Abstract: The present disclosure provides a semiconductor device. The semiconductor device includes a semiconductor stack, a trench formed in the semiconductor stack, a current confinement layer, a first electrode and a second electrode. The semiconductor stack includes a first reflective structure, a second reflective structure, and a cavity region. The cavity is between the first reflective structure and the second reflective structure and has a first surface and a second surface opposite to the first surface. The current confinement layer is in the second reflective structure. The first electrode and the second electrode are on the first surface.

Abstract: The disclosure relates to an electronic device including a chassis, a mainboard, a tray, a positioning component, and a cage assembly. The mainboard is disposed on the chassis. The tray is disposed on the chassis and located above the mainboard. The positioning component is fixed to the mainboard. The cage assembly includes a cage and a linkage assembly. The cage has a contact portion. The contact portion is disposed on the tray. The linkage assembly, includes an actuating lever and latch. The actuating lever is movably disposed on the cage. The actuating lever and the contact portion are respectively located at two opposite sides of the cage. The latch is connected to the actuating lever and has an engaging portion. The engaging portion is engageable with the positioning component.

Abstract: A fugitive gas detection system includes an inertial measurement assembly that measures a change in position of the inlet of a gas analyzer and applies a time slip to concentration data detected by an analyzer to generate a time series of the concentration of the gas in three-dimensional space. Applying statistical methods, the relative location of the source of the fugitive gas can be established from the time series. Additionally, in some embodiments, the data may be interpolated to establish a map of a plume of the fugitive gas.

Abstract: Video processing methods and apparatuses for processing a current block in a current picture include receiving input data of the current block, determining a reference picture, determining whether picture sizes of the current and reference pictures are different, determining whether horizontal wraparound motion compensation is enabled for predicting the current block, performing motion compensation for the current block to obtain a reference block from the reference picture, and encoding or decoding the current block according to the reference block. Horizontal wraparound motion compensation is disabled when the picture sizes of the current and reference pictures are different.

Abstract: A multi-screen splicing structure has a plurality of display devices. Each display device includes a display panel, a plurality of transceivers, a wireless communications module, and a control circuit. Each transceiver has a transmitting component and a receiving component. The control circuit is coupled to the display panel, the transceivers and the wireless communications module, and is used to turn on the wireless communications module when the control circuit determines that another display device is approaching based on a status of signals received by the receiving components of the transceivers to enable the wireless communications module performing wireless communications with a wireless communications module of another display device. The control circuit may also control an orientation of an image relative to the display panel according to the status of signals received by the receiving components of the transceivers of the display device.

Abstract: A system includes an inspection device and an image processing unit. The inspection device is configured to scan a wafer to generate an inspected image. The image processing unit is configured to receive the inspected image, and is configured to analyze the inspected image by using at least one deep learning algorithm in order to determine whether there is any defect image shown in a region of interest in the inspected image. When there is at least one defect image shown in the region of interest in the inspected image, the inspection device is further configured to magnify the region of interest in the inspected image to generate a magnified inspected image for identification of defects.

Abstract: A system for visualization and quantification of ultrasound imaging data according to embodiments of the present disclosure may include a display unit, and a processor communicatively coupled to the display unit and to an ultrasound imaging apparatus for generating an image from ultrasound data representative of a bodily structure and fluid flowing within the bodily structure. The processor may be configured to estimate axial and lateral velocity components of the fluid flowing within the bodily structure, determine a plurality of flow directions within the image based on the axial and lateral velocity components, differentially encode the flow directions based on flow direction angle to generate a flow direction map, and cause the display unit to concurrently display the image including the bodily structure overlaid with the flow direction map.

Abstract: A trans-abdominal non-invasive fetal blood oxygen saturation detection device comprises a trans-abdominal fetal oximeter and a signal detection assembly connected to the trans-abdominal fetal oximeter. The trans-abdominal oximeter comprises a signal processing controller. The signal detection assembly comprises a light-emitting light source device and a light receiving device, wherein the light-emitting light source device, the light receiving device and a reference signal detection device are all connected to the signal processing controller. The light-emitting light source device irradiates two or more different wavelengths of light into the abdominal cavity of a pregnant woman.

Abstract: An apparatus includes an imaging probe and is configured for dynamically arranging presentation of visual feedback for guiding manual adjustment, via the probe, of a location, and orientation, associated with the probe. The arranging is selectively based on comparisons between fields of view of the probe and respective results of segmenting image data acquired via the probe. In an embodiment, the apparatus includes a sensor which guides a decision that acoustic coupling quality is insufficient, the apparatus issuing a user alert upon the decision.

Abstract: The invention provides a control method for sets of series-parallel-connected LEDs via a single wire. Step 1: providing an LED circuit including a control module and a light-emitting module. The light-emitting module includes LED strings connected to one another in parallel. Each of the LED strings includes a plurality of LED units connected in series to one another, and at least one counter comprising a counter start time different from that of another. Step 2: sending a setting signal by the control module, and allocating one identification code obtained sequentially in time to one of the LED string according to the different counter start times of the LED strings. Step 3: sending a designation signal to the light-emitting module by the control module, such that the LED string with the corresponding identification value is selected and independently controlled by the control module.

