Abstract:
A signal generating apparatus, for generating a power-on-reset signal, including a bias circuit and a power-on-reset signal generating circuit is disclosed. The bias circuit is for generating an output bias voltage, and includes at least one bipolar junction transistor (BJT), wherein a base terminal of the BJT is coupled to a collector terminal of the BJT, and the output bias voltage is related to an emitter-to-base voltage of the BJT. The power-on-reset signal generating circuit is coupled to the bias circuit, and is for generating a duplicated voltage by duplicating the output bias voltage, wherein the power-on-reset signal is generated according to the duplicated voltage.
Abstract:
A fan includes a hub rotatable about an axis and having an open end and a closed end, and a plurality of blades extending from the hub. Each of the blades has a leading side surface, a trailing side surface, an inner lateral edge corresponding to the open end of the hub, an outer lateral edge corresponding to the closed end of the hub, and a radial outer edge having opposite inner and outer ends connected respectively to the inner and outer lateral edges, and at least one end portion extending from one of the inner and outer ends toward both the axis and one of the inner and outer lateral edges.
Abstract:
A multi-sub-process cleaning procedure cleans phase shift photomasks and other photomasks and Mo-containing surfaces. In one embodiment, vacuum ultraviolet (VUV) light produced by an Xe2 excimer laser converts oxygen to ozone that is used in a first cleaning operation. The VUV/ozone clean may be followed by a wet SC1 chemical clean and the two-sub-process cleaning procedure reduces phase-shift loss and increases transmission. In another embodiment, the first sub-process may use other means to form a molybdenum oxide on the Mo-containing surface. In another embodiment, the multi-sub-process cleaning operation provides a wet chemical clean such as SC1 or SPM or both, followed by a further chemical or physical treatment such as ozone, baking or electrically ionized water.
Abstract:
The present invention relates to an anti-cracking assembly structure for door and window corner wall and anti-cracking component thereof. The anti-cracking components of the anti-cracking assembly structure for door and window corner wall has a plurality of protruding ribs and grooves formed at intervals on a surface thereof. The protruding ribs and grooves are arc-shaped and arranged in parallel to each other. When the reinforced concrete wall is subjected to an external force and stress is generated at the corner of the door and window frames, the stress can be guided along the arc-shaped protruding ribs and arc-shaped grooves on the surface of anti-cracking component to change the transmission direction of the force at the stress end, so as to transmit and disperse the stress to the peripheral side more quickly. Accordingly, it can more effectively prevent the occurrence of 45-degree shear cracks at the corners.
Abstract:
Disclosed is a flexible substrate, including a metal substrate and a composite layer thereon. The composite layer includes polyimide and sodium-containing silica mixed with each other, and the polyimide and the sodium-containing silica have a weight ratio of about 6:4 to 9:1. The silica and the sodium ions of the sodium-containing silica have a weight ratio of 100:0.01 to 100:2.
Abstract:
An LED display frame structure includes a light guide plate and a heat dissipation frame. The heat dissipation frame is mounted around the periphery of the light guide plate. At least one side of the light guide plate is provided with an LED strip and a 7-like heat dissipation plate. The back of the LED strip is provided with a two-sided adhesive strip to be attached to a groove of the 7-like heat dissipation plate. The 7-like heat dissipation plate has a cover plate next to the groove. The cover plate is attached to an adhesive strip of the light guide plate. The present invention can be assembled conveniently and quickly.
Abstract:
A cable installation assembly includes a connector, a power wire, a ground wire and two signal wires. The connector includes a base, having a plurality of terminal containing grooves formed in the base and arranged separately adjacent to each other. The power wire includes a power core and a power terminal electrically coupled to power core, and each power terminal is plugged into each corresponding terminal containing groove. The ground wire includes a grounding core and a grounding terminal electrically coupled to the grounding core and plugged into the terminal containing groove. The signal wire includes a signal core and a signal terminal electrically coupled to signal core, and the two signal terminals are plugged into the terminal containing grooves respectively and not arranged adjacent to each other, so that signals can be transmitted without interfering with one another.
Abstract:
An antenna module for wireless signal transmission of an electronic device is disclosed. The antenna module comprises an antenna body and a fixing part. The antenna body comprises a radiating element, a grounding element, a connecting element, and a feeding point. The radiating element has a first radiating area and a second radiating area. The connecting element has a first end and a second end. The first end is connected with the first radiating area of the radiating element and the second end is connected with the grounding element. The feeding point is disposed on the radiating element and is used to feed a signal. The fixing part comprises a main body and a first clip portion. The main body is used to match the shape of the antenna body. The first clip portion is used to clip and fix the antenna body.
Abstract:
A molding device includes a male mold and a female mold. The female mold is set opposite to the male mold and forms and a displacement bore and includes insert, which is provided with a heating device, and has a coupling portion. A fixing board is arranged above and coupled to the female mold by at least one guide post, which extends into the displacement bore of the female mold. The fixing board is provided with a cooling metal block, which is extendable into the coupling portion of the female mold to engage the insert to thereby allow the cooling metal block to absorb the heat of the molds for dissipation and thus efficiently lowering the temperature of the molds. The heating device provides thermal energy to set the molds at the optimum temperature for injection molding.