Abstract: A mending method for a display includes the steps of making a display device light to make a plurality of light emitting positions thereof shine, searching out a plurality of defect positions among the light emitting positions, providing a transferring device having a transferring surface with a plurality of miniature light emitting elements positioned correspondingly to the light emitting positions, planning a mending procedure which includes in the area the transferring surface corresponds to, choosing in chief the largest number of defect positions able to be mended at a single time according to the positions of the miniature light emitting elements and then in the area the transferring surface corresponds to, planning the rest of the defect positions according to the rest of the miniature light emitting elements, and according to the mending procedure, moving the transferring device to weld the miniature light emitting elements at the defect positions.

Abstract: A welding equipment used to form two welding structures in two target locations of an electronic device is disclosed to include a laser generating device for generating a laser pulse beam, a radiation device scanning the two target locations, and an adjusting device equipped with a beam splitting system for receiving and processing the laser pulse beam. The beam splitting system separates the laser pulse beam into a reflected beam and a penetrating beam to control a radiation angle of the reflected beam and the penetrating beam, and project the reflected beam and the penetrating beam to the radiation device coaxially, so that the radiation device radiates the reflected beam and the penetrating beam coaxially to the two target locations to form the two welding structures. The radiation angle is related to relative positions of the two target locations.

Abstract: An electronic device includes a plurality of micro-optoelectronic components and a circuit board. Each of micro-optoelectronic components includes a semiconductor layer, and metal electrodes electrically coupled to the semiconductor layer and exposed on a surface of the semiconductor layer. The circuit board includes a metal circuit layer and a plurality of solder joints. The solder joints are formed on said metal circuit layer, and connected to said metal electrodes. A portion of each of metal electrodes and each of solder joints are welded to form a metal crystalline structure. The metal crystalline structure includes the composition of the metal electrode and/or the composition of the metal circuit layer.

Abstract: A display manufacturing method comprises steps of: moving a first substrate and a second substrate by a conveying apparatus; and implementing a first exposure and a second exposure of the first substrate and a first exposure and a second exposure of the second substrate by at least one light emitting element when the conveying apparatus drives the first and second substrates to pass through the light source module. When the first exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite, or when the second exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite. A photo alignment process is also disclosed.

Abstract: A light exposure system executing a light exposure process to a plurality of assembly cells, each of which includes a first substrate, a second substrate and a liquid crystal layer disposed between the first and second substrates, comprises: a transmission device; two moving stages disposed on the transmission device and carrying the assembly cells; and a light source module including at least a light emitting element, wherein the transmission device moves at least one of the moving stages carrying the assembly cell or the light source module, and the light emitting element emits the light to the assembly cell, wherein the assembly cells include a first assembly cell and a second assembly cell, the moving stages carry the first assembly cell and the second assembly cell, respectively, wherein when the light exposure process is executed to the first assembly cell, the second assembly cell receives the work of cell replacement and alignment, electrode contact and application of electric field, wherein when the

Abstract: A display manufacturing method comprises steps of: moving a first substrate and a second substrate by a conveying apparatus; and implementing a first exposure and a second exposure of the first substrate and a first exposure and a second exposure of the second substrate by at least one light emitting element when the conveying apparatus drives the first and second substrates to pass through the light source module. When the first exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite, or when the second exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite. A photo alignment process is also disclosed.

Abstract: A display manufacturing method comprises steps of: moving a first substrate and a second substrate by a conveying apparatus; and implementing a first exposure and a second exposure of the first substrate and a first exposure and a second exposure of the second substrate by at least one light emitting element when the conveying apparatus drives the first and second substrates to pass through the light source module. When the first exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite, or when the second exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite. A photo alignment process is also disclosed.

Abstract: A light exposure system executes a light exposure process to an assembly cell, which includes a first substrate, a second substrate and a liquid crystal layer disposed between the first and second substrates. The light exposure system comprises a transmission device, two moving stages and a light source module. The moving stages are disposed on the transmission device and at least one of the moving stages carries the assembly cell. The light source module includes at least a light emitting element. The transmission device moves at least one of the moving stages carrying the assembly cell or the light source module and the light emitting element emits the light to the assembly cell. A light exposure process applied to the light exposure system is also disclosed.

Abstract: A display manufacturing method comprises steps of: moving a first substrate and a second substrate by a conveying apparatus; and implementing a first exposure and a second exposure of the first substrate and a first exposure and a second exposure of the second substrate by at least one light emitting element when the conveying apparatus drives the first and second substrates to pass through the light source module. When the first exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite, or when the second exposures of the first and second substrates are implemented, the moving directions of the first and second substrates are opposite. A photo alignment process is also disclosed.

Abstract: Disclosed is a method for manufacturing an LCD substrate, including forming an alignment material layer on a transparent substrate. The transparent substrate is located on an exposure platform, wherein the exposure platform surface includes a patterned structure thereon. The photo alignment aligns the alignment material layer corresponding to the patterned structure, thereby patterning the alignment material layer to form a multi-domain alignment structure.