Abstract: Disclosed is a display panel in which a sampling transistor and a sampling capacitor for additional sampling are disposed between a light-emitting element and a driving element of the display panel to secure a sufficient sampling time of the driving element. Further, a display device including the panel is disclosed. To this end, a first switching element is configured to be switched to apply an initialization voltage to each of a first electrode of the light-emitting element and a gate electrode of the driving element; and a second switching element is configured to be switched to apply a sampling voltage to a second electrode and the gate electrode of the driving element. Thus, a sufficient sampling time of a threshold voltage of the driving element is secured such that pixel defects such as luminance non-uniformity of pixels are reduced.

Abstract: An information prompting device includes a display module having a display area, and a light source module. The display module is configured to display an ultrasonic scanning video frame in the display area. The light source module is configured to receive abnormal position information obtained by a detection device detecting the ultrasonic scanning video frame, and illuminate, according to the abnormal position information, an abnormal position in the ultrasonic scanning video frame displayed in the display area as a prompt.

Abstract: An electronic device supporting application mirroring includes: a communication unit configured to connect a communication channel with a source electronic device by at least one direct communication protocol; a display unit configured to display each of one or more mirroring images, as a mirroring screen, in a mirroring area; memory storing instructions; and at least one processor operatively connected to the memory, the communication unit and the display unit, where the at least one processor is configured to execute the instructions to: control the display unit to display the mirroring screen based on mirroring data received from the source electronic device through the communication unit; detect a resize event requesting to change a size of the mirroring screen displayed on the display unit; based on detecting the resize event, obtain at least one of a target resolution or a target dot per inch (DPI).

Abstract: Provided is a secondary battery including an electrode assembly, in which a notch is provided in a cap-up so that the cap-up is ruptured at a