encapsulating layer disposed on the pixel structures. The pixel structures are arranged in an array, the pixel structure including a plurality of sub-pixels arranged in an array, the pixel structure array has a first direction and a second direction intersected with each other, the edge of the sub-pixel including a first portion gradually away from a straight line where the first direction lies, and an extending direction of the first portion does not coincide with the second direction.

Abstract: An air fed mycoplasma device includes an array of elongate microchannels formed in a plastic or ceramic having tolerance to ozone and other radicals formed when plasma is generated from air in the microchannels. The microchannels include inlets configured to accept an air feed, and outlets configured to direct plasma jets toward a surface (which may be flat or internal to a pipe, for example) or object. An array of electrodes within the plastic/ceramic housing is configured to ignite and maintain plasma in the microchannels and is isolated by the dielectric from the microchannels. A supply intake for is configured to providing a plasma medium into the microchannels.

Abstract: A color film substrate, and a display panel and a preparation method for the display panel. The color film substrate (10) comprises a first crimping region (1-1) and a color region (1-2), the color region (1-2) is provided with a common electrode 13, the common electrode 13 is connected to a lead wire of an external driving circuit board in the first crimping region by means of a first signal line. The display panel comprises an array substrate (20) provided opposite to the color film substrate (10); the array substrate comprises a display region (2-2) and a second crimping region (2-1); and the display region (2-2) is an array formed by multiple thin film transistors, and the second crimping region (2-1) is a region where a signal line on the array substrate (20) is crimped to the lead wire of the external driving circuit board.

Abstract: A light-emitting device has improved impact resistance over conventional configurations. Such a light-emitting device includes a display panel layer, a housing layer, an impact absorbing layer adjacent the housing layer, a metal layer that is disposed between the impact absorbing layer and the display panel layer and that is deformable during an impact on the light-emitting device, and a compliant layer that is disposed between the metal layer and the display panel layer that enables a shape of the display panel layer to be maintained when the metal layer is deformed. Due to a compliance or low stiffness of the compliant layer, a permanent deformation of the metal layer due to an impact or device shape change is not discernibly transferred into the shape of the display panel layer, and the shape of the display panel layer is essentially maintained so that an impact or shape change does not adversely affect display performance.

Abstract: A method for manufacturing a wavelength conversion member includes: irradiating plasma on surfaces of phosphor particles; mixing the phosphor particles irradiated by plasma and a liquid form resin member to form a slurry; and curing the slurry.

Abstract: Circuit films, a printed circuit board (PCB), and the like, are connected to a display panel. First and second heat dissipation members are coupled to a rear surface of the display panel to support and protect the circuit films, the PCB, and the like, while dissipating heat from driver ICs and the like.

Abstract: A display apparatus includes: a substrate having a display area and a non-display area at least partially surrounding the display area; a plurality of pixels disposed in the display area of the substrate; a plurality of first projections disposed in the non-display area of the substrate extending along an edge of the substrate; and a second projection disposed on the substrate between the plurality of first projections and the display area, the second projection including a plurality of cavities arranged in a plurality of columns to limit flow of excess organic material during manufacture, wherein the cavities may be arranged in adjacent columns staggered from each other in a direction transverse to the columns.

Abstract: Systems and methods for reducing reflected towards a higher frequency radio frequency (RF) generator during a period of a lower frequency RF generator and for using a relationship to reduce reflected power are described. By tuning the higher frequency RF generator during the period of the lower frequency RF generator, precise control of the higher frequency RF generator is achieved for reducing power reflected towards the higher frequency RF generator. Moreover, by using the relationship to reduce the reflected power, time is saved during processing of a wafer.

Abstract: A method of constructing a space construction has a preparing step, a first mixing step, a second mixing step, a matrix layer building step, a three-dimensional fiber webs paving step, and a gamma ray screening layer building step. Prepare an agitator, a strengthening material, a composite material, multiple three-dimensional fiber webs, and multiple gamma ray screening elements. Mix the strengthening material and the composite material to form a first building material. Mix the multiple gamma ray screening elements and soil on a planet to form a second building material. Build at least one matrix layer with the first building material. Pave two three-dimensional fiber webs on the at least one matrix layer. Build at least one gamma ray screening layer adjacent to one of the two three-dimensional fiber webs with the second building material. A product constructed by the method is also provided.

