Abstract: A head-mounted spectrum sensing device is provided which includes an acoustic system, a magnetic system, an ultrasound system, and a control and processing system. The head-mounted spectrum sensing device can judge a risk of dementia according to a thermal image with blood velocity information, a thermal image with magnetic flux information, and a thermal image with ultrasound information.

Abstract: The present disclosure provides a semiconductor device and a method for preparing the same. The semiconductor device includes a substrate, a first type region, and a second type region. The first type region is disposed on the substrate and has a ring structure. The second type region is disposed on the substrate and disposed in the center of the first type region. The second type region has a square shape and includes a plurality of corners.

Abstract: A light emitting device is provided. The light emitting device includes a package structure, a first light emitting chip, a second light emitting chip, a third light emitting chip, a first encapsulant, a second encapsulant, and a third encapsulant. The first light emitting chip, the second light emitting chip, and the third light emitting chip are disposed in a first cavity, a second cavity, and a third cavity of a body of the package structure, and electrically connected with a first electrode pair, a second electrode pair, and a third electrode pair that are covered by the body. The first encapsulant, the second encapsulant, and the third encapsulant are filled in the first cavity, the second cavity, and the third cavity. A first opening of the first cavity is larger in size than a second opening of the second cavity and a third opening of the third cavity.

Abstract: The present invention relates to a method of manufacturing a liquid crystal display (LCD) of the polymer stabilized ultra fast (PS-UF) twisted nematic (TN) mode, to an LCD obtained by this method and to an LC medium used therein.

Abstract: A method includes forming a transistor over a substrate; forming a conductive structure over the substrate, such that a first end of the conductive structure is electrically coupled to a gate of the transistor, and a second end of the conductive structure is electrically coupled to the substrate; applying biases to the gate of the transistor and source/drain structures of the transistor; determining whether the first end and the second end of the conductive structure are electrically connected; generating, based on the determination, a first result indicating that the first end and the second end of the conductive structure are electrically connected; and qualifiying the conductive structure as an antenna in response to the first result.

Abstract: A light-emitting device comprises a textured substrate comprising a plurality of textured structures, wherein the textured structures and the textured substrate are both composed of sapphire; and a light-emitting stack overlaying the textured substrate, comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer, wherein each of the plurality of textured structures comprises a top portion having a first top-view shape, and a bottom portion parallel to the top portion and having a second top-view shape, wherein the first top-view shape comprises a circle or an ellipse, the first top-view shape comprises a first periphery and the second top-view shape comprises a second periphery, the first periphery is enclosed by the second periphery, and various distances are between each of the first periphery and the second periphery.

Abstract: An electrical protection device used in a controller of a mechanical equipment is disclosed to include a circuit board, and a pre-stage protection circuit and a post-stage protection circuit formed on the circuit board. The pre-stage protection circuit connects a power supply and a pre-stage of the controller, providing an electrical protection condition such that when a transient surge energy of the power supply surpasses the electrical protection condition, the pre-stage protection circuit blocks the transient surge energy from entering the controller. The post-stage protection circuit connects pre-stage protection circuit and a post-stage of the controller. Further, when the transient surge energy occurs, a response speed of the post-stage protection circuit is slower than that of the pre-stage protection circuit. The electrical protection device of the invention effectively blocks transient surge energy, avoiding electronic system component damage of the mechanical equipment.

Abstract: A method includes forming a transistor over a substrate; forming a conductive structure over the substrate, such that a first end of the conductive structure is electrically coupled to a gate of the transistor, and a second end of the conductive structure is electrically coupled to the substrate; applying biases to the gate of the transistor and source/drain structures of the transistor; determining whether the first end and the second end of the conductive structure are electrically connected; generating, based on the determination, a first result indicating that the first end and the second end of the conductive structure are electrically connected; and qualifying the conductive structure as an antenna in response to the first result.

Abstract: The present disclosure provides a semiconductor device and a method for preparing the same. The semiconductor device includes a substrate, a first type region, and a second type region. The first type region is disposed on the substrate and has a ring structure. The second type region is disposed on the substrate and disposed in the center of the first type region. The second type region has a square shape and includes a plurality of corners.

Abstract: The present disclosure provides a semiconductor device. The semiconductor device includes a substrate, a gate electrode, a drain region, a source region, an isolating layer, a plurality of metal contacts, a plurality of conductive plugs, and a contact liner. The gate electrode is disposed on the substrate. The drain region and the source region are disposed in the substrate and on opposite sides of the gate electrode. The isolating layer is disposed over the substrate and the gate electrode. The metal contacts are disposed in the gate electrode, the source region, and the drain region. The conductive plugs are disposed in the isolating layer and electrically coupled to the metal contacts. The contact liner surrounds the conductive plugs. The present disclosure further provides a method for manufacturing the semiconductor device.

