Abstract: The present application discloses an inertial sensor comprising a proof mass, an anchor, a flexible member and several sensing electrodes. The anchor is positioned on one side of the sensing, mass block in a first axis. The flexible member is connected to the anchor point and extends along the first axis towards the proof mass to connect the proof mass, in which the several sensing electrodes are provided. In this way, the present application can effectively solve the problems of high difficulty in the production and assembly of inertial sensors and poor product reliability thereof.

Abstract: A semiconductor device is provided. The semiconductor device includes a waveguide over a substrate. The semiconductor device includes a first dielectric structure over the substrate, wherein a portion of the waveguide is in the first dielectric structure. The semiconductor device includes a second dielectric structure under the waveguide, wherein a first sidewall of the second dielectric structure is adjacent a first sidewall of the substrate.

Abstract: An apparatus for display includes an active region, a gate scanning driver, and light emitting driver. The active region includes a plurality of subpixels. The gate scanning driver is operatively coupled to the active region and configured to scan the plurality of subpixels in a first period of each frame at a first rate. The light emitting driver is operatively coupled to the active region and configured to cause the plurality of subpixels to start emitting light in a second period of each frame at a second rate. The second rate is higher than the first rate. The second period overlaps the first period.

Abstract: An apparatus includes an active region, a source driving circuit, and a light emitting driving circuit. The active region includes an array of light emitting elements corresponding to an array of pixels arranged in M rows and N columns. The number of the array of light emitting elements is k times of the number of the array of pixels. The apparatus includes xM light emitting lines and (k/x)N source lines, wherein x is a positive fraction, and each of xM and (k/x)N is a positive integer. The source driving circuit is operatively coupled to the active region via the (k/x)N source lines and configured to write display data of a frame to the array of light emitting elements. The light emitting driving circuit is operatively coupled to the active region via the xM light emitting lines and configured to cause the array of light emitting elements to emit light.

Abstract: An apparatus includes a display panel and one or more drivers operatively coupled to the display panel. The display panel includes an array of pixels divided into at least a first zone and a second zone, each of which is associated with a plurality of display attributes. The drivers are configured to receive control signals, and drive the array of pixels based, at least in part, on the control signals so that a first value of at least one of the plurality of display attributes associated with the first zone is different from a second value of the at least one of the plurality of display attributes associated with the second zone.

Abstract: An apparatus includes a display panel and one or more drivers operatively coupled to the display panel. The display panel includes an array of pixels divided into at least a first zone and a second zone, each of which is associated with a plurality of display attributes. The drivers are configured to receive control signals, and drive the array of pixels based, at least in part, on the control signals so that a first value of at least one of the plurality of display attributes associated with the first zone is different from a second value of the at least one of the plurality of display attributes associated with the second zone.

Abstract: A liquid crystal display (LCD) apparatus includes a color filter layer, a liquid crystal (LC) layer, and a pixel circuit layer. The color filter layer includes a plurality of color filters corresponding to an array of pixels arranged in M rows and N columns. The number of the color filters is k times of the number of the pixels. The LC layer is divided into a plurality of LC regions, each of which corresponds to a respective one of the color filters. The pixel circuit layer includes a plurality pixel circuits, each of which is configured to drive a respective one of the LC regions. The pixel circuit layer also includes xM gate lines and (k/x)N source lines, where x is a fraction larger than one, and each of xM and (k/x)N is a positive integer.

Abstract: An apparatus includes an active region, a source driving circuit, and a light emitting driving circuit. The active region includes an array of light emitting elements corresponding to an array of pixels arranged in M rows and N columns. The number of the array of light emitting elements is k times of the number of the array of pixels. The apparatus includes xM light emitting lines and (k/x)N source lines, wherein x is a positive fraction, and each of xM and (k/x)N is a positive integer. The source driving circuit is operatively coupled to the active region via the (k/x)N source lines and configured to write display data of a frame to the array of light emitting elements. The light emitting driving circuit is operatively coupled to the active region via the xM light emitting lines and configured to cause the array of light emitting elements to emit light.

Abstract: A smart logistic locker comprises a plurality of compartments and a control station. The control station comprises a processor, a memory, a first sensing module, a second sensing module, an input/out interface, a communication module and a maintenance door. A smart logistic locker management method comprises below steps. The first sensing module obtains a first biological feature. The processor determines whether the first biological feature is authenticated. If the first biological feature is authenticated, the second sensing module obtains a second biological feature. The processor determines whether the second biological feature is authenticated. If the second biological feature is authenticated, the processor opens the maintenance door.