Abstract: A display apparatus includes a display panel having a display substrate on which a plurality of pad terminals is disposed, and a driving unit having a plurality of driving terminals electrically connected to the plurality of pad terminals. Each of the plurality of pad terminals includes a stepped groove that faces a corresponding driving terminal of the plurality of driving terminals or each of the plurality of pad terminals includes an opening hole that faces the corresponding driving terminal of the plurality of driving terminals.

Abstract: A system and method for suspending an electronic display between a first structure located above the electronic display and a second structure located below the electronic display includes a housing for the electronic display. Elongate members extend through the housing from the first structure to the second structure. In some embodiments, a channel configured to receive ambient air extends through the housing and is placed in thermal communication with the substantially sealed compartment. Clamps are provided which are each sized to accept one of the elongate members.

Abstract: Protective cover layers for electronic devices are described. In an embodiment, an electronic device includes a display panel and a protective cover layer over the display panel. The protective cover layer includes a transparent support substrate and a hardcoat layer covering an exterior facing surface of the transparent support substrate. The display panel may be a flexible display panel and the protective cover layer may flex with the flexible display panel.

Abstract: A display device is disclosed. The display device includes a plurality of support units disposed side by side on the rear surface of a flexible display panel, a resin unit, which is made of a resin, for elastically interconnecting the support units, and a restoration unit protruding from each support unit for interfering with the resin unit, which stretches when the display panel is bent, in order to restore the display panel to the original state thereof. The support units may be integrally formed with the resin unit in order to maintain the flatness of the display panel. In addition, when impact is applied to the display panel, the support units may distribute the impact to the periphery of the display panel, thereby preventing damage to the display panel.

Abstract: An infrared-cut filter (1a) includes a near-infrared reflecting film (20) and an absorbing film (30). The near-infrared reflecting film (20) and the absorbing film (30) have the following features (A) to (E); (A) 700 nm??HR (0°, 70%)<?HR (0°, 20%)?770 nm; (B) 650 nm??HR (40°, 70%)<?HR (40°, 20%)?720 nm; (C) ?HA (40°, 20%)<?HR (40°, 20%); (D) the spectral transmittance of light incident on the absorbing film (30) is 15% or less at ?HR (0°, 20%) and ?HR (40°, 20%); and (E) an average of the spectral transmittance of light incident on the near-infrared reflecting film (20) and an average of the spectral transmittance of light incident on the absorbing film (30) are 75% or more in the wavelength range of 450 to 600 nm.

Abstract: The method for drawing a fiber with a textured surface comprises the following steps: —forming of a preform from which the fiber is to be drawn with a textured surface; —addition of an outer layer to the textured preform to preserve the shape of the texture of the preform surface during the drawing operation; —drawing of a fiber from the preform, whereby the fiber keeps the formed texture of the preform surface and —removing the additional outer layer to leave the original surface textured fiber exposed. The obtained fiber can be used as a mold to form a textured hollow channel in another material, as a surface coating and as a pressure detector.

Abstract: A direction detecting device according to an exemplary embodiment of the present invention includes; a structure having at least two through-holes passing through an upper surface and a lower surface thereof; and at least two electrode units inserted into the at least two through-holes and each including a dielectric layer, a first electrode layer disposed on an upper surface of the dielectric layer and exposed at the upper surface of the structure, and a second electrode layer disposed on a lower surface of the dielectric layer and exposed at the lower surface of the structure.

Abstract: A cover window includes: a flat portion including in a top plan view, first and second sides respectively extending in first and second directions; a top curved portion contacting the first side and extending therefrom in the second direction; a left curved portion contacting the second side and extending therefrom in the first direction; and a first corner curved portion which connects the top and left curved portions to each other. In cross-section, the first corner curved portion includes: and a bottom end surface which connects inner and outer surfaces to each other, in the top plan view, the bottom end surface includes: a central portion having a first width, and a peripheral portion which is disposed outside the central portion in the first and second directions, the peripheral portion having a second width smaller than the first width.

Abstract: A display device includes a display panel and a back cover coupled and fixed to each other via a resin layer to manufacture a lightweight, thin display device having a slim bezel while increasing the drooping resistance of the display device. In addition, since the drooping resistance of the display device is increased, it is possible to reduce the thickness of the back cover, whereby it is possible to further reduce the weight of the display device. Furthermore, a through-hole is formed in a cover shield such that a portion of the upper part of an IC chip of a substrate can be inserted into the through-hole, with the result that the coupling structure of a circuit unit is improved, whereby it is possible to further reduce the thickness of the display device.

