Abstract: The present disclosure proposes crucible heating apparatus. In embodiment 1, the apparatus includes a crucible, a metal barrel around the crucible, a heating wire wound between the metal barrel and the crucible, a measuring unit for measuring the position of the liquid level of a material in the crucible and a controller, and the apparatus is characterized in that the heating wire includes at least two subsections arranged along the longitudinal direction, and the controller controls the heating power of each subsection respectively, thus dividing the crucible into at least two corresponding temperature control zones. In such a manner, by disposing a plurality of subsections of the heating wire and the corresponding temperature control zones of the crucible, the temperature of each position of the crucible is accurately controlled. The present disclosure also proposes a crucible heating method.

Abstract: A dust protection method for a glass substrate cutter includes the following steps: (1) providing a cutter and a glass-substrate-to-be-cut, wherein the cutter includes a cutter body, a cutting blade, a cover plate assembly, and suction tubes, the cover plate assembly forming a first slit corresponding to the cutting blade: (2) positioning and fixing the glass-substrate-to-be-cut on the cutter body and closing the cover plate to form a second slit between the glass-substrate-to-be-cut and the cover plate; (3) introducing a pressurized gas flow into the second slit at edges of the glass-substrate-to-be-cut and activating the suction tubes to draw in the gas; and (4) controlling the cutting blade to proceed with a cutting operation along the first slit to complete the processing of the glass substrate.

Abstract: A method for manufacturing array substrate with embedded photovoltaic cell includes: providing a substrate; forming a buffer layer on the substrate; forming an amorphous silicon layer on the buffer layer; converting the amorphous silicon layer into a polysilicon layer; forming a pattern on the polysilicon layer; forming a first photoresist pattern on the polysilicon layer and injecting N+ ions; forming a gate insulation layer on the polysilicon layer; forming a second photoresist pattern on the gate insulation layer and injecting N? ions; forming a third photoresist pattern on the gate insulation layer and injecting P+ ions; forming a metal layer on the gate insulation layer so as to form a gate terminal; forming a hydrogenated insulation layer on the metal layer; forming a first ditch in the first insulation layer; and forming a second metal layer on the first insulation layer.

Abstract: The present invention provides a moving device and dust cover. The moving device includes a moving cart and a dust cover; the dust cover forming a dust-prevention space over the moving cart; the dust cover including an air-driver device, a vent tube and an outer cover; the air-driver device being disposed outside of outer cover for sucking in outside air and driving air into vent tube; the vent tube being connected to air-driver device and outer cover, for flowing of the air sucked in by air-driver device into the dust-prevention space formed by outer cover so that the space forming a positive pressure with respect to outside of outer cover; the outer cover performing filtering on the air flown in through vent tube. As such, the present invention accomplishes a better cleanroom result and provides easy disassembly and flexible usability to reduce the cost.

Abstract: The present invention provides a method for manufacturing liquid crystal display module with photovoltaic cell, which includes: (1) providing a substrate and a liquid crystal display panel; (2) forming a transparent conductive layer on the substrate through sputtering; (3) forming a first matrix, which is arranged to stay away from a pixel aperture of the liquid crystal display panel and is located below the TFT arrays; (4) forming a photovoltaic layer on the transparent conductive layer through chemical vapor deposition; (5) forming a second matrix corresponding to the first matrix; (6) forming a metal layer on the photovoltaic layer through sputtering; (7) forming a third matrix corresponding to the second matrix so as to form a photovoltaic cell on the substrate; (8) applying sealant to the substrate around the photovoltaic cell; and (9) bonding the substrate and the liquid crystal display panel to each other and curing the sealant.

Abstract: The present invention provides a dust protection method for glass substrate edge polishing machine, which includes (1) providing an edge polishing machine and a glass substrate to be polished, wherein a dust protection board is arranged above a platform bearing a glass substrate to form a first gap therebetween and an air blow tube is provided in front of a grind stone; (2) fixing the glass substrate on the edge polishing machine; (3) introducing cooling water from the dust protection board to form a water curtain at the first gap; (4) activating the air blow tube to form an air curtain region; and (5) activating the grindstone to set out a grinding operation. The dust protection board and the water curtain block particles generated in grinding and the air curtain region blows residual water that contains particles off edges of the glass substrate.

