Abstract: An antenna device with a tunable gain, includes a ground plane and a plurality of resonating units. A first resonating unit of the resonating units includes the following elements. A radiating plate, is arranged above the ground plane, and substantially parallel with the ground plane. A ground wall, is arranged between the radiating plate and the ground plane, and substantially perpendicular to the ground plane. A first connecting element, extends along a predefined direction substantially perpendicular to the ground plane. The first connecting element is adapted to couple the radiating plate to the ground plane.

Abstract: A substrate structure and a cutting method thereof are provided. The cutting method includes the following steps. A first substrate structure is provided, wherein the first substrate structure includes a glass substrate and a redistribution layer disposed on the glass substrate. A laser process is performed on the glass substrate to form a modified region on the glass substrate. A wet etching process is performed on the modified region of the glass substrate to remove the modified region and form a plurality of second substrate structures.

Abstract: A head-mounted display, content loading method, and non-transitory computer readable storage medium thereof are provided. The head-mounted display selects a first multimedia content from a plurality of multimedia contents in response to receiving a switching signal, and the switching signal is generated based on determining that a user chooses to execute a new application program, and a playing content of the first multimedia content corresponds to the new application program. The head-mounted display transmits the first multimedia content to a display to play the first multimedia content on a plurality of pixels of a display screen.

Abstract: A package structure includes a package substrate, an organic interposer and an electronic unit. The package substrate includes a plurality of first pads. The organic interposer is disposed on the package substrate and includes a plurality of second pads. The second pads are directly connected to the first pads to electrically connected the organic interposer to the package substrate. At least one of each of the first pads and each of the second pads includes a pad portion and a plurality of contact portions connecting the pad portion. A first extension direction of the pad portion is different from a second extension direction of the contact portions. The electronic unit is disposed on the organic interposer, wherein the electronic unit is electrically connected to the package substrate through the organic interposer.

Abstract: Liquid Crystal Elastomer (LCE) fibers, an apparatus for manufacturing, and a method for using the apparatus are provided. LCE fibers formed from each of a plurality of resin recipes can undergo reversible temperature driven actuation of the fiber. Each of the resin recipes forms a fiber having a different actuation temperature. The apparatus includes: an extrusion device, a drawing bobbin, a coating basin, a collector bobbin, a first plurality of curing devices, and a second plurality of curing devices, to transform a resin recipe into a LCE fiber. In operation, the extrusion device extrudes the resin through to the first plurality of curing devices for a partial cure. Once in contact with drawing bobbin the resin is coated in a fluid, and then pull through the second plurality of curing devices for a final cure by collector bobbin, where it can be collected and post-processed.

Abstract: An optical module, comprising a circuit board (110), a photoelectric assembly (130) electrically connected to the circuit board (110), an optical interface (120), and optical fiber (140) in optical communication with the photoelectric assembly (130) and the optical interface (120), and a fiber coiling member (150). The fiber coiling member (150) comprises a fiber coiling body (151) enclosing an accommodating cavity (1510), and the fiber coiling body (151) is provided with a bottom wall (1512) and a fiber coiling wall (1511) extending from the bottom wall (1512) in the thickness direction of the circuit board (110). The fiber coiling wall (1511) defines a peripheral boundary of the accommodating cavity (1510). The fiber coiling member (150) further comprises stop walls (152) arranged opposite to the bottom wall (1512) in the thickness direction of the circuit board (110), and protruding from the fiber coiling wall (1511) to the interior of the accommodating cavity (1510).

Abstract: A method for screening host cells expressing a target protein is provided. The method includes the following steps: providing an expression vector, the expression vector including a promoter, a gene encoding a target protein and an FTH1 gene; transfecting the host cells with the expression vector; culturing the host cells in a medium; and adding iron ions to the medium, and screening the surviving host cells to obtain the host cells expressing the target protein. An expression vector and a method for establishing a cell line stably expressing an exogenous recombinant gene are also provided.

Abstract: An image processing method and an image processing apparatus for video conferencing are provided. In the method, one or more background areas in a shared screen are identified. Whether a size of the one or more background areas conforms to a size of a character representative image is determined. The character representative image is presented in a background area conforming to the size of the character representative image. Therefore, the complete briefing content can be seen.

Abstract: A connection authentication method is provided in the invention. The connection authentication method may comprise the following steps. A master device may provide a white list to a wireless network device, wherein the white list comprises white list information of at least one authorized device. Then, the wireless network device may connect to the at least one authorized device according to the white list to provide network connection to the at least one authorized device.

