Abstract:
A light-emitting apparatus includes a substrate, at least one light emitting diode (LED) die, a sealant align layer, and a first sealant. The substrate has a die disposing area. The LED die is disposed on the die disposing area. The sealant align layer is disposed on the substrate. The first sealant at least partially covers the LED die and contacts with the sealant align layer. The light-emitting apparatus can avoid the light emitted from the LED die to be blocked and can have higher light efficiency.
Abstract:
In a method of manufacturing a liquid crystal display, first, a panel assembly structure including a first substrate, a second substrate and several sealants connecting inner surfaces of the first and second substrate is provided. The first substrate includes several third substrates. The second substrate includes several fourth substrates corresponding to the third substrates, respectively. Each third substrate, the corresponding fourth substrate and the corresponding sealant form a panel. First and second polarizers are adhered correspondingly to outer surfaces of the third and fourth substrates. The panels are separated after the adherence of the first and second polarizers.
Abstract:
A liquid crystal display device includes a pair of transparent substrates, a liquid crystal layer sandwiched between inner surfaces of the transparent substrates, and a pair of optical films each attached on an outer surface of the transparent substrate via a transparent adhesive layer. The transparent adhesive layer has an outer surface facing the optical film. The outer surface of each transparent substrate has a first Ra surface roughness, and the outer surface of the adhesive layer has a second Ra surface roughness which is smaller than the first Ra surface roughness. The present invention further provides a method for manufacturing the liquid crystal display device.
Abstract:
The present invention provides a method for manufacturing a thin film transistor panel. At first, a gate line is formed on an insulating substrate. A gate insulating layer and a semiconductor layer which comprises an impurity-doped layer are deposited over the gate line sequentially. The semiconductor layer is patterned. A conductive pattern layer with a source electrode, a channel region and a drain electrode is formed over the patterned semiconductor layer. The impurity-doped layer is exposed at the channel region. Then, the impurity-doped layer at the channel region is insulated.
Abstract:
In a method of manufacturing a liquid crystal display, first, a panel assembly structure including a first substrate, a second substrate and several sealants connecting inner surfaces of the first and second substrate is provided. The first substrate includes several third substrates. The second substrate includes several fourth substrates corresponding to the third substrates, respectively. Each third substrate, the corresponding fourth substrate and the corresponding sealant form a panel. First and second polarizers are adhered correspondingly to outer surfaces of the third and fourth substrates. The panels are separated after the adherence of the first and second polarizers.
Abstract:
A method for classifying a substrate first provides the substrate and its corresponding inspection map. Then, a database having a plurality of specification data is provided. After that, the inspection map is compared with each of the specification data so as to find the specification data coinciding with the inspection map. Finally, the substrate is defined according to the layout of active areas coinciding with the inspection map, and then the substrate is classified and stored.