Abstract: A computer server system includes a server cabinet, and at least one server accommodated in the server cabinet. The server forms a fixing structure at each of four corners thereof. In addition, the server cabinet includes fixing structures which are correspondingly matched with the fixing structures of the server. The fixing structure of the server cabinet can be in the form of protrusions, mounting holes, and engagement holes. The fixing structure of the server can be in the form of ears and mounting grooves. The server is mounted in the server cabinet by means of the fixing structures thereof.

Abstract: An exemplary mounting bracket for a satellite dish antenna includes a mounting base, a first frame and a second frame. The first frame includes a pivoting portion at one end thereof. The pivoting portion is pivoted to one side of the mounting base so that the pivoting portion is capable of rotating from a horizontal position to a vertical position. The second frame includes a pivoting portion at one end thereof. The pivoting portion is pivoted to another opposite side of the mounting base so that the pivoting portion being capable of rotating from a horizontal position to a vertical position. The mounting bracket can be changed from the extending state to the folding state. The mounting bracket in the extending state can be mounted on a plane. The mounting bracket in the folding state can be mounted on various objects by cooperating with various fixing devices.

Abstract: A method for manufacturing an MEMS device is provided. The method includes steps of a) providing a first substrate having a concavity located thereon, b) providing a second substrate having a connecting area and an actuating area respectively located thereon, c) forming plural microstructures in the actuating area, d) mounting a conducting element in the connecting area and the actuating area, e) forming an insulating layer on the conducting element and f) connecting the first substrate to the connecting area to form the MEMS device. The concavity contains the plural microstructures.

Abstract: A fixing mechanism for selectively fixing a first storage device and a second storage device includes a container member and a frame. The second storage device is a different size than the first storage device. The container member includes a bottom wall, a first sidewall positioned at a side of the bottom wall and a second sidewall positioned at the other side of the bottom wall. The sidewall forms a slide rail. The frame is positioned in the container member. The frame includes an engaging portion supporting the slide rail. The engaging portion is positioned in a first position for fixing the first storage device in a first state and positioned in a second position for fixing the second storage device in a second state.

Abstract: An edge type backlighting module is disclosed in the present invention. The edge type backlighting module includes at least one light source array for providing light beams; at least one reflecting mirror, rotating within a specified angle, for reflecting the light beams; and a light adjusting medium for adjusting outgoing directions of the reflected light beams. It further has at least one infrared sensor for detecting light beams reflected from a surface of the light adjusting medium when a user touches the surface and generating a signal representing a touch location.

Abstract: A light emitting diode assembly is disclosed in the present invention. The light emitting diode assembly has a substrate and several light emitting diode units. It can also include several light emitting diode units fabricated on cavities formed in the substrate. Any light emitting diode unit is composed of a light emitting diode chip covered with a phosphor layer for providing light beams, and a reflecting unit installed or formed on the substrate, coated with a reflective film, surrounding the light emitting diode chip for reflecting the light beams emitted from the light emitting diode chip, and directing the light beams upward. The light emitting diode unit further includes a light condenser provided above the light emitting diode chip for guiding the light beams upward. The assembly can collect all light beams emitted laterally. Hence, lighting efficiency for the light emitting diode assembly can be improved.

Abstract: An electronic device includes a base and a sidewall attached to the base. The sidewall includes a heat dissipating area defining a plurality of vents, a sliding plate slidably coupled to an inner side of the sidewall, and a controlling arm made of metal material having high coefficient of thermal expansion. The controlling arm is connected between the sliding plate and the sidewall, for driving the sliding plate to slide to cover or uncover the vents of the heat dissipating area according to different interior temperature of the electronic device.

Abstract: A discharge lamp driving device includes a power stage circuit, a transformer circuit, a control circuit, a feedback circuit and a lamp protection circuit. The lamp protection circuit includes a current sensing circuit, a reference voltage selecting circuit, a comparing circuit and a protection signal generating circuit. The current sensing circuit senses current signals flowing through the lamps, and transforms the current signals to voltage signals. The reference voltage selecting circuit is connected to the current sensing circuit. The comparing circuit is connected to the current sensing circuit and the comparing circuit. The protection signal generating circuit is connected between the comparing circuit and the control circuit. The control circuit is connected to the comparing circuit.

Abstract: A method for manufacturing an MEMS device is provided. The method includes steps of a) providing a first substrate having a concavity located thereon, b) providing a second substrate having a connecting area and an actuating area respectively located thereon, c) forming plural microstructures in the actuating area, d) mounting a conducting element in the connecting area and the actuating area, e) forming an insulating layer on the conducting element and f) connecting the first substrate to the connecting area to form the MEMS device. The concavity contains the plural microstructures.

Abstract: A method for forming a conductive film structure is provided, which includes providing a flexible insulating substrate, forming a conductive film overlying the flexible insulating substrate, patterning the conductive film to form a plurality of micro-wires overlying the flexible insulating substrate, wherein the micro-wires are extended substantially parallel to each other, forming an insulating layer overlying the flexible insulating substrate and the micro-wires, and winding or folding the flexible insulating substrate along an axis substantially parallel to an extending direction of the micro-wires to form a conducting lump.