Abstract: The present disclosure describes a buried conductive structure in a semiconductor substrate and a method for forming the structure. The structure includes an epitaxial region disposed on a substrate and adjacent to a nanostructured gate layer and a nanostructured channel layer, a first silicide layer disposed within a top portion of the epitaxial region, and a first conductive structure disposed on a top surface of the first silicide layer. The structure further includes a second silicide layer disposed within a bottom portion of the epitaxial region and a second conductive structure disposed on a bottom surface of the second silicide layer and traversing through the substrate, where the second conductive structure includes a first metal layer in contact with the second silicide layer and a second metal layer in contact with the first metal layer.

Abstract: A pulse pressure measuring apparatus including a plurality of pressing elements, a plurality of pressure sensors, and a processing unit is provided. The pressing elements are used to press the site to be measured, and each pressing element has a position coordinate Pi (i=1, 2, 3 . . . ). The pressure sensors are configured to respectively measure pressure on the pressing elements to generate measured values of pressure intensity Ii (i=1, 2, 3 . . . ) at the position coordinates Pi (i=1, 2, 3 . . . ). The processing unit utilizes the position coordinates Pi (i=1, 2, 3 . . . ) and the measured values of pressure intensity Ii (i=1, 2, 3 . . . ) to determine the blood vessel locus.

Abstract: A method is provided. The method includes: receiving a semiconductor structure having a first material and a second material; performing a first etch on the first material for a first duration under a first etching chemistry; and performing a second etch on the second material for a second duration under a second etching chemistry, wherein the first material includes a first incubation time and the second material includes a second incubation time greater than the first incubation time under the first etching chemistry. The first material includes a third incubation time and the second material includes a fourth incubation time less than the third incubation time under the second etching chemistry.

Abstract: An eye detection physiological information capture device includes a first light plate assembly, and a second light plate assembly arranged in a housing. The first light plate assembly includes a first light source module, and a signal detection module. The signal detection module detects the reflection of light emitted from the first light source module towards an eye. The second light plate assembly includes a second light source module, a lens assembly, a first camera module, and a second camera module. The lens assembly is arranged to enable light rays from the second light source module to respectively irradiate the eye. The first camera module can capture a three-dimensional image of the eye and the second camera module can capture a fundus image of the eye by detecting the reflection of light emitted from the second light source module towards the eye.

Abstract: A voltage-controlled oscillator includes an input circuit, a first current supply circuit, a second current supply circuit, a filtering circuit, and an oscillating circuit. The input circuit includes an operational amplifier and a first input transistor. The operational amplifier generates an output voltage according to an input voltage and a feedback voltage. The first input transistor generates an input current according to the output voltage and a power supply voltage. The first current supply circuit generates a first output current according to the input current. The second current supply circuit generates a second output current according to the input current. The filtering circuit couples to the input circuit and the second current supply circuit, and decrease an influence caused by a variation of the input current on the second current supply circuit. The oscillating circuit generates an output clock according to the first output current and the second output current.

Abstract: In a semiconductor structure, a first conductive feature is formed in a trench by PVD and a glue layer is then deposited on the first conductive feature in the trench before CVD deposition of a second conductive feature there-over. The first conductive feature acts as a protection layer to keep silicide from being damaged by later deposition of metal or a precursor by CVD. The glue layer extends along the extent of the sidewall to enhance the adhesion of the second conductive features to the surrounding dielectric layer.

Abstract: A substrate structure and a cutting method thereof are provided. The cutting method includes the following steps. A first substrate structure is provided, wherein the first substrate structure includes a glass substrate and a redistribution layer disposed on the glass substrate. A laser process is performed on the glass substrate to form a modified region on the glass substrate. A wet etching process is performed on the modified region of the glass substrate to remove the modified region and form a plurality of second substrate structures.

Abstract: A circuit substrate structure includes a circuit substrate, at least two chips, and a bridge element. The circuit substrate has a first surface and a second surface opposite to each other. The chips are arranged in parallel on the first surface of the circuit substrate and electrically connected to the circuit substrate. The chips have active surfaces, back surfaces opposite to the active surfaces, and side surfaces connecting the active surfaces and the back surfaces. The chips include side circuits. The side circuits are arranged on the side surfaces and have first ends and second ends, the first ends extend to the active surfaces along the side surfaces, and the second ends extend to the back surfaces along the side surfaces. The bridge element is arranged on the back surfaces of the chips and electrically connected to the active surfaces of the chips through the side circuits.

Abstract: A printed circuit board comprising a differential microstrip pair including a neck-down area and an ultraviolet glue coating a portion of the neck-down area of the differential microstrip pair to control an impedance of the differential microstrip pair.