Abstract: An electrical connector (100) for insertion of an electrical plug, includes an insulative housing (1) having a receiving cavity (13) to receive the electrical plug in a front-to-rear direction and a plurality of receiving slots (14) communicating with the receiving cavity, and a set of terminals (2) received in the receiving slots and including first terminals (21). Each first terminal has a vertical flat first base portion (212) retained in the insulative housing and extending along the front-to-rear direction, a first contacting portion (211) protruding into the receiving cavity to electrical contact with the electrical plug, and a first tail portion (213) to be mounted on a printed circuit board (PCB). Both the first contacting portion (211) and the first tail portion (213) simultaneously extend from one of an upper edge and lower edge of the first base portion (212).

Abstract: An electrical connector (100) including an insulative housing (1), a plurality of contacts (2) and a pair first insulators (22). The insulative housing (1) has a body portion (11) and a tongue (12) extending from the body portion (11). The tongue (12) defines a plurality of passageways (132) at two sides thereof. Each contact (21) has a securing portion (212), a contact portion (211) extending to the tongue (12) from the securing portion (212) and a tail portion (213) extending out of the insulative housing (1). The contact portions (211) are arranged in two rows and respectively located at two sides of the tongue (12). Each first insulator (22) is insert molded around the securing portions (212) corresponding to the contact portions (211) of each row. Each first insulator (22) has a first post (228) and a first recess (229) at an inner side thereof to engage with each other.

Abstract: A compound semiconductor material for forming an active layer of a thin film transistor device is disclosed, which has a group II-VI compound doped with a dopant ranging from 0.1 to 30 mol %, wherein the dopant is selected from a group consisting of alkaline-earth metals, group IIIA elements, group IVA elements, group VA elements, group VIA elements, and transitional metals. The method for forming an active layer of a thin film transistor device by using the compound semiconductor material of the present invention is disclosed therewith.

Abstract: An electrical connector (100) including an insulative housing (1) having a front mating face (16), a receiving cavity (10) recessed rearwardly from the front mating face to receive a mating plug and a plurality of passageways; a number of contacts retained in the passageways respectively and including a first contact (21) having a first vertical base portion (210), a first curved portion (218) being curved forwardly from an upper side of the first vertical base portion, a second curved portion (270) and a vertical plate portion (219) connecting with both the first curved portion and the second curved portion, a first contacting arm (211) extending rearwardly from the second curved portion and projecting into the receiving cavity, a first soldering portion (216) connected to a bottom end of the first vertical base portion; both the vertical plate portion (211) and the first contacting arm (211) is deflectable along a direction perpendicular to the plug insertion direction.

Abstract: An electrical connector includes an insulative housing, first and second contact modules received in the insulative housing, a first metal shell covering the insulative housing and a grounding piece. The insulative housing includes a mating tongue and the first metal shell includes a plurality of peripheral walls enclosing the mating tongue to cooperatively form a mating opening therebetween. The grounding piece includes a number of side walls and a receiving opening through which the peripheral walls extend. The side walls include a number of half-spherical embosses stamped therefrom to abut against the front metal shell for EMI protection.

Abstract: A testing system for measuring an electronic device includes a main controller for generating a control signal, a signal generator for outputting a predetermined test input signal according to the control signal, an instrument unit having a plurality of instruments, and a testing port having a plurality of probes. The plurality of probes connects corresponding testing points of the electronic device to the signal generator and the instruments. The predetermined test input signal is transmitted to the electronic device via the testing port. The instrument unit processes a test result signal outputted by the electronic device and outputs a result data. The main controller receives the result data and computes whether the result data is within a predetermined range. A related testing method is also provided.

Abstract: An electrical connector (100) including an insulative housing (1) having a front mating face (16), a receiving cavity (10) recessed rearwardly from the front mating face to receive a mating plug and a plurality of passageways; a number of contacts retained in the passageways respectively and including a first contact (21) having a first vertical base portion (210), a first curved portion (218) being curved forwardly from an upper side of the first vertical base portion, a second curved portion (270) and a vertical plate portion (219) connecting with both the first curved portion and the second curved portion, a first contacting arm (211) extending rearwardly from the second curved portion and projecting into the receiving cavity, a first soldering portion (216) connected to a bottom end of the first vertical base portion; both the vertical plate portion (211) and the first contacting arm (211) is deflectable along a direction perpendicular to the plug insertion direction.

Abstract: A vertical pixel structure for emi-flective display and a method thereof are provided. The vertical pixel structure has a substrate, a emitting pixel unit arranged on the substrate and a reflective pixel unit arranged on the emitting pixel unit. By using the vertical pixel structure the aperture of the display can be increased, and the power consumption can be reduced as well.