Abstract: A base carrier configured to carry a flexible base of a flexible display panel is provided. The flexible display panel includes a display region and a circuit bonding region. A surface of an area of the base carrier corresponding to the display region is smooth, and a surface of an area of the base carrier corresponding to the circuit bonding region is formed with a plurality of micro-grooves. The structure of the base carrier is such that when the flexible base is separated from the base carrier, the amount of laser required for peeling in each of the display region and the circuit bonding region are the same and such that the base carrier can be separated from the flexible display panel by performing the laser scanning once, which simplifies the processes.

Abstract: The present disclosure describes optical and optoelectronic assemblies that, in some cases, include screen-printed micro-spacers, as well as methods for manufacturing such assemblies and modules. For example, micro-spacers can be applied on a first optical element layer, and a second optical element layer can be provided on the first micro-spacers. By providing the second optical element layer on the first micro-spacers, the second optical element layer and the first optical element layer can be separated from one another by air or vacuum gaps each of which is laterally surrounded by a portion of the first micro-spacers.

Abstract: A display device includes a first substrate, a flexible printed circuit, and a film. The flexible printed circuit is disposed on a first area of the first substrate. The film is disposed on the first substrate and the flexible printed circuit. The flexible printed circuit includes a second substrate, a pad area, and a dummy pad. The pad area comprises pads disposed on the second substrate. The pads extend in a first direction and are spaced apart from one another in a second direction crossing the first direction. The dummy pad is disposed on the second substrate. The dummy pad is spaced apart from the pad area.

Abstract: A module package can include a substrate; at least one device component configured to be positioned on the substrate; a module package lid configured to be positioned over the at least one device component and on the substrate, the module package lid exhibiting a plateau portion; and at least one mounting spring configured to be positioned on the module package lid, wherein the at least one mounting spring is configured to be mechanically coupled with a mounting surface and further positionally secure the module package lid and the at least one device component. Each mounting spring can include a middle portion; an end portion having a mounting hole; and a curved section between the middle portion and the end portion, the middle portion arranged to mate with the plateau portion of the module package lid when the end portion are secured to the substrate, the curved section being configured to prevent contact with a first corner portion of the module package lid.

Abstract: Embodiments of the present disclosure provide an anisotropic conductive film and a forming method thereof, an ACF roll, a bonding structure and a display device. The anisotropic conductive film (ACF) includes: an insulating adhesive layer, including a plurality of preset regions corresponding to electrodes to be bonded and spaced from each other; and capsule structures, dispersed in the insulating adhesive layer of the plurality of preset regions and configured to realize a electrical connection in a direction perpendicular to a surface of the ACF when the ACF is subjected to a pressure in the direction perpendicular to the surface of the ACF, wherein a number of the capsule structures in each of the plurality of preset regions is greater than a preset number.

Abstract: A light-emitting device includes a light-emitting element that emits blue light, a Mn2+-activated ?-AlON phosphor and a Eu2+-activated ?-SiAlON phosphor that are excited by the blue light to emit green light, and a red phosphor that is excited by the blue light to emit red light. The weight ratio of the Mn2+-activated ?-AlON phosphor to the Eu2+-activated ?-SiAlON phosphor is from 20 to 75.

Abstract: Systems and methods for reducing reflected towards a higher frequency radio frequency (RF) generator during a period of a lower frequency RF generator and for using a relationship to reduce reflected power are described. By tuning the higher frequency RF generator during the period of the lower frequency RF generator, precise control of the higher frequency RF generator is achieved for reducing power reflected towards the higher frequency RF generator. Moreover, by using the relationship to reduce the reflected power, time is saved during processing of a wafer.

Abstract: Disclosed is a backlight unit. The backlight unit includes a light source, and a cover bottom internally accommodating the light source. Here, the cover bottom is divided into n-numbered (n>1) sub-cover bottoms, and a coupling unit for mutually fixing and coupling the divided cover bottoms is formed at ends of each of the cover bottoms facing each other.

