Abstract: A computer device, an edge device, and a method for an artificial intelligence (AI) inference on a video stream are proposed. The computing device at least includes a first processor and a second processor. The first processor is configured to continuously receive a main video stream. The second processor is configured to perform scaling on the main video stream to generate a scaled video stream and to perform AI inference on a first frame of the scaled video stream to generate an AI inference result for a second frame of the main video stream, where the second frame of the main video stream is a frame corresponding to a time point when or after the AI inference result is generated.

Abstract: A driving method includes the following steps. An input image is divided into a plurality of image blocks. A plurality of pixel groups corresponding to the image blocks are respectively controlled. Step of controlling a corresponding one of the pixel groups corresponding to one of the image blocks includes the following steps. A plurality of input grayscale values included in one of the image blocks are mapped to a plurality of duty cycles. One of the duty cycles is determined as a desired duty cycle. A plurality of the input grayscale values are mapped to a plurality of data voltages according to the desired duty cycle. A plurality of pixel circuits included in the one of the pixel groups are driven according to the desired duty cycle and the data voltages.

Abstract: An electronic device includes a device body and a mounting accessory. The mounting accessory includes a first lateral bracket and a second lateral bracket. When the first lateral bracket and the second lateral bracket are mounted on the device body in a first mounting configuration, the first lateral bracket and the second lateral bracket provide a set of locking points. When the first lateral bracket and the second lateral bracket are mounted on the device body in a second mounting configuration, the first lateral bracket and the second lateral bracket provide another set of locking points.

Abstract: An electronic device includes a base, a data line disposed on the base, a scan line disposed on the base and crossing the data line, an optical sensing element configured to sense a light and generate a signal, a signal line electrically connected to the optical sensing element and configured to transmit the signal, and a touch line disposed on the base. In a top view direction of the electronic device, the scan line at least partially overlaps the touch line.

Abstract: An electronic device having a light emitting region includes a base, a data line disposed on the base, a driving element disposed on the base, a light emitting element disposed on the base and corresponding to the light emitting region, an optical sensing element configured to sense a light and generate a signal, and a signal line electrically connected to the optical sensing element and configured to transmit the signal. At least a portion of the data line is corresponding to the light emitting region. The signal line is overlapped with the data line.

Abstract: A driving method includes the following steps. An input image is divided into a plurality of image blocks. A plurality of pixel groups corresponding to the image blocks are respectively controlled. Step of controlling a corresponding one of the pixel groups corresponding to one of the image blocks includes the following steps. A plurality of input grayscale values included in one of the image blocks are mapped to a plurality of duty cycles. One of the duty cycles is determined as a desired duty cycle. A plurality of the input grayscale values are mapped to a plurality of data voltages according to the desired duty cycle. A plurality of pixel circuits included in the one of the pixel groups are driven according to the desired duty cycle and the data voltages.

Abstract: An electronic device having a light emitting region includes a base, a data line disposed on the base, a driving element disposed on the base, a light emitting element disposed on the base and corresponding to the light emitting region, an optical sensing element configured to sense a light and generate a signal, and a signal line electrically connected to the optical sensing element and configured to transmit the signal. At least a portion of the data line is corresponding to the light emitting region. The signal line is overlapped with the data line.

Abstract: A display device including a substrate including a display region, an ambient light sensing element, and an ambient light sensing signal line is provided by the present disclosure. The substrate includes a metal line, wherein at least a portion of the metal line is disposed in the display region. The ambient light sensing signal line is electrically connected to the ambient light sensing element and partially overlapped with the at least a portion of the metal line in a top view direction.

Abstract: A display device including a substrate including a display region, an ambient light sensing element, and an ambient light sensing signal line is provided by the present disclosure. The substrate includes a metal line, wherein at least a portion of the metal line is disposed in the display region. The ambient light sensing signal line is electrically connected to the ambient light sensing element and partially overlapped with the at least a portion of the metal line in a top view direction.

Abstract: A display device including a substrate, a gate driving circuit, at least one ambient light sensing element and at least one ambient light sensing signal line is provided by the present disclosure. The substrate includes a peripheral region, and the gate driving circuit, the ambient light sensing element and the ambient light sensing signal line are disposed in the peripheral region. The ambient light sensing signal line is electrically connected to the ambient light sensing element, wherein the ambient light sensing signal line at least partially overlaps the gate driving circuit in a top view direction of the substrate.

Abstract: A backlight module is provided. The backlight module is used for a display panel having a camera region. The backlight module may be operated in display mode or camera mode. The backlight module includes multiple light emitting units. When the backlight module is operating in the display mode, the light emitting units are all turned on. When the backlight module is operating in the camera mode, a portion of the light emitting units corresponding to the camera region of the display panel is turned off, and another portion of the light emitting units is turned on.

