Abstract: Methods of fabricating FinFET devices are provided. The method includes forming a fin over a substrate. The method also includes implanting a first dopant on a top surface of the fin and implanting a second dopant on a sidewall surface of the fin. The first dopant is different from the second dopant. The method further includes forming an oxide layer on the top surface and the sidewall surface of the fin, and forming a gate electrode layer over the oxide layer.

Abstract: A one-gauge one-turn regulator manifold includes a manifold body, a spring set, a knob set, an annular dial and one inlet pressure gauge. The outlet pressure is selected and adjusted by turning a control knob without a pressure gauge. The control knob with a marker indicating the outlet pressure from zero to maximum is rotatable within one turn. The knob set contains one adjusting screw which is used to fine-tune the pressure, and thus the outlet air pressure is calibrated as expected. The annular dial with pressure tick marks is located between the control knob and the manifold body. The outlet pressure is easy to selected and controlled by turning the knob to the desired pressure makers on the dial without the pressure gauge.

Abstract: An electronic package and a method for fabricating the same are provided. A resist layer and a support are formed on a first substrate having a first antenna installation area. A second substrate having a second antenna installation area is laminated on the resist layer and the support. The resist layer is then removed. The support keeps the first substrate apart from the second substrate at a distance to ensure that the antenna transmission between the first antenna installation area and the second antenna installation area can function normally.

Abstract: A one-gauge one-turn regulator manifold includes a manifold body, a spring set, a knob set, an annular dial and one inlet pressure gauge. The outlet pressure is selected and adjusted by turning a control knob without a pressure gauge. The control knob with a marker indicating the outlet pressure from zero to maximum is rotatable within one turn. The knob set contains one adjusting screw which is used to fine-tune the pressure, and thus the outlet air pressure is calibrated as expected. The annular dial with pressure tick marks is located between the control knob and the manifold body. The outlet pressure is easy to selected and controlled by turning the knob to the desired pressure makers on the dial without the pressure gauge.

Abstract: A liquid crystal display includes a pixel array formed by a plurality of scanning lines and a plurality of data lines. Two of the scanning lines which are adjacent to each other and two of the data lines which are adjacent to each other form a pixel unit. The pixel unit includes a capacitor and a transistor. The transistor includes a control terminal, a first terminal, and a second terminal. When one of the scanning lines transmits a scanning signal to the control terminal of the transistor and turns on the transistor, one of the data lines charges the capacitor by transferring a data signal to the capacitor through the transistor, and the pixel unit still has a charging percentage greater than or equal to a charging percentage threshold when an ambient temperature is below a temperature threshold.

Abstract: A rapid screening device has a sensing unit, a processing unit and a carrier, the processing unit is connected to the sensing unit, the sensing unit and the processing unit are disposed on the carrier, the sensing unit captures an image of an eyeball and outputs an image signal of the eyeball, the image of the eyeball is resolved from the image signal of the eyeball, the processing unit retrieves a plurality of images from the sensing unit within a predetermined time interval and executes an algorithm to generate a calculated result by the images of the image signals of the eyeball, and the calculated result is used to diagnose or predict a disease.

Abstract: The present invention provides a rapid screening device for brain disease to diagnose a patient's disease of cranial nerves by the states of the patient's eyeball. The rapid screening device for brain disease comprises a sensing unit, a processing unit and a carrier. The sensing unit can capture an image of the patient's eyeball. The sensing unit outputs an image signal of the eyeball, wherein the image of at least one eyeball can be resolved from the image signal of the eyeball. The processing unit is connected to the sensing unit. The processing unit retrieves a plurality of images from the sensing unit within a predetermined time interval, and the processing unit executes an algorithm to generate a calculated result by the images of the image signals of the eyeball. The carrier is provided with the sensing unit and the processing unit, wherein the calculated result is used to diagnose or predict that the disease happens to the patient.