Abstract: An outdoor flat panel display assembly is provided to redesign the back cover of a display module where an isolated external circulation structure may be implemented to the back cover of the display module and the back plate of the case. Cold air is introduced into the heat dissipation space within the back cover via external circulating route while heat produced by the backlight, the system circuit board, and by the radiation of the sun can be dissipated through the external circulating route. The external circulation space is completely isolated from the internal space of the case in such a way that the vapor and dust in the introduced cold air are in no way to have contact with the components of the display and the glass of the case.

Abstract: In one embodiment, the modular display includes aggregates of individual panel tiles arranged between two large plastic sheets. The footprint of the large plastic sheet sandwich becomes the dimension of the display screen. The tilettes are phosphor emission panels with a full complement of emittable pixels. By separating the tilettes from the final full dimension sheet, the tilettes can be manufactured in transportable sizes and the outer full dimension sheets can be rolled for easy transport to the final install location.

Abstract: Systems and methods for tuning an impedance matching network in a step-wise fashion for each state transition are described. By tuning the impedance matching network in a step-wise fashion for each state transition instead of directly achieving an optimal value of a combined variable capacitance for each state, processing of a wafer using the tuned optimal values becomes feasible.

Abstract: A light emitting device includes a light emitting element and a wavelength conversion layer covering the light emitting element. The wavelength conversion layer includes first wavelength conversion particles, second wavelength conversion particles, and filling particles. The first wavelength conversion particles contains aluminum. The second wavelength conversion particles have outer surfaces covered with covering material which contains aluminum. The filling particles contain aluminum. The filling particles are provided among the first wavelength conversion particles and the second wavelength conversion particles. The filling particles have particle sizes smaller than particle sizes of the first wavelength conversion particles and particle sizes of the second wavelength conversion particles. The filling particles have aspect ratios smaller than aspect ratios of the first wavelength conversion particles and aspect ratios of the second wavelength conversion particles.

Abstract: The invention relates to a lighting device comprising an illuminant embodied as an OLED, and comprising a capacitive switching means, which are arranged on a substrate, wherein the illuminant has a first electrically conductive electrode and a second electrically conductive electrode, wherein a layer comprising organic, electroluminescent material is arranged between the first electrode and the second electrode, wherein the switching means has an electrode, wherein one electrode from the first electrode or the second electrode of the illuminant together with the electrode of the switching means is arranged in one plane, wherein a nonconductive spacing amounting to between 100 ?m and 700 ?m, more particularly between 400 ?m and 600 ?m, is present between said one electrode of the illuminant and the electrode of the switching means in the plane.

Abstract: A flexible display apparatus including a substrate including a flat surface portion and at least one curved surface portion, and a display including a first display region above the flat surface portion and a second display region above the at least one curved surface portion. The second display region includes a correcting layer including a first point and a second point apart from each other. The second point is farther away from the first display region than the first point. A thickness of the correcting layer at the second point is greater than a thickness of the correcting layer at the first point. The correcting layer includes a curved portion between the first point and the second point.

Abstract: A display device includes: a display panel including a first curved portion that is curved; and a drive circuit board on which a circuit for driving the display panel is formed. The drive circuit board includes a second curved portion that is curved following the first curved portion, and each of a plurality of components including one of a resistor and a capacitor and mounted on the second curved portion is mounted on the drive circuit board so that a crosswise direction of the component in plan view, which is a direction perpendicular to an alignment direction of a plurality of electrodes of the component, follows a curving direction of the second curved portion.

Abstract: During a normal operation, alternating drive voltage to be applied between a pair of electrodes provided to face an outer surface of a bottom part of a gas discharge light emitting tube is switched to a voltage value V2 lower than a voltage value V1 at the time of starting lighting. Further, the alternating drive voltage to be applied during the normal discharge operation is intermittently applied in a predetermined cycle and duty ratio to enable adjustment of light emission intensity.

Abstract: A display device with reduced chance of pad unit corrosion is presented. The display device includes: a display panel configured to display an image, the display panel including a first pad unit; a touch screen panel (TSP) attached to an upper portion of the display panel, the touch screen panel including a second pad unit; a TSP flexible printed circuit board configured to include one end that is connected to the second pad unit of the touch screen panel; a window substrate configured to cover the touch screen panel; and a TSP adhesive layer interposed between the touch screen panel and the window substrate to adhere the window substrate to the touch screen panel, wherein the TSP adhesive layer is formed such that the TSP adhesive layer at least partially covers a TSP connection part the TSP flexible printed circuit board is connected to the second pad unit of the touch screen panel.