Abstract: A dust protection method for a glass substrate cutter includes the following steps: (1) providing a cutter and a glass-substrate-to-be-cut, wherein the cutter includes a cutter body, a cutting blade, a cover plate assembly, and suction tubes, the cover plate assembly forming a first slit corresponding to the cutting blade: (2) positioning and fixing the glass-substrate-to-be-cut on the cutter body and closing the cover plate to form a second slit between the glass-substrate-to-be-cut and the cover plate; (3) introducing a pressurized gas flow into the second slit at edges of the glass-substrate-to-be-cut and activating the suction tubes to draw in the gas; and (4) controlling the cutting blade to proceed with a cutting operation along the first slit to complete the processing of the glass substrate.

Abstract: The present invention provides a method for manufacturing liquid crystal display module with photovoltaic cell, which includes: (1) providing a substrate and a liquid crystal display panel; (2) forming a transparent conductive layer on the substrate through sputtering; (3) forming a first matrix, which is arranged to stay away from a pixel aperture of the liquid crystal display panel and is located below the TFT arrays; (4) forming a photovoltaic layer on the transparent conductive layer through chemical vapor deposition; (5) forming a second matrix corresponding to the first matrix; (6) forming a metal layer on the photovoltaic layer through sputtering; (7) forming a third matrix corresponding to the second matrix so as to form a photovoltaic cell on the substrate; (8) applying sealant to the substrate around the photovoltaic cell; and (9) bonding the substrate and the liquid crystal display panel to each other and curing the sealant.

Abstract: The present invention provides a method for manufacturing array substrate with embedded photovoltaic cell and an array substrate manufactured with same. The method includes: (1) providing a substrate; (2) forming a transparent conductive layer on the substrate; (3) forming a conductivity enhancing layer on the transparent conductive layer; (4) forming a photovoltaic layer on the conductivity enhancing layer; (5) forming a metal layer on the photovoltaic layer; (6) applying a masking process to form an opening in the metal layer, the photovoltaic layer, the conductivity enhancing layer, and the transparent conductive layer; (7) forming a transparent insulation layer on the metal layer; and (8) forming a TFT array on the transparent insulation layer. The present invention allows a photovoltaic cell to be embedded in an array substrate through a simple process and allows a full use of the photo energy from a backlight module.

Abstract: A method for manufacturing array substrate with embedded photovoltaic cell includes: providing a substrate; forming a buffer layer on the substrate; forming an amorphous silicon layer on the buffer layer; converting the amorphous silicon layer into a polysilicon layer; forming a pattern on the polysilicon layer; forming a first photoresist pattern on the polysilicon layer and injecting N+ ions; forming a gate insulation layer on the polysilicon layer; forming a second photoresist pattern on the gate insulation layer and injecting N? ions; forming a third photoresist pattern on the gate insulation layer and injecting P+ ions; forming a metal layer on the gate insulation layer so as to form a gate terminal; forming a hydrogenated insulation layer on the metal layer; forming a first ditch in the first insulation layer; and forming a second metal layer on the first insulation layer.

Abstract: The present invention relates to a vacuum lamination machine suitable for all generations and an operation method thereof. The vacuum lamination machine suitable for all generations includes a stage on which a transfer device, a positioning device, an adhesive application device, a turn-over device, and at least one vacuum lamination device are arranged. The stage has a size that is sufficiently large for all sizes of substrate. The transfer device includes a fork that is adjustable for spacing distance to suit for substrate sizes. The turn-over device includes sufficiently densely arranged vacuum suction pins to suit for substrate sizes. The positioning device includes a size identification system that identifies a rough location of a substrate on the stage and a mark position identification system that carries out precise alignment of the substrate. The vacuum lamination machine supports substrate pairs of various sizes and improves flexibility of use.