Abstract: A multi-level point-to-point transmission system including at least one terminal resistor, a transmitter circuit, and a receiver circuit is disclosed. The transmitter circuit includes a first external resistor and a transmitter. The transmitter generates a first reference current according to the first external resistor and determines a current flowed through an output terminal thereof according to a transmission data and the first reference current. The receiver circuit includes a second external resistor, a third external resistor, and at least one receiver. The receiver generates a second reference current according to the second external resistor and generates a reference voltage difference according to the second reference current and the third external resistor. The receiver judges a voltage at the receiving terminal thereof according to the reference voltage difference so as to receive the transmission data correctly.

Abstract: Disclosed herein is a liquid crystal display device including: a first glass substrate, a second glass substrate, a liquid crystal layer, a color filter, a transparent electrode, pluralities of pixel electrodes, at least one conductive pattern, and a bias line. The liquid crystal display device has an active area and a non-active area. The liquid crystal layer is disposed between the first and second glass substrates. The color filter includes a black matrix and a pixel array, and is disposed on a surface of the first glass substrate and facing the second glass filter. The transparent electrode is disposed between the color filter and the liquid crystal layer. The pluralities of pixel electrodes are disposed on a surface of the second glass substrate and facing the transparent electrode.

Abstract: A light source control apparatus and a method for controlling light source are provided. The light source control apparatus is used to controlling N light-emitting devices connected in series. N+1 nodes are sequentially defined at two terminals of each light-emitting device mentioned above, where N is a natural number. The light source control apparatus includes a testing circuit and a compensation circuit. The testing circuit is coupled to the nodes to transmit a testing current to light-emitting devices between Ith node and Jth node, where I and J are natural numbers, and N+1>=J>I>=1. The compensation circuit is coupled to the nodes to measure a brightness of light-emitting devices between Ith node and Jth node, decide a value of a compensation current according to an intensity of the brightness, and provide the compensation current to light-emitting devices between Ith node and Jth node.

Abstract: A method is provided for manufacturing a molded product with a three-dimensional (3D) surface. A film is provided and shaped according to the 3D surface of the molded product. The film includes an attached portion covering an outer surface of the molded product and a cover portion covering an edge of the molded product.

Abstract: A gate driver for driving k pixel rows of a liquid crystal display panel, wherein k is a natural number greater than 1. The gate driver includes a shift register circuit and an output logic circuit. The shift register circuit outputs an ith first shift signal and a jth second shift signal in a scan period according to a multiple-level startup signal. The ith first shift signal and the jth second shift signal correspond to the first and second pixel rows, respectively, wherein i and j are natural numbers smaller than or equal to k. The output logic circuit is controlled by a multiple-level output enable signal to provide the ith first and jth second shift signals to drive the first and second pixel rows in a data-input sub-period and a black-insertion sub-period of the scan period, respectively. The data-input sub-period and the black-insertion sub-period are non-overlapped.

Abstract: A low differential output voltage circuit having a voltage generator and a differential output unit is provided. The voltage generator includes a first PMOS transistor, a first amplifier circuit, a unit gain stage, a first NMOS transistor, a second NMOS transistor. The differential output unit includes a first controlled current source, a second controlled current source, a common voltage circuit, a first switch, a second switch, a third switch, and a fourth switch. Due to the voltage generator directly provides a common mode voltage to the differential output unit, and the first amplifier circuit and the unit gain stage could overcome a channel modulation effect of MOS transistors and enhance the driving ability of the common mode voltage respectively. Thus, a response time of the invention is decreased, and an output current of the differential output unit is in a proportion to the reference current received by the voltage generator.

