812results about How to "Light evenly" patented technology

A photosensor and a display unit are fabricated on the same substrate. Input coordinates are identified by comparing the light quantities at positions (pixels) which is and is not touched by a finger or the like by use of a comparison circuit. Thus, TFTs to form the photosensor can be fabricated on the same substrate in the same process, and also reductions in manufacturing cost and the number of parts can be realized. A region required for disposing a sensor in the circumference becomes unnecessary, thus realizing the miniaturization of the device. Moreover, since a region to be a blind spot is eliminated in the display unit, it is possible to utilize the display unit effectively. It is possible to improve the precision of an input recognition and to uniformly perform detection all over the display unit. Furthermore, since the photosensor is constituted of a photoreceptor circuit which is capable of adjusting the sensitivity of receiving light, it is possible to make the sensitivity of receiving light (detection) uniform in the display unit.

A lamp is provided. The lamp includes a lamp housing; light emitting diodes (LEDs); a main reflector disposed so as to oppose to the LEDs for reflecting light emitted from the LEDs towards a front side of the lamp; a sub-reflector which is interposed between the LEDs and the main reflector, and which reflects and diffuses the light emitted from the LEDs towards the main reflector; an LED element assembly which extends in parallel with the sub-reflector and comprises a plurality of flat portions, each flat portion corresponding to one of the plurality of LEDs and on which the corresponding LED is mounted, adjacent ones of the flat portions being coupled together by at least one step portion; and a center portion which covers the LED element assembly and the LEDs such that the LEDs are not exposed to the front side of the lamp.

An (Al, Ga, In)N and ZnO direct wafer bonded light emitting diode (LED), wherein light passes through electrically conductive ZnO. Flat and clean surfaces are prepared for both the (Al, Ga, In)N and ZnO wafers. A wafer bonding process is then performed between the (Al, Ga, In)N and ZnO wafers, wherein the (Al, Ga, In)N and ZnO wafers are joined together and then wafer bonded in a nitrogen ambient under uniaxial pressure at a set temperature for a set duration. After the wafer bonding process, ZnO is shaped for increasing light extraction from inside of LED.

An illuminating device has a solid light-emitting element module (10) and a phosphor module (20) joined to the solid light-emitting element module (10). The solid light-emitting element module (10) has a plurality of the solid light-emitting elements. The phosphor module (20) has a plurality of phosphor-containing parts (22) corresponding to the individual solid light-emitting elements (12). Thus, a light-emitting part is provided, which has more than one kind of luminescence sources having the solid light-emitting element (12) and the phosphor-containing part (22). An illumination intensity of a composite light is 150 lux or more at a distance of 30 cm perpendicularly from the light-emitting surface of the light-emitting part.

The present invention provide a light-emitting diode capable of making its light emission more uniform without too high a concentration current and of improving efficiency of light outgoing and its life. In the light-emitting diode, the n-side electrode has an n-side connecting portion and an n-side extending portion, which extends in the longitudinal direction from a predetermined part of the n-side connecting portion, and the p-side pad member has at least p-side connecting portion to be connected to a conductive member. The light-emitting diode further comprises an n-side connecting area, in which the n-side connecting portion is provided, provided in proximity to one end in the longitudinal direction, a p-side connecting area, in which the p-side connecting portion is provided, provided in proximity to another end in the longitudinal direction, and a middle area provided between them, and the n-side extending portion is positioned in the middle area, and extends so as to be opposed to the p-side current diffusing member.

A nitride semiconductor light emitting device comprising an n-side nitride semiconductor layer and a p-side nitride semiconductor layer formed on a substrate, with a light transmitting electrode 10 formed on the p-side nitride semiconductor layer, and the p-side pad electrode 14 formed for the connection with an outside circuit, and the n-side pad electrode 12 formed on the n-side nitride semiconductor layer for the connection with the outside circuit, so as to extract light on the p-side nitride semiconductor layer side, wherein taper angles of end faces of the light transmitting electrode 10 and/or the p-side nitride semiconductor layer are made different depending on the position.

