Abstract:
An exemplary electro-wetting display (EWD) device (30) includes: a first substrate (31); a second substrate (38) parallel to the first substrate; partition walls (34) arranged in a lattice on the second substrate thereby defining a plurality of pixel regions (P); a first fluid (35); and a second fluid (36). The first and second fluids are immiscible with each other and disposed between the first and second substrates. The second fluid is electro-conductive or polar. The first fluid is provided between the second substrate and the second fluid. Each pixel region includes two switch elements (315, 316) and a storage capacitor (336). The switch elements and the storage capacitor are disposed at a same side of the pixel region.
Abstract:
Provided herein is a device for quantitative analysis of a micro-volume solution. The device comprises a base portion provided with a light-emitting fiber, a movable arm provided with a light-receiving fiber, and at least one positioning block disposed between the movable arm and the base portion so that an optical path with a constant length is formed between the light-emitting fiber and the light-receiving fiber when the positioning block is clamped by the movable arm and the base portion. The solution concentration related to the absorbance with respect to the standard optical path length may be evaluated based on the built-in database and the optical intensity of light having passed through the solution as detected by a light sensor.
Abstract:
An exemplary electrostatic discharge protection device includes: an electrostatic discharge part configured for discharging electrostatic when the electrostatic is larger than a threshold value; and a light emitting part configured for emitting light when electrostatic discharge happens.
Abstract:
A high-performance light source apparatus for fluorescence photography of biomolecule sample gels is disclosed. The high-performance light source apparatus comprises a base frame, a supporting region located on the center of the top surface of the base frame for supporting a biomolecule sample gel, and at least one light-emitting module disposed on the top surface of the base frame around the supporting region for emitting an exciting light onto the biomolecule sample gel laterally. Each light-emitting module comprises an LED array having different colors of LEDs for different bio reagents. The exciting light is projected onto the biomolecule sample gel laterally, such that the size of the high-performance light source apparatus can be minimized, and the light spots interference in fluorescence photographing or observation can be prevented.
Abstract:
An exemplary thin film transistor substrate (30) includes a base substrate (31) and a gate electrode (32) formed on the base substrate. The gate electrode includes a bonding layer (321) formed on the base substrate and an electrically conductive layer (322) formed on the bonding layer. The bonding layer includes one of aluminum oxide and zirconium dioxide.
Abstract:
An exemplary method for reducing leakage current of thin film transistors (TFTs) of a TFT array substrate (200) includes: providing a TFT array substrate, the TFT array substrate including a number of gate lines, a number of data lines, and a number of TFTs, each TFT including a gate electrode, a source electrode and a drain electrode, the gate electrodes being connecting to the gate lines, the source electrodes being connecting to the data lines; providing a same direct current voltage to the source electrodes and the drain electrodes; and providing another direct current voltage to the gate electrodes to turn off the TFTs, and continuing to provide said same direct current voltage to the source electrodes for a predetermined time.
Abstract:
An exemplary thin film transistor array substrate (200) includes a substrate (210) and a gate electrode (220) formed on the substrate. The gate electrode includes an adhesive layer (226) formed on the substrate, a conductive layer (224) formed on the adhesive layer and a barrier layer (222) formed on the conductive layer, the adhesive layer and the barrier layer both have sandwich structures. A central core of the adhesive layer, the conductive layer, and a central core of the barrier layer are made of a same material.
Abstract:
An exemplary frame assembly (20) includes a first frame (21), a second frame (22), a third frame (23) accommodating at least part of the first frame and at least part of the second frame. The first, second and third frames cooperatively define an accommodating space of the frame assembly, and the positions of the first frame and the second frame relative to each other are adjustable such that the accommodating space has a desired size.
Abstract:
An exemplary liquid crystal display (LCD) panel (22) includes a display area (251) and a non-display area (252). The non-display area has a photoelectric cell unit (254) provided thereat. The photoelectric cell unit is configured to generate electrical power when irradiated by light. An LCD device using the LCD panel, and a mobile phone using the LCD device, are also provided.
Abstract:
A method of manufacturing a floating gate is provided. The method includes the steps of forming a tunneling layer on a substrate, and forming a film layer containing a semiconductor component on the tunneling layer. The film layer consists of a semiconductor film or nano-dots.