Abstract: A display device including a substrate, a gate driving circuit, at least one ambient light sensing element and at least one ambient light sensing signal line is provided by the present disclosure. The substrate includes a peripheral region, and the gate driving circuit, the ambient light sensing element and the ambient light sensing signal line are disposed in the peripheral region. The ambient light sensing signal line is electrically connected to the ambient light sensing element, wherein the ambient light sensing signal line at least partially overlaps the gate driving circuit in a top view direction of the substrate.

Abstract: A backlight module is provided. The backlight module is used for a display panel having a camera region. The backlight module may be operated in display mode or camera mode. The backlight module includes multiple light emitting units. When the backlight module is operating in the display mode, the light emitting units are all turned on. When the backlight module is operating in the camera mode, a portion of the light emitting units corresponding to the camera region of the display panel is turned off, and another portion of the light emitting units is turned on.

Abstract: An optical module includes an illuminating unit, an imaging unit and a projection lens. The illuminating unit includes a light source, a first collimating lens, a splitter, a microlens array and a first lens and is configured to generate a light beam. The imaging unit includes a first prism, a second prism and a display component and is configured to cover the light beam to image light containing image information. The projection lens includes a plurality of lenses and is configured to project the image light. A first axis sequentially passes through the light source, the first collimating lens, the splitter, the microlens array, the first lens, the first prism, the second prism and the lenses. The invention also provides a projection device including the optical module, a first holder and a second holder.

Abstract: An optical module includes an illuminating unit, an imaging unit and a projection lens. The illuminating unit includes a light source, a first collimating lens, a splitter, a microlens array and a first lens and is configured to generate a light beam. The imaging unit includes a first prism, a second prism and a display component and is configured to cover the light beam to image light containing image information. The projection lens includes a plurality of lenses and is configured to project the image light. A first axis sequentially passes through the light source, the first collimating lens, the splitter, the microlens array, the first lens, the first prism, the second prism and the lenses. The invention also provides a projection device including the optical module, a first holder and a second holder.

Abstract: An electrical receptacle connector includes an insulated housing, conductive terminals, and a fixing base. The insulated housing defines a connecting space therein. The insulated housing includes a tongue portion extending into the connecting space and a base portion arranged at the rear part of the tongue portion. The base portion has a rear wall, two lateral walls extended backward from the rear wall, and an assembling space defined by the rear wall and the two lateral walls. The fixing base is received in the assembling space and defines first through holes and second through holes. The pins of the conductive terminals are passing through the first through holes and the second through holes. The fixing base has a rear wall surface defining grooves communicating with the respective first through holes. The width of the groove is less than the width of the corresponding first through hole.

Abstract: A touch panel, a touch display panel and a touch display device are provided. The touch panel includes a first substrate, a black matrix, and a transparent electrode layer. The first substrate has a display area and a mask area surrounding the display area. The black matrix is disposed on the mask area of the first substrate. The transparent electrode layer is disposed on the first substrate. The transparent electrode layer includes a first appearance electrode pattern disposed on the black matrix, and the first appearance electrode pattern includes two first edges and a first arc connected with the two first edges.

Abstract: A shift register comprises a first switch, a second switch, a third switch, and a fourth switch. The first switch selectively conducts a first clock signal to a first output terminal as a first output signal based on a voltage level over the control terminal. The second switch selectively forces a voltage level of the first output signal to be equal to a voltage level of a second clock signal based on both of the second clock signal and a third clock signal inverted to the second clock signal. The third switch selectively defines a voltage over the control terminal to be a first voltage based on a first input signal. The fourth switch selectively forces the voltage level over the control terminal to be equal to the voltage level of the second clock signal based on both of the second clock signal and the third clock signal.

Abstract: A risk evaluation method and a risk evaluation device for evaluating an anonymous dataset generated according to an original dataset are provided. The risk evaluation method comprises the following steps. Acquiring a plurality of appearing times respectively corresponding to a plurality of original values of the original dataset. Generating a partition set and a weight table according to a sample parameter, an anonymous parameter and the appearing times. Dividing the original dataset into a plurality of data partitions according to the partition set, and generating a penetration dataset according to the weight table and the data partitions, wherein the penetration dataset comprises a plurality of sample data. Comparing each sample data with a plurality of anonymous data of the anonymous dataset to obtain a plurality of matching quantities respectively corresponding to the sample data. And calculating and outputting a risk evaluation result according to the matching quantities.