Abstract: The invention relates to a detecting apparatus of a capacitive touch panel for detecting at least one touched position executed by a user on the capacitive touch panel including a plurality of sensing elements. The detecting apparatus comprises a first detecting module, a judging module, a second detecting module and a determining module. The first detecting module detects the plurality of sensing elements to generate a plurality of first detecting signals. The judging module generates a plurality of judging signals according to the plurality of first detecting signals. The second detecting module detects at least one sensing element of the plurality of sensing elements according to the plurality of judging signals to generate at least one second detecting signal. The determining module determines the at least one touched position executed by the user on the capacitive touch panel according to the at least one second detecting signal.

Abstract: The invention relates to a detecting apparatus of resistive touch panel comprising a resistive touch panel and a plurality of sensing modules. The resistive touch panel includes a plurality of sensing blocks, each of which is composed of a first sensing unit and a second sensing unit. The plurality of sensing module with corresponding to the plurality of sensing blocks are used for detecting whether those sensing blocks have been touched by the user. Each of those sensing modules comprises a voltage source, an adjusting unit, a controlling unit and a sensing unit. The adjusting unit couples to the first sensing element for generating a current. The controlling unit selectively couples the second sensing element to ground terminal upon a controlling signal. The sensing unit detects a voltage of the adjusting unit and further determines whether the sensing block has been touched by the user or not upon the voltage.

Abstract: A microminiaturized projection module for projecting an image onto an object is disclosed in the present invention. The module includes a number of light units each for providing red, green, and blue beams; an image processing unit for receiving the image, dividing the image into n×m image signals, and transforming each of the image signals into a modulating signal and a direction signal, where n and in are integrals not less than 2, respectively; a number of modulation units for modulating the beams from one light unit according to the modulating signal received from the image processing unit and sending out the modulated beams simultaneously; and an array of n×m mirrors for projecting the modulated beams to form the image onto the object according to the direction signal received from the image processing unit. The invention has advantages that can reduce modulation speed, undergo slight shock and be free from raster pinch effect.

Abstract: A light emitting diode device is disclosed in the present invention. The device includes a substrate, an integrated passive device, at least four rectifying diodes and several light emitting diodes. The rectifying diodes form a bridge rectifier to rectify an external alternating current (AC) inputted into a direct current so that the light emitting diodes can lighten. Furthermore, the light emitting diode device has a Zener diode, formed on the substrate and connected with the integrated passive device for regulating the direct current. It can also have a varistor, connected with the Zener diode in parallel, for protecting the light emitting diode device from surges.

Abstract: An electronic device includes a base and a sidewall attached to the base. The sidewall includes a heat dissipating area defining a plurality of vents, a sliding plate slidably coupled to an inner side of the sidewall, and a controlling arm made of metal material having high coefficient of thermal expansion. The controlling arm is connected between the sliding plate and the sidewall, for driving the sliding plate to slide to cover or uncover the vents of the heat dissipating area according to different interior temperature of the electronic device.

Abstract: A motor including a bearing structure, a rotor structure, a stator structure and a magnetic body is disclosed. The rotor structure includes a shaft disposed on the bearing structure. The stator structure is disposed corresponding to the rotor structure. The magnetic body is disposed opposite to the shaft and includes a first magnetic element and a second magnetic element. The first magnetic element is disposed around the second magnetic element. A fan including the motor is disclosed as well. The shaft of the fan and the motor thereof are provided with higher axial attraction in operation such that it reduces the abrasion of the shaft and the noise of the motor and the fan.

Abstract: A method for forming a conductive film structure is provided, which includes providing a flexible insulating substrate, forming a conductive film overlying the flexible insulating substrate, patterning the conductive film to form a plurality of micro-wires overlying the flexible insulating substrate, wherein the micro-wires are extended substantially parallel to each other, forming an insulating layer overlying the flexible insulating substrate and the micro-wires, and winding or folding the flexible insulating substrate along an axis substantially parallel to an extending direction of the micro-wires to form a conducting lump.

Abstract: A low-power display control method and associated display controller is provided. The low-power display control method detects a sensing signal to generate a sensing result. A control signal is generated according to the sensing result to control a power conversion controller to operate in a low-power power saving mode. In response to a wake-up event, the control signal is deasserted and an associated auxiliary circuit is also turned off, and then the display controller is woken up to restore to a normal operating mode.

Abstract: A method for forming a conductive film structure is provided, which includes providing a flexible insulating substrate, forming a conductive film overlying the flexible insulating substrate, patterning the conductive film to form a plurality of micro-wires overlying the flexible insulating substrate, wherein the micro-wires are extended substantially parallel to each other, forming an insulating layer overlying the flexible insulating substrate and the micro-wires, and winding or folding the flexible insulating substrate along an axis substantially parallel to an extending direction of the micro-wires to form a conducting lump.

Abstract: Use of urine and serum biomarkers in diagnosing diabetic nephropathy, staging diabetic nephropathy, monitoring diabetic nephropathy progress, and assessing efficacy of diabetic nephropathy treatments. These biomarkers include urine precursor alpha-2-HS-glycoprotein, urine alpha-1 antitrypsin, urine alpha-1 acid glycoprotein, urine osteopontin, serum osteopontin, their fragments, and combinations thereof.