Abstract:
The present invention provides a method for laminating glass panels and a vacuum lamination device using the method. The method includes (1) providing a TFT substrate (240) and a CF substrate (220) to be laminated, the CF substrate (220) being coated with a seal resin (204), the TFT substrate (240) carrying liquid crystal (402) dropped thereon; (2) aligning and laminating the TFT substrate (240) and the CF substrate (220) in a vacuum environment to complete a lamination process; (3) applying UV light to transmit through the TFT substrate (240) for carrying out UV curing of the seal resin (204) interposed between the CF substrate (220) and the TFT substrate (240) so as to complete a UV curing process; (4) removing the laminated CF substrate (220) and the TFT substrate (240) that have been subjected to the UV curing process out of the vacuum environment.
Abstract:
An ejection head for ejecting alignment film forming composition includes multiple nozzles. Each nozzle includes a chamber, a composition source, and a control valve. A liquid transportation pipe and a pusher are disposed on the bottom and the top of the chamber, respectively. The pusher is used for pushing the alignment film forming composition out of the liquid transportation pipe. The composition source is used for transporting the alignment film forming composition to the chamber. The control valve is used for controlling switching of the liquid transportation pipe to control output of the alignment film forming composition. Owing to the control valve and the blowing device, the alignment film forming composition is prevented from condensing on the nozzle and blocking the nozzle or from forming large droplets because of accumulation. In this way, the quality of the alignment film is greatly enhanced owing to uniform spraying and regular output.
Abstract:
The present invention provides a method for inspecting a panel-bonding semi-finished product, which includes (1) placing a panel-bonding semi-finished product on a tray in a feeding station; (2) using a conveyance mechanism to convey the tray and the panel-bonding semi-finished product to a final display test station; (3) proceeding with a final display test on the panel-bonding semi-finished product and ending the test if the result fails and proceeding to the next step if the result passes; (4) conveying the tray and the panel-bonding semi-finished product to a final visual check station; (5) proceeding with final visual check for the panel-bonding semi-finished product that passes the final display test and if the result fails, ending the inspection and if the result passes, then proceeding to the next step; (6) conveying the tray and the panel-bonding semi-finished product to a quality inspection station; (7) proceeding with quality inspection on the panel-bonding semi-finished product; (8) conveying the tray and the panel-bonding semi-finished product to a packaging station; and (9) proceeding with packaging of the panel-bonding semi-finished product.
Abstract:
A guide device for hard workpiece transfer is provided, comprising a buffer belt for carrying the hard workpiece, a pilot wheel for driving the buffer belt to move, and a drive device for controlling the pilot wheel to rotate, with the buffer belt being made of elastic materials. With the buffer belt made of elastic materials carrying such hard workpieces as glass to be transferred, when the guide device is in contact with the hard workpiece to be transferred, the buffer belt is pressed to deform, which can reduce the pressure produced during the contact of the guide device with the hard workpiece, and prevent the contact portion from being broken or worn because of the pressure, not only preventing loss of the hard workpiece to be transferred, but also reducing use consumption of the guide device, thereby reducing the material cost.
Abstract:
A to-be-cut liquid crystal mother panel includes a TFT mother substrate forming at least one voltage-applying area onto which an external voltage is applied, a CF mother substrate arranged corresponding to the TFT mother substrate, and a pressure-reduction member located between the CF mother substrate and the TFT mother substrate; the pressure-reduction member corresponds to the voltage-applying area for reducing an adsorptive force between the voltage-applying area and an end portion of the CF mother substrate corresponding to the voltage-applying area. The pressure-reduction member increases the surface roughness of the end portion, avoids a vacuum state formed between the end portion and the voltage-applying area, reduces the adsorptive force between the end portion and the voltage-applying area, and allows the splitting device to separate the end portion from the TFT mother substrate easily after the liquid crystal mother panel is cut.
Abstract:
The present disclosure provides a method for manufacturing a liquid crystal panel motherboard, comprising providing materials that can form projections on a margin area of at least one of two substrates of the liquid crystal panel motherboard, and then fitting said two substrates to each other, so that the margin area of said at least one of the two substrates cannot be fit to a corresponding margin area of the other substrate seamlessly. The present disclosure also provides a method for cutting a liquid crystal panel motherboard, and a liquid crystal panel obtained from the liquid crystal motherboard.
Abstract:
A temperature control pin, and the device and the method for supporting a substrate in the ultraviolet (UV) solidifying alignment process are disclosed. The temperature control pins includes a supporting pin for supporting a substrate, a heater being arranged within the supporting pin and is close to a top of the supporting pin, and a cooling system. The heater is controlled by the temperature control system to heat up the supporting pin. The cooling system is controlled by the temperature control system to cool down the supporting pin, and cooperatively operates with the heater to dynamically adjust the temperature of the supporting pins. When being heated, the temperature of the temperature control pins is adjusted by the temperature control system, and the substrate is heated uniformly such that the “Pin Mura” phenomenon is reduced or decreased.
Abstract:
A to-be-cut liquid crystal mother panel includes a TFT mother substrate forming at least one voltage-applying area onto which an external voltage is applied, a CF mother substrate arranged corresponding to the TFT mother substrate, and a pressure-reduction member located between the CF mother substrate and the TFT mother substrate; the pressure-reduction member corresponds to the voltage-applying area for reducing an adsorptive force between the voltage-applying area and an end portion of the CF mother substrate corresponding to the voltage-applying area. The pressure-reduction member increases the surface roughness of the end portion, avoids a vacuum state formed between the end portion and the voltage-applying area, reduces the adsorptive force between the end portion and the voltage-applying area, and allows the splitting device to separate the end portion from the TFT mother substrate easily after the liquid crystal mother panel is cut.
Abstract:
An ultrasonic cleaner and a coater equipped with the ultrasonic cleaner are provided. The ultrasonic cleaner is configured to clean an inkjet head for ejecting an alignment solution. The cleaner comprises a cleaning receiver for receiving a clean agent, an ultrasonic generator for generating an ultrasonic, and a storing device for retrieving and storing the clean agent, and each of the ultrasonic generator and the storing device is connected to the cleaning receiver. The ultrasonic cleaner can clean the blocked nozzle hole of the inkjet head quickly and thoroughly in a short time. Besides, the cleanliness in the equipment will not be destroyed and the cleaning agent can be retrieved.
Abstract:
The present disclosure provides a docking device for material bottles used for guiding material in a first material bottle to flow into a second material bottle. The docking device includes a sleeve with two ends thereof being respectively engageable with mouths of the first material bottle and the second material bottle and a protrusion configured in the sleeve for guiding the material in the first material bottle to flow into the second material bottle. With the sleeve, the two material bottles can be docked together, thus, the material in one material bottle can be poured into the other material bottle quickly. Meanwhile, the protrusion configured in the sleeve can guide the flowing material to avoid side leakage when the material flows from one material bottle into the other material bottle along the inner wall of the sleeve.