Abstract: A method includes forming a transistor over a substrate; forming a conductive structure over the substrate, such that a first end of the conductive structure is electrically coupled to a gate of the transistor, and a second end of the conductive structure is electrically coupled to the substrate; applying biases to the gate of the transistor and source/drain structures of the transistor; determining whether the first end and the second end of the conductive structure are electrically connected; generating, based on the determination, a first result indicating that the first end and the second end of the conductive structure are electrically connected; and qualifying the conductive structure as an antenna in response to the first result.

Abstract: An electrical protection device used in a controller of a mechanical equipment is disclosed to include a circuit board, and a pre-stage protection circuit and a post-stage protection circuit formed on the circuit board. The pre-stage protection circuit connects a power supply and a pre-stage of the controller, providing an electrical protection condition such that when a transient surge energy of the power supply surpasses the electrical protection condition, the pre-stage protection circuit blocks the transient surge energy from entering the controller. The post-stage protection circuit connects pre-stage protection circuit and a post-stage of the controller. Further, when the transient surge energy occurs, a response speed of the post-stage protection circuit is slower than that of the pre-stage protection circuit. The electrical protection device of the invention effectively blocks transient surge energy, avoiding electronic system component damage of the mechanical equipment.

Abstract: A constant water level humidifier has an outer tank with an outer outlet disposed at the bottom, the outer outlet is disposed with an oscillating plate, the upper portion of the outer tank is disposed with an outer air vent connected to the outer world; wherein the outer tank is further disposed with an inner tank, the upper portion of the inner tank is disposed with an inner air vent connected to the outer air vent, the bottom portion of the inner tank is disposed with an inner outlet connected to the outer outlet of the outer tank and an inner inlet connected to the chamber of the outer tank, the inner inlet is disposed with a water level control mechanism.

Abstract: A light-emitting device comprises a textured substrate comprising a plurality of textured structures, wherein the textured structures and the textured substrate are both composed of sapphire; and a light-emitting stack overlaying the textured substrate, comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer, wherein each of the plurality of textured structures comprises a top portion having a first top-view shape, and a bottom portion parallel to the top portion and having a second top-view shape, wherein the first top-view shape comprises a circle or an ellipse, the first top-view shape comprises a first periphery and the second top-view shape comprises a second periphery, the first periphery is enclosed by the second periphery, and various distances are between each of the first periphery and the second periphery.

Abstract: A light-emitting device comprises a textured substrate comprising a plurality of textured structures, wherein the textured structures and the textured substrate are both composed of sapphire; and a light-emitting stack overlaying the textured substrate, comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer, wherein each of the plurality of textured structures comprises a top portion having a first top-view shape, and a bottom portion parallel to the top portion and having a second top-view shape, wherein the first top-view shape comprises a circle or an ellipse, the first top-view shape comprises a first periphery and the second top-view shape comprises a second periphery, the first periphery is enclosed by the second periphery, and various distances are between each of the first periphery and the second periphery.

Abstract: An ultrasonic system and an ultrasonic method with adaptive overflow and gain control are provided. The present disclosure uses two-stage gain controls to improve the signal-to-noise ratio (SNR) and to achieve the correct analysis of results. The first stage adopts an analog gain, and monitors whether the signal may overflow or its signal strength is too weak, and adjusts the gain value as large as possible, without causing overflow in order to improve the SNR. The second stage adopts a digital gain. In the second stage, all the amplified gain-containing data adjusted in the first stage are received, and an amplified gain-containing data segment is sequentially retrieved in chronological order, and the amplified gain-containing data segment is converted into a same-gain data segment having the same gain. Finally, the same-gain data segment is provided to a Doppler signal analyzer for analysis.

Abstract: A light-emitting device comprises a textured substrate comprising a plurality of textured structures, wherein the textured structures and the textured substrate are both composed of sapphire; and a light-emitting stack overlaying the textured substrate, comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer, wherein each of the plurality of textured structures comprises a top portion having a first top-view shape, and a bottom portion parallel to the top portion and having a second top-view shape, wherein the first top-view shape comprises a circle or an ellipse, the first top-view shape comprises a first periphery and the second top-view shape comprises a second periphery, the first periphery is enclosed by the second periphery, and various distances are between each of the first periphery and the second periphery.

Abstract: A method for establishing an aging model of a device is provided. The device is measured to obtain degradation information of the device under an operating condition, wherein the device is a physical device. The degradation information is partitioned into a permanent degradation portion and an impermanent degradation portion. The impermanent degradation portion is differentiated by time to obtain a differential value. The aging model is obtained according to the differential value. When the differential value is greater than zero, a degradation of the device increases over time, and when the differential value is less than zero, the degradation of the device decreases over time.

Abstract: A method for establishing an aging model of a device is provided. The device is measured to obtain degradation information of the device under an operating condition, wherein the device is a physical device. The degradation information is partitioned into a permanent degradation portion and an impermanent degradation portion. The impermanent degradation portion is differentiated by time to obtain a differential value. The aging model is obtained according to the differential value. When the differential value is greater than zero, a degradation of the device increases over time, and when the differential value is less than zero, the degradation of the device decreases over time.