Abstract:
A hinge mechanism includes a first rotation assembly, a second rotation assembly substantially parallel to the first rotation assembly, a brace member, a connection shaft partially received in the sliding slot, a first connection member, and a second connection member. The first rotation assembly includes a first pivoting shaft and a first bracket sleeved on the first pivoting shaft. The first bracket includes a mounting portion eccentrically formed on one end of the first bracket. The second rotation assembly includes a second pivoting shaft and a second bracket sleeved on the second pivoting shaft. The second bracket includes a mounting portion eccentrically formed on the second bracket. The brace member defines a sliding slot. An end of the first connection member is eccentrically connected to the first pivoting shaft, and the other end of the first connection member is connected to the connection shaft.
Abstract:
Disclosed herein are a motor and a fan using the same. The motor includes a chassis having a fillister, a stator assembly disposed at a central area of the chassis, a circuit element disposed in the fillister, a first resin material, and a second resin material. The first resin material is filled within the fillister and covers the circuit element. The second resin material covers a part of the stator assembly where is not joined with the chassis.
Abstract:
A power-saving method adapted in a multi-mode display device is provided. The power-saving method comprises the steps as follows. A brightness of an ambient light is detected. When the brightness of the ambient light lies within a transmissive range, the multi-mode display device is operated in a transmissive mode and enables the backlight module of the multi-mode display. When the brightness of the ambient light lies within a transflective range, the multi-mode display device is operated in a transflective mode and the brightness of the backlight module is dynamically adjusted according to a compensation method. When the brightness of the ambient light lies within a reflective range, the multi-mode display device is operated in a reflective mode and turns off the backlight module.
Abstract:
A scanning apparatus capable of switching a scanning background includes a pair of glass plates, a pair of background boards pivoted to the glass plates and a driving mechanism. The glass plates are disposed in a frame and overlapped with each other. The two glass plates define two scanning areas face to face. A portion of the frame adjacent to an outer surface of the glass plate defines a first color area of the scanning background corresponding to the scanning area. One background board is positioned above one glass plate, and the other background board is positioned under the other glass plate and away from the one background board. Each background board defines a second color area of the scanning background corresponding to the scanning area. The driving mechanism mounted in the frame drives the background boards to turn over with respect to the corresponding glass plates.
Abstract:
An LCD device having a backlight module, a display module and an adhesive layer is provided. The backlight module has an inner fringe for holding the display module. The display module sequentially includes a lower polarizer, a display panel and an upper polarizer. The edge of the upper surface of the display panel is exposed because the area of the upper polarizer is smaller than the area of the display panel. The adhesive layer has a first adhesive film and a second adhesive film. The display module is disposed on the inner fringe of the backlight module by using the adhesive layer wherein the first adhesive film is on the side wall of the backlight module and portion of the edge of the upper surface of the display panel, the second adhesive film is on the portion of the first adhesive film and the exposed edge of upper surface of the display panel.
Abstract:
Methods and devices are disclosed herein to test the texted metal short circuit. One such method comprises: To input a circuit design file, wherein the circuit design file comprises the data of the layout pattern of the circuit design, the file format of the circuit design is a generic data stream format; to input a set of design rules; to select a specific check rule based on the set of design rules, wherein the specific check rule is for testing the texted metal short circuit in the circuit design; to execute a verification program [procedure] on the circuit design based on the specific check rule so as to obtain a first test result, wherein the first test result comprises all short circuit paths in the circuit design; and, based on the first rest result, to execute a pseudo-texted program using fuzzy algorithm so as to obtain a second test result.
Abstract:
A method for fabricating an LED chip is provided. Firstly, a SiO2 pattern layer is formed on a top surface of a substrate. Then, lighting structures are grown on a portion of the top surface of substrate without the SiO2 pattern layer thereon. Thereafter, the SiO2 pattern layer is removed by wet etching to form spaces between bottoms of the lighting structures and substrate. An etching solution is used to permeate into the spaces and etch the lighting structures from the bottoms thereof, whereby the lighting structures each with a trapezoid shape is formed. Sidewalls of each of the lighting structures are inclined inwardly along a top-to-bottom direction.
Abstract:
An emotion script generating method includes receiving a user's emotion data, and generating emotion script using the emotion data based on a predefined template.
Abstract:
A sense amplifier circuit includes a precharge circuit configured to precharge a bit line coupled to a sensing node in response to a precharge control signal and a sense output circuit. The sense output circuit includes a sense output inverter coupled to the sensing node. The sense output inverter is disabled during bit line precharging and for a period after bit line precharging is complete, and thereafter the sense output inverter is enabled.
Abstract:
An LED module includes a base, a circuit layer formed on the base and multiple LEDs each having an LED die connecting to the circuit layer. The circuit layer includes multiple connecting sections. Each connecting section includes a first connecting part and a second connecting part electrically insulating and spaced from each other. Each LED includes an electrode layer having a first section and a second section electrically insulated from the first section and respectively electrically connecting the first and second connecting parts of a corresponding connecting section. The LED die is electrically connected to the second section. A transparent electrically conductive layer is formed on the LED die and electrically connects the LED die to the first section of the electrode layer. An electrically insulating layer is located between the LED die and surrounding the LED die except where the transparent electrically conductive layer connects.