Abstract: Microplasma generators and associated arrays and methods are described herein. Certain embodiments relate to a microplasma generator in which an elongated semiconductor structure can control electronic current supplied to a microplasma cavity. In certain cases, the microplasma generator can be configured to generate a microplasma when a voltage is applied across the elongated semiconductor structure. Some embodiments include particular spatial arrangements between the electrode(s), the elongated semiconductor structure, and/or the microplasma cavity.

Abstract: An electrically interconnected assembly is a technology enabler for mechanical and electrical interconnects between conductive threads, such as those within fabrics and textiles, to electrical connection points, such as contact pads on a printed circuit board (PCB), a flexible printed circuit (FPC), and/or rigid-flexible circuit board. The electrically interconnected assembly uses an anisotropic conductive coated fabric to make an electrical and mechanical interconnect in fabrics or textiles. All fabrics or textiles can be anisotropic conductive coated and cut into sheet form or supplied in roll form.

Abstract: A touch screen panel includes: a touch sensor film including: at least one corner formed in a curved line; and a through part; and a flexible printed circuit board including one end connected to a wiring extending from the touch sensor film; the flexible printed circuit board disposed through the through part, wherein the through part is disposed adjacent to the corner of the touch sensor film formed in the curved line, and wherein the through part includes a curved line corresponding to the corner of the touch sensor film formed in the curved line.

Abstract: A method of forming a metal gallate spinel structure that includes mixing a divalent metal-containing salt and a gallium-containing salt in solution with fermentative or thermophilic bacteria. In the process, the bacteria nucleate metal gallate spinel nano-objects from the divalent metal-containing salt and the gallium-containing salt without requiring reduction of a metal in the solution. The metal gallate spinel structures, as well as light-emitting structures in which they are incorporated, are also described.

Abstract: A light-emitting apparatus is provided. The light-emitting apparatus includes a first and second light-emitting elements disposed on a substrate. A sealing layer is above the first and second light-emitting elements for sealing the first and second light-emitting elements. A first phosphor layer is above a first portion of the sealing layer. The first phosphor layer includes at least one first phosphor. A second phosphor layer is above a second portion of the sealing layer. The second phosphor layer includes at least one second phosphor. The first phosphor layer is configured to emit light, which is emitted as a result of emission by the first light-emitting element, having a first color. The second phosphor layer is configured to emit light, which is emitted as a result of emission by the second light-emitting element, having a second color different from the first color.

Abstract: A light emitting device manufacturing method includes bonding an electrode of a light emitting element to a conductive member of a base. First wavelength conversion particles, second wavelength conversion particles and filling particles are electrodeposited on a surface of the light emitting element to form a wavelength conversion layer in which the filling particles are disposed among the first wavelength conversion particles and the second wavelength conversion particles. The first wavelength conversion particles contain aluminum. The second wavelength conversion particles have surfaces covered with covering material which contains aluminum. The filling particles contain aluminum. The filling particles have particle size smaller than particle sizes of both the first wavelength conversion particles and the second wavelength conversion particles. The filling particles have aspect ratio smaller than aspect ratios of both the first wavelength conversion particles and the second wavelength conversion particles.

Abstract: A communication device includes at least one radio that comprises signal processing circuitry, and at least one antenna coupled to the signal processing circuitry to send and receive radio signals. A component of the communication device requires user visibility and includes an isolator for isolating the at least one antenna, the isolator comprising at least one film that includes a transparent conductor. The component that requires user visibility may be a display screen or part of the chassis of a transparent communication device. The transparent conductor comprises a transparent conducting oxide such as indium tin oxide, indium tin oxide ink, graphite material, carbon nanotubes, or a conductive polymer.

Abstract: A package system includes: an exostructure; a ceramic panel attached to the exostructure; and an internal device component housed in the exostructure.

Abstract: A two-sided touch screen unit is disclosed. In one embodiment, the two-sided touch screen unit includes a housing. A first touch screen positioned in the housing faces a first direction, while a second touch screen is positioned in the housing facing in a second direction that is substantially the opposite of the first direction. At least one attenuation layer is positioned between the first touch screen and the second touch screen.