Abstract: Probe systems including imaging devices with objective lens isolators and related methods are disclosed herein. A probe system includes an enclosure with an enclosure volume for enclosing a substrate that includes one or more devices under test (DUTs), a testing assembly, and an imaging device. The imaging device includes an imaging device objective lens, an imaging device body, and an objective lens isolator. In examples, the probe system includes an electrical grounding assembly configured to restrict electromagnetic noise from entering the enclosure volume. In examples, methods of preparing the imaging device include assembling the imaging device such that the imaging device objective lens is at least partially electrically isolated from the imaging device body. In some examples, utilizing the probe system includes testing the one or more DUTs while restricting electrical noise from propagating from the imaging device to the substrate.

Abstract: A method and apparatus of video coding using Merge mode or Skip mode in a video coding system are disclosed. According to this method, a Merge or Skip candidate list is generated from multiple-type candidates comprising one or more sub-block TMVP-type (temporal motion vector prediction-type) candidates. The step of generating a Merge or Skip candidate list comprises a pruning process dependent on whether a current sub-block TMVP-type candidate being inserted, a previous sub-block TMVP-type candidate in the Merge or Skip candidate list, or both are “single block”. According to another method, a Merge or Skip candidate list is generated from multiple-type candidates including sub-block TMVP-type (temporal motion vector prediction-type) candidates, where the sub-block TMVP-type candidates comprise two or more first sub-block temporal MV predictors.

Abstract: A device, system, and method generate a graphical interface including a map for a set of items. The method includes identifying the items in the set of items. For each item, the method includes measuring a usage characteristic for the item at a predetermined time and generating an icon for the item, a display characteristic of the icon based on the usage characteristic. The method includes generating the map including the icons.

Abstract: A method and apparatus of priority-based MVP (motion vector predictor) derivation for motion compensation in a video encoder or decoder are disclosed. According to this method, one or more final motion vector predictors (MVPs) are derived using priority-based MVP derivation process. The one or more final MVPs are derived by selecting one or more firstly available MVs from a priority-based MVP list for Inter prediction mode, Skip mode or Merge mode based on reference data of one or two target reference pictures that are reconstructed prior to the current block according to a priority order. Therefore, there is no need for transmitting information at the encoder side nor deriving information at the decoder side that is related to one or more MVP indices to identify the one or more final MVPs in the video bitstream.

Abstract: Method and apparatus of using Bi-directional optical flow (BIO) for a true bi-direction predicted block are disclosed. According to one method of the present invention, a division-free BIO process is disclosed, where the x-motion offset and y-motion offset are derived using operations including right-shifting without any division operation. According to another method, a refined predictor is generated for the current block by applying BIO process to the reference blocks, where said applying the BIO process comprises applying a boundary-condition-dependent BIO process conditionally to boundary pixels associated with the reference blocks.

Abstract: An ultrasound imaging system which uses multiline receive beamforming for synthetic transmit focusing are phase adjusted to account for speed of sound variation in the transmission medium. The phase discrepancy of the received multilines caused by speed of sound variation in the medium is estimated in the frequency domain for both the transmit angular spectrum and the receive angular spectrum. The phase variation is removed in the frequency domain, then an inverse Fourier transform is used to transform the frequency domain results to the spatial domain. In another implementation, the phase discrepancy of the received multilines is estimated and corrected entirely in the spatial domain.

Abstract: An electronic apparatus and an object information recognition method by using touch data thereof are provided. Touch sensing is performed in the case where no object touches a touch panel to obtain a specific background frame through the touch panel. A current touch sensing frame is obtained through the touch panel. Touch background data of a plurality of first frame cells in the specific background frame is respectively subtracted from touch raw data of a plurality of second frame cells in the current touch sensing frame to obtain a background removal frame including a plurality of cell values. The background removal frame is transformed into a touch sensing image. The touch sensing image is inputted to a trained neural network model to recognize object information of a touch object.

Abstract: An electronic apparatus and an object information recognition method by using touch data thereof are provided. A current touch sensing frame is obtained through a touch panel. The current touch sensing frame includes a plurality of frame cells respectively corresponding to a plurality of touch sensing units, and each of the frame cells has touch raw data. The frame cells include a target frame cell. A new cell value corresponding to the target frame cell is generated according to touch raw data of a plurality of adjacent frame cells adjacent to the target frame cell in the current touch sensing frame, so as to generate a transformation frame according to the new cell value. The transformation frame is transformed into a touch sensing image, and the touch sensing image is analyzed to recognize object information of a touch object.

Abstract: A method and apparatus for video coding incorporating enhanced multiple transform (EMT) are disclosed. According to one method, the number of candidates for EMT in the horizontal direction or vertical direction is reduced depending on the current block size. According to another method, an EMT flag, one or more EMT indices or both are signalled only if the total number of non-zero coefficients in at least a part of the 2D coefficient block is greater than a threshold, where the threshold is equal to 1 or larger. A method and apparatus for video coding using non-separable secondary transform (NSST) are disclosed. According to this method, a total number of non-zero first coefficients in a partial block of the 2D coefficient block is determined and used to determine whether to apply the NSST process.

Abstract: A method and apparatus provide adaptive interpolation filter for motion compensation with fractional-pixel accuracy. Embodiments of the present invention generate interpolated reference samples at non-integer locations based on existing reference samples in a reference block by using an interpolation filter set adaptively according to pixel location and/or pixel characteristics. A current block is then encoded or decoded using a temporal predictor including the interpolated reference samples. The adaptive interpolation filter can be applied to the prediction unit (PU). In one embodiment, the interpolation filter set consists of interpolation filters having different filter lengths. An interpolation filter with a longer tap length is applied to generate interpolated reference samples farther from the block boundary and an interpolation filter with a shorter tap length is applied to generate interpolated reference samples closer to the block boundary.