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 display device (2) includes a display body (22) and a support body (23) configured for supporting and moving the display body. The support body includes at least one trolley wheel assembly (28) capable of moving horizontally, and at least one stopper (380) corresponding to the trolley wheel assembly, which is capable of braking the trolley wheel assembly. The display body is moved horizontally when the trolley wheel assembly is moved horizontally.
Abstract:
The present invention relates to a cooling device, mainly comprises a carrying unit, a thermal insulation unit, and a temperature-lowering module. The thermal insulation unit is provided over a part of surface of the carrying unit for blocking heat transmission between the carrying unit and the outside. As the carrying unit is placed on the temperature-lowering module, a cooling chip in the temperature-lowering module is able to lower the temperature of the carrying unit and a biological sample. Furthermore, the thermal insulation unit is able to maintain the temperature of the carrying unit and biological sample, when the carrying unit is removed from the temperature-lowering module. Thereafter, a user can conveniently practice observation and experiment with respect to the biological sample, and avoid damaging the biological sample during experiment or transportation by the use of the cooling device.
Abstract:
An exemplary liquid crystal panel includes a first substrate, a second substrate opposite to the first substrate, a light sensor disposed at an inner side of the first substrate, and a black matrix disposed at an inner side of the second substrate. The light sensor includes a light-sensing unit, and the black matrix includes a semi-transparent film corresponding to the light-sensing unit. A liquid crystal display device employing the liquid crystal panel is also provided.
Abstract:
An exemplary repairing method includes providing a substrate having a plurality of conducting lines; detecting a broken position of one of the conducting lines; switching on a nozzle; and forming a copper layer at the broken position on the substrate. The repairing method of the present invention employing a repairing device for performing a chemical vapor deposition (CVD) method to forming the copper layer at a position of the broken defect of one of the conducting lines.
Abstract:
An exemplary read only memory cell (200) includes a semiconductor layer (220), a gate stack (230), and a gate electrode (240). The gate stack includes a tunnel film (231), a charge storing layer (232), and a block layer (233) sequentially stacked adjacent to the semiconductor layer. The gate electrode is adjacent to the block layer. The charge storing layer is configured to store charges when data is written to the read only memory cell. The charge storing layer comprises at least two sub-layers having different molecular structures of material such that a plurality of interfacial traps is provided where the at least two sub-layers adjoin each other. A method for manufacturing the read only memory cell is also provided.
Abstract:
An exemplary light source device (10) includes a power supply (12), a light source (14), and a photodetector (16). The photodetector includes a light sensor (17) and a resistor (18) connected in parallel. The power supply, the light source, and the photodetector are connected in series. When the intensity of ambient light increases, a resistance of the light sensor decreases so as to increase a light intensity of the light source. When the intensity of ambient light decreases, the resistance of the light sensor increases so as to decrease the light intensity of the light source.
Abstract:
An exemplary method for fabricating a polysilicon layer includes the following steps. A substrate (10) is provided and an amorphous silicon layer (12) is formed over the substrate. An excimer laser generator (13) for generating a pulse excimer laser beams collectively having the shape of a generally rectangular shaft is provided to melt a first area (15) of the amorphous silicon layer with the pulse excimer laser beams. The excimer laser generator is moved a distance to melt a second area of the amorphous layer spaced a short distance away from the first area. At least a subsequent third melted area spaced a short distance away from the second melted area is formed, with each subsequent melted area is spaced as short distance away from the immediately preceding melted area.
Abstract:
A circuitry testing method, comprising: providing a circuit board needing testing; applying a potential(160) to the circuit board needing testing so that the circuit board works and operating elements of the circuit board needing testing emit infrared rays; testing an intensity of radiation of the infrared rays using an infrared sensor(110); converting the radiation intensity to RGB(red, green, blue) data signals in order to form a diagnostic infrared image, using a processor(130); providing a standard infrared image; comparing the diagnostic infrared image with the standard infrared image; and determining whether the circuit board is defective according to the comparison.
Abstract:
An exemplary dynamic random access memory includes a first transistor (210), a second transistor (220) and a comparator (230). The first transistor includes a first gate electrode (211), a first source electrode (213) and a first drain electrode (215). The second transistor includes a second gate electrode (221), a second source electrode (223) and a second drain electrode (225). The first source electrode is connected with the second source electrode. The first drain electrode is an input terminal for inputting a message. The comparator is connected to the second drain electrode, and preconfigured with a reference current. The comparator compares the reference current and a current through the second drain electrode to define a state of the current read from the comparator.