Abstract:
A system and method for controlling transportation of a substrate of a liquid crystal panel is disclosed. Said method comprises: putting the substrate of the liquid crystal panel into a transport apparatus; humidifying the transport apparatus having the substrate of the liquid crystal panel placed thereinto by utilizing a humidifying apparatus to form a mist in the transport apparatus; and transporting the substrate of the liquid crystal panel by utilizing the humidified transport apparatus. The present invention prevents the substrate of the liquid crystal panel from being damaged by electrostatic charges and ensures product percent of pass.
Abstract:
The present invention provides a glass substrate inspection device and an inspection method that are applicable to inspect if breaking exists in a glass substrate deposited in a cartridge. The inspection device includes at least one detector assembly and at least one processing unit. The detector assembly includes a light-transmitting element located at one side of the glass substrate and two light-receiving elements respectively located at two sides of the glass substrate. The processing unit determines if difference of brightness detected by the two light-receiving elements is within a predetermined range, whereby breaking is determined existing in the glass substrate when the difference of brightness is not within the predetermined range. With this arrangement, the present invention can reduce or prevent a broken glass substrate from entering a display panel manufacture line.
Abstract:
The present invention discloses a suspended ceiling filtration apparatus, which includes filtration units. The filtration unit includes a filtration part, two horizontal strip support legs and two longitudinal strip support legs. A support plate protrudes from the support legs. The filtration part is placed on the support plate, and a buffer filling part is disposed between the filtration part and the support plate. The buffer filling part is utilized to self-adaptively swell and shrink relative to the support plate according to a weight of the supported filtration part, the buffer filling part fills a gap between the support plate and the filtration part.
Abstract:
A pick-and-place apparatus for handling glass substrate is disclosed and which comprises a chassis and a transportation platform which includes a transferring device disposed on the chassis and includes a first frame and a plurality of transferring rods rotationally disposed across the first frame along a first reference direction. A vertical displacing mechanism is provided for moving the transportation platform to move vertically to a pre-determined height. And a horizontal displacing device is provided for moving the transportation platform to more along the first reference direction such that the transferring device can be moved in and out of the cartridge, wherein the first transferring rods rotationally move the glass substrate into the cartridge or out of the cartridge.
Abstract:
The present invention provides a device of replacing and charging battery at environment monitoring terminal and battery replacement system. Through the battery positioning mechanism disposed at both battery charging device and environment monitoring terminal, and anodes and cathodes disposed for contacting the battery electrodes, the battery replacement device can replace the full-discharged battery at environment monitoring terminal and a full-charged battery at the battery charging device. In this manner, the system can automatically replace the battery at environment monitoring terminal without manual replacement so as to reduce battery replacement time.
Abstract:
The present invention provides an unpacking device for glass substrate and which includes a bracket and a plurality of sucking heads mounted thereon. A plurality of altitude sensors is incorporated to trigger an alarm if the altitude sensors are not synchronized during the pickup operation.
Abstract:
The present invention provides an unpacking device for glass substrate and which includes a bracket and a plurality of sucking heads mourned thereon, and a plurality of altitude. The sucking heads are used to pickup a working target, and the altitude sensors are arranged between the bracket and the sucking heads. The unpacking device of the present invention can readily reduce the breakage of the glass substrates and also protect the sucking heads from being damaged.
Abstract:
A cartridge for carrying glass substrate is provided, and the cartridge comprises a pair of side beams each is provided with at least two pillars along a first direction. Each of the pillars is configured with a plurality of fixtures detachably juxtaposed vertically. A plurality of supporting units is arranged between the fixtures of the side beams so as to define a plurality of supporting surfaces vertically. And a plurality of free locking units detachably are secured to the fixtures on the common surface so as to allow the moving of the fixtures on the common surface as a whole. With the provision of the cartridge of the present invention, the damaged glass substrate can be conveniently and effectively removed without tempering other glass substrates which are intact and undamaged.
Abstract:
The present invention discloses an automatic particle measurement cart and an automatic particle measurement system for clean room and a measurement method thereof. The automatic measurement cart includes an automatic piloting device, which guides the cart to move along a pre-set path. The automatic piloting device includes a reading head, which recognizes the pres-set detective path and detects multiple pre-set measurement points. The cart moves along the detective path. A measurement device measures particles at the measurement points. A data processing device receives particle data measured by the measurement device and provides output according to a pre-set rule. With the above manner, the present invention can automatically measure clean room particles at a given site so as to reduce human labor involved and improve the preciseness of measurement result.
Abstract:
An interactive system includes a display device and an interactive device. The display device includes a display module for displaying an image thereon, a S processor module and a transceiver. The interactive device includes an image capturing unit, a control unit, and a signal transceiving unit configured to communicate with the transceiver. The image capturing unit is operable to capture at least a part of the image displayed on the display module. The control unit is operable to transmit information of the captured part of the image to the transceiver via the signal transceiving unit. The processor module is operable to determine location of the interactive device relative to the image displayed on the display module based on the information of the part of the image received by the transceiver.