Abstract: A multi-level point-to-point transmission system including at least one terminal resistor, a transmitter circuit, and a receiver circuit is disclosed. The transmitter circuit includes a first external resistor and a transmitter. The transmitter generates a first reference current according to the first external resistor and determines a current flowed through an output terminal thereof according to a transmission data and the first reference current. The receiver circuit includes a second external resistor, a third external resistor, and at least one receiver. The receiver generates a second reference current according to the second external resistor and generates a reference voltage difference according to the second reference current and the third external resistor. The receiver judges a voltage at the receiving terminal thereof according to the reference voltage difference so as to receive the transmission data correctly.

Abstract: A multi-domain vertical alignment liquid crystal display panel, a thin film transistor array, and methods of fabrication the same are provided. The TFT array substrate comprises a substrate, data lines, scan lines and pixel structures. The data lines and the scan lines are arranged on the substrate to define a plurality of pixel regions. Each pixel structure is arranged in the corresponding pixel region. Each pixel structure comprises a TFT, a pixel electrode and a dielectric lining layer. The TFT is electrically connected to the corresponding data line and the corresponding scan line. The pixel electrode having slits is placed upon the TFT and is electrically connected thereto. The dielectric lining layer is disposed on the substrate. Part of the dielectric lining layer is sandwiched between the pixel electrode and the substrate, to make the liquid crystal molecules inside the liquid crystal display have more tilt directions.

Abstract: A high transmission rate interface for transmitting both a clock and data, which is adapted for an intra-panel liquid crystal display (LCD), is disclosed. The high transmission rate interface includes: a clock detection circuit adapted for receiving a data stream and detecting a specific data format in the data stream so as to extract clock information from the data stream; and a data extraction circuit coupled to the clock detection circuit and adapted for sampling the data stream according to the clock information and extracting an image data according to a sampling result.

Abstract: A warming device includes a main body, a receiving socket mounted on the main body, a heating member mounted in the receiving socket to provide a warming effect to the main body, and a control unit connected to the heating member to control operation of the heating member. Thus, the heating member is mounted on the main body to provide a warming effect to a pet when the temperature is very low, thereby providing a comfortable sensation to the pet. In addition, the pet can be received in the main body which has a doghouse shape or directly put on the main body which has a clothing shape, thereby facilitating a user using the warming device. Further, the control unit is power recharageable so that the warming device is used outdoors easily and conveniently.

Abstract: A low differential output voltage circuit having a voltage generator and a differential output unit is provided. The voltage generator includes a first PMOS transistor, a first amplifier circuit, a unit gain stage, a first NMOS transistor, a second NMOS transistor. The differential output unit includes a first controlled current source, a second controlled current source, a common voltage circuit, a first switch, a second switch, a third switch, and a fourth switch. Due to the voltage generator directly provides a common mode voltage to the differential output unit, and the first amplifier circuit and the unit gain stage could overcome a channel modulation effect of MOS transistors and enhance the driving ability of the common mode voltage respectively. Thus, a response time of the invention is decreased, and an output current of the differential output unit is in a proportion to the reference current received by the voltage generator.

Abstract: A printing module for a large-sized UV (ultraviolet) inkjet printer includes an inkjet head device for outputting the color inks of printed figures. It is characterized in that the two sides of the inkjet head device are respectively providing with an inkjet head for outputting primer and an inkjet head for outputting varnish. Thereby, the inkjet head of primer could output under-coat before printing and the inkjet head of varnish could apply the top-coat on printed figures after printing.

Abstract: A light source control apparatus and a method for controlling light source are provided. The light source control apparatus is used to controlling N light-emitting devices connected in series. N+1 nodes are sequentially defined at two terminals of each light-emitting device mentioned above, where N is a natural number. The light source control apparatus includes a testing circuit and a compensation circuit. The testing circuit is coupled to the nodes to transmit a testing current to light-emitting devices between Ith node and Jth node, where I and J are natural numbers, and N+1>=J>I>=1. The compensation circuit is coupled to the nodes to measure a brightness of light-emitting devices between Ith node and Jth node, decide a value of a compensation current according to an intensity of the brightness, and provide the compensation current to light-emitting devices between Ith node and Jth node.