Abstract: An apparatus includes an active region, gate lines, source lines, a gate driver, and a source driver. The active region includes a plurality of subpixels. The subpixels correspond to an array of pixels arranged in M rows and N columns. The number of the subpixels is k times of the number of the pixels. The apparatus includes xM gate lines and (k/x)N source lines, where x is a fraction between 1 and 2, and each of xM and (k/x)N is a positive integer. The gate driver is operatively coupled to the active region via the xM gate lines and configured to scan the plurality of subpixels. The source driver is operatively coupled to the active region via the (k/x)N source lines and configured to write display data in a frame to the plurality of subpixels.

Abstract: An apparatus for display includes an active region, a gate scanning driver, and light emitting driver. The active region includes a plurality of subpixels. The gate scanning driver is operatively coupled to the active region and configured to scan the plurality of subpixels in a first period of each frame at a first rate. The light emitting driver is operatively coupled to the active region and configured to cause the plurality of subpixels to start emitting light in a second period of each frame at a second rate. The second rate is higher than the first rate. The second period overlaps the first period.

Abstract: An apparatus includes an active region, a source driving circuit, and a light emitting driving circuit. The active region includes an array of light emitting elements corresponding to an array of pixels arranged in M rows and N columns. The number of the array of light emitting elements is k times of the number of the array of pixels. The apparatus includes xM light emitting lines and (k/x)N source lines, wherein x is a positive fraction, and each of xM and (k/x)N is a positive integer. The source driving circuit is operatively coupled to the active region via the (k/x)N source lines and configured to write display data of a frame to the array of light emitting elements. The light emitting driving circuit is operatively coupled to the active region via the xM light emitting lines and configured to cause the array of light emitting elements to emit light.

Abstract: An apparatus includes an active region, a source driving circuit, and a light emitting driving circuit. The active region includes an array of light emitting elements corresponding to an array of pixels arranged in M rows and N columns. The number of the array of light emitting elements is k times of the number of the array of pixels. The apparatus includes xM light emitting lines and (k/x)N source lines, wherein x is a positive fraction, and each of xM and (k/x)N is a positive integer. The source driving circuit is operatively coupled to the active region via the (k/x)N source lines and configured to write display data of a frame to the array of light emitting elements. The light emitting driving circuit is operatively coupled to the active region via the xM light emitting lines and configured to cause the array of light emitting elements to emit light.

Abstract: An apparatus includes an active region, gate lines, source lines, a gate driver, and a source driver. The active region includes a plurality of subpixels. The subpixels correspond to an array of pixels arranged in M rows and N columns. The number of the subpixels is k times of the number of the pixels. The apparatus includes xM gate lines and (k/x)N source lines, where x is a fraction between 1 and 2, and each of xM and (k/x)N is a positive integer. The gate driver is operatively coupled to the active region via the xM gate lines and configured to scan the plurality of subpixels. The source driver is operatively coupled to the active region via the (k/x)N source lines and configured to write display data in a frame to the plurality of subpixels.

Abstract: A paper feeding device includes a pickup mechanism, a conveying mechanism disposed behind the pickup mechanism, a separation mechanism disposed behind the conveying mechanism, a feeding mechanism disposed behind the separation mechanism, a transmission mechanism driving the pickup mechanism, the conveying mechanism, the separation mechanism and the feeding mechanism, and an ultrasonic circuit unit disposed between the separation mechanism and the transmission mechanism. The ultrasonic circuit unit includes an ultrasonic detecting module, an amplifying circuit unit electrically connected with the ultrasonic detecting module, a paper density detecting unit electrically connected with the amplifying circuit unit, an analog-to-digital converter electrically connected with the paper density detecting unit, a processor electrically connected with the analog-to-digital converter, and a driving unit electrically connected with the processor and the transmission mechanism.

Abstract: A layout method applied to a connector is provided. The connector is electrically connected between a flexible printed circuit (FPC) and a printed circuit board (PCB). The FPC includes M pairs of differential lines and X shield lines. The PCB includes M pairs of differential lines and Z shield lines. The layout method includes following steps. Firstly, M pairs of conductive lines are disposed on the connector. The M conductive lines are correspondingly electrically connected to the M differential lines of the FPC and the M differential lines of the PCB. Then; Y conductive lines are disposed on the connector, wherein Y is smaller than X. Furthermore, at least one of the Y conductive lines is electrically connected to at least one of the X shield lines and at least one of the Z shield lines.

Abstract: A layout method applied to a connector is provided. The connector is electrically connected between a flexible printed circuit (FPC) and a printed circuit board (PCB). The FPC includes M pairs of differential lines and X shield lines. The PCB includes M pairs of differential lines and Z shield lines. The layout method includes following steps. Firstly, M pairs of conductive lines are disposed on the connector. The M conductive lines are correspondingly electrically connected to the M differential lines of the FPC and the M differential lines of the PCB. Then; Y conductive lines are disposed on the connector, wherein Y is smaller than X. Furthermore, at least one of the Y conductive lines is electrically connected to at least one of the X shield lines and at least one of the Z shield lines.