The invention belongs to the technical field of display and specifically relates to an OLED pixel circuit and a display device thereof. The OLED pixel circuit comprises an OLED, a driving unit for driving the OLED to emit light, and a compensating unit. One electrode of the OLED is connected with the driving unit. The compensating unit comprises a sensing element capable of sensing light and converting an optical signal of the OLED into an electric signal, and reversely compensates the driving current applied by the driving unit to the OLED according to the light-emitting brightness of the OLED. The OLED pixel circuit, by means of the cooperation of a photosensitive resistor and a compensating driving transistor, compensates uneven light emitting of a display panel due to parameter drifting of the driving unit and OLED aging in the TFT-OLED pixel circuit. The display device using the OLED pixel circuit has a better display effect.

The present invention provides an organic functional element such as an organic EL element, an organic TFT element or the like, wherein the organic functional element does not require vapor deposition in formation of an electrode on an organic material layer, and does not cause an electrode breaking even when bended, and a method for producing the same. An organic functional element of the present invention at least comprises more than one electrode and an organic material layer, wherein at least one electrode is made of a liquid metal.

A light-emitting diode includes a substrate, a semiconductive light-emitting layer, and electrodes. The semiconductive light-emitting layer is deposited on one side of the substrate. The electrodes are composed of a conductive material filled in pores leading to the semiconductive light-emitting layer through the substrate. The semiconductive light-emitting layer includes sequentially deposited n-type and p-type semiconductive layers. The electrodes include n-side and p-side electrodes. One of the n-side and p-side electrodes penetrates through one of the n-type and p-type semiconductive layers, which is disposed closer to the substrate but not targeted for connection, and terminates with a tip thereof located within the other semiconductive layer. The other of the n-side and p-side electrodes penetrates through the substrate from the other side opposite to the one side of the substrate and terminates with a tip thereof located within the one semiconductive layer disposed closer to the substrate.

The invention discloses an online detection method for a circular plate casting based on machine vision, and the method comprises the steps: obtaining the front and back images of a circular plate casting sample through collecting the image of the circular plate casting sample, and performing the preprocessing of the images; detecting the size of the sample according to the collected sample image,performing the preliminary discrimination of defects, and performing the next detection; performing the amplification of a gap through the image processing, extracting the coordinates, and achievingthe detection marking of the sample gap; performing the detection of the rag defects of the sample according to the comparison between the degree of deviation of the edge from the reference and a setthreshold value; and finally completing the discrimination of whether the sample is qualified or not. The method can achieve the real-time quick recognition of the gap and rags of the circular plate casting, and is suitable for a high-speed online detection system.

An illumination apparatus used in non-light emission transparent display devices includes a base material, light emitting elements arranged two dimensionally on the surface of the base material, a drive section driving the light emitting elements, and a light emitting intensity control section controlling a light emitting intensity of the light emitting elements. An arrangement of the light emitting elements is such that a density at ends of the base material is high compared to that in a center part thereof, and the ends have a high density in regions where the base temperature is high and the center part has a high density in regions where the base material temperature is high.

Disclosed is a flat lamp device, including lower and upper glass plates facing each other in parallel; spacers interposed between the plates to keep distance therebetween; a cathode electrode singly formed over the entire upper surface of the lower glass plate; an insulation film formed on the cathode electrode; semiconductor films independently patterned on the insulation film at intervals; a catalyst-metal layer laminated on the buffer metal to improve the adhesion of catalyst metal formed on the semiconductor films; carbon nano-tubes formed on the catalyst-metal layer; a grid electrode installed on the carbon nano-tubes between the plates to guide electron emission from the carbon nano-tubes with a mesh shape having an opening for passage of the emitted electrons; an anode electrode formed below the upper glass plate to accelerate the emitted electrons; and a fluorescent layer formed below the anode electrode to emit light by collision with the accelerated electrons.

The invention discloses a sidelight-typed blacklight module which adopts an LED light-source, which comprises a PCB substrate, LED chips, and a light guide plate. A plurality of LED chips are fixed in equal interval at the PBC substrate; a sealing structure can be used for sealing all LED chips arranged on the PBC substrate; the shape of the sealing structure is a rectangular with length and width same to that of the light guide plate. Except the light-outlet surface of the sealing structure, contacting the light guide plate, rest surfaces of the sealing structure are coated or pasted with reflective material. At the position of each LED chip in the sealing structure, a cavity for containing the LED chip is arranged. The sidelight-typed blacklight module of the invention, which adopts the LED light-source, changes the distribution-type point light into the rectangular panel light which matches with the light inlet surface of the light guide plate, so that the invention can lighten like a CCFL light source at the light inlet side of the light guide plate.