Abstract: An automatic target image acquisition and calibration system for application in a defect inspection system is disclosed. During the defect inspection system working normally, the automatic target image acquisition and calibration system is configured to find a recognition structure from an article under inspection, and then determines a relative position and a relative 3D coordinate if the article. Therefore, a robotic arm is controlled to carry a camera to precisely face each of a plurality of inspected surfaces of the article, such that a plurality of article images are acquired by the camera. It is worth explaining that, during the defect inspection of the article, there is no need to modulate an image acquiring height and an image acquiring angle of the camera and an illumination of a light source.

Abstract: A light emitting device includes a window and a collimating component over a light emitting pixel. A light reflection performance of the light emitting pixel to an incoming ambient light is configured by the window to be appeared to have at least two regions, wherein one region of the at least two regions has a smaller transmittance to the incoming ambient light than the other, the light emitting pixel includes a plurality of sub-pixels separated with a space, and the space is smaller than a resolution of a human eye.

Abstract: The present disclosure provides a light emitting device. The light emitting device includes a substrate, an array of light emitting units over the substrate, and an array of bumps. Each of the bumps is disposed between two of the light emitting units. Each of the light emitting units includes a first electrode including a bottom surface on the substrate, a top surface opposite to the bottom surface, and a sidewall between the bottom surface and the top surface. Each of the light emitting units includes a first organic layer on the first electrode and a second organic layer on the first organic layer. The first organic layer at least partially covers the sidewall. A method for manufacturing a light emitting device is also provided.

Abstract: The present disclosure provides a method for manufacturing a light emitting device. The method includes providing a substrate, and forming a photosensitive layer over the substrate. The method also includes patterning the photosensitive layer to form a first recess and a first bump. The method also includes disposing a first organic layer in the first recess. The method also includes patterning the photosensitive layer to form a second recess and a second bump. The method also includes disposing a second organic layer in the second recess.

Abstract: A light emitting device includes a window and a collimating component over a light emitting pixel. A light reflection performance of the light emitting pixel to an incoming ambient light is configured by the window to be appeared to have at least two regions, wherein one region of the at least two regions has a smaller transmittance to the incoming ambient light than the other, the light emitting pixel includes a plurality of sub-pixels separated with a space, and the space is smaller than a resolution of a human eye.

Abstract: The present disclosure provides a light emitting device. The light emitting device includes a substrate, and an array of light emitting units over the substrate. Each of the light emitting units includes a first electrode. The first electrode includes a bottom surface on the substrate, a top surface opposite to the bottom surface, and a sidewall between the bottom surface and the top surface. Each of the light emitting units further includes a second electrode over the first electrode and facing the top surface. Each of the light emitting units further includes an organic layer between the first electrode and the second electrode. The organic layer at least partially covers the top surface and a meeting point of the top surface and the sidewall. The organic layer is discontinuous among the light emitting units. A method for manufacturing a light emitting device is also provided.

Abstract: The present disclosure provides a light emitting device. The light emitting device includes a substrate, and an array of light emitting units over the substrate. Each of the light emitting units includes a first electrode and an organic layer over the first electrode. The first electrode includes a bottom surface on the substrate, a top surface opposite to the bottom surface, and a sidewall between the bottom surface and the top surface. The organic layer at least partially covers the top surface and a meeting point of the top surface and the sidewall. The light emitting device also includes an array of bumps over the substrate, and a second electrode over the organic layer and the array of bumps. The array of light emitting units and the array of bumps are alternatively ordered. A method for manufacturing a light emitting device is also provided.

Abstract: A method for forming an anti-glaring and anti-reflecting film is disclosed in this invention. According to this invention, an anti-glaring and anti-reflecting film can be produced by a single coating process. Therefore, according to this invention, the manufacture of the anti-glaring and anti-reflecting film can be simplified, and the yield thereof can be improved. Preferably, the anti-glaring and anti-reflecting film of this invention further comprises the functions of anti-fouling and hard-coating. Accordingly, the design of this invention can provide a more powerful anti-glaring and anti-reflecting film.

Abstract: A method for forming an anti-glaring and anti-reflecting film is disclosed in this invention. According to this invention, an anti-glaring and anti-reflecting film can be produced by a single coating process. Therefore, according to this invention, the manufacture of the anti-glaring and anti-reflecting film can be simplified, and the yield thereof can be improved. Preferably, the anti-glaring and anti-reflecting film of this invention further comprises the functions of anti-fouling and hard-coating. Accordingly, the design of this invention can provide a more powerful anti-glaring and anti-reflecting film.

Abstract: The present invention discloses a structure and a fabricating method of optic protection film. The structure is a conductive thin film structure that comprise two kinds of different resins, a resin A and a resin B, formed on a plastic substrate respectively to attain the functions of anti-static and anti-glare. Wherein, there are two kinds of conductive particles with different grain size in resin A, and the grain size of the conductive particles with bigger grain size is among the total thickness of the two resin film; moreover, in the conductive particles with bigger grain size, at least the upper rims of the partial conductive particles with bigger grain can touch to or expose in the exterior of the upper surface of the resin B so as to provide the functions of conductivity and anti-static. The materials of the resin B are selected so that the materials are harder after being solidified to provide the effect of the hard coating layer without adding extra conductive particles.