Abstract: This invention provides a circuit structure with a double-gate organic thin film transistor device and application thereof. A protection layer covered on an organic thin film transistor structure having a bottom gate is used as another gate insulating layer. A metal layer is formed on this gate insulating layer to serve as another gate. A double-gate structure is hence accomplished. The double-gate structure can be used in a circuit. By the double-gate structure the threshold voltage of the organic thin film transistor can be adjusted, and advantageously changing the characteristic of the organic thin film transistor to improve the accuracy of signal transmission.

Abstract: A pixel structure for a vertical emissive-reflective (emi-flective) display is provided. The pixel structure has a substrate, a self-light emitting pixel unit arranged on the substrate, and a reflective pixel unit arranged on the self-light emitting pixel unit. By using the vertical pixel structure, the aperture of the display can be increased, and the power consumption can also be decreased.

Abstract: An exemplary testing system for measuring an electronic device includes a main controller for generating a control signal, a signal generator for outputting a predetermined test input signal according to the control signals, an instrument unit comprising a plurality of instruments, and a testing port comprising a plurality of probes. The probes are configured for connecting corresponding testing points of the electronic device to the signal generator and the instruments. The predetermined test input signal is transmitted to the electronic device via the testing port, the instrument unit processing a test result signals outputted by the electronic device and outputting a result data, and the main controller receiving the result data and computing whether the result data is within a predetermined range. A related testing method is also provided.

Abstract: A method for managing access authorization of peripherals of an electronic apparatus is provided. The method includes the step of: providing a data storage for storing a peripheral registry table which stores hardware IDs of the peripherals; reading the hardware ID of the peripheral when the peripheral is connected to the electronic apparatus; determining whether the hardware ID is recorded in the peripheral registry table; activating an access of the peripheral when the hardware ID is recorded in the peripheral registry table; and registering the hardware ID of the peripheral into the peripheral registry table when the hardware ID is not recorded in the peripheral registry table.

Abstract: A display includes a power switch, a serial bus interface, a microprocessor and other necessary components. The serial bus interface is configured to connect to a serial bus interface of a computer through a data cable. The power switch is provided to be pressed down by user, which is used to turn on or off the display. The microprocessor determines whether the duration of pressing on the power switch exceeds a predetermined period of time. If yes, the microprocessor further determines a current state of the display. If the display is “off”, the microprocessor transmits a sleep control instruction to the computer and controls the computer to fall asleep. If the display is “on”, the microprocessor transmits a wake-up instruction to the computer and wakes up the computer. A method of controlling a computer to fall asleep is also provided.

Abstract: An organic thin film transistor array substrate including a substrate divided into an LCD region and an OTFT region; a first dielectric layer formed on the substrate in the LCD region and having a first uneven portion; an organic semiconducting layer formed on the substrate in the OTFT region; a gate, source, and drain formed in the OTFT region, wherein the source and drain are in contact with the organic semiconducting layer to form a channel between the source and drain; and a pixel electrode formed on the first uneven portion of the first dielectric layer in the LCD region.

Abstract: A power amplifier can amplify an input radio frequency signal to produce an output radio frequency signal in response to a bias control signal. A programmable digital control unit produces the bias control signal and to transmit the bias control signal to the power amplifier.

Abstract: A vertical pixel structure for emi-flective display and a method thereof are provided. The vertical pixel structure has a substrate, a emitting pixel unit arranged on the substrate and a reflective pixel unit arranged on the emitting pixel unit. By using the vertical pixel structure the aperture of the display can be increased, and the power consumption can be reduced as well.

Abstract: Systems and methods are disclosed to transmit and receive radio frequency (RF) signals by providing a plurality of high gain, highly directional antennas on a multi-layer printed circuit board; using a processor to gate RF signals from each antenna and to select an antenna transmission pattern based on antenna turned on or the combination of a number of antennas turned on, among others.

Abstract: A mobile communication device includes a power source, a measurer, a function group, a calculator, a setting module, and a controller. The power source is used for supplying power to the mobile communication device. The measurer is used for measuring remaining coulomb of the power source. The function group includes a plurality of function modules with corresponding priority levels. The calculator is used for calculating coulomb consumption rate of the function modules. The setting module is used for receiving a desired usage time predetermined by users. The controller is used for powering down the function modules according to the remaining coulomb, the coulomb consumption rate, and the desired usage time. A method for controlling the function modules is also provided.

Abstract: A method and apparatus for transferring data in response to authentication information. Authentication information is transmitted from a client computer to a server computer to authorize access to restricted data. Invocation information is transmitted from the server computer to the client computer in response to the authentication information. A first application is invoked in the client computer using the invocation information. The restricted data is then transmitted from the server computer to the first application program in the client computer based on the access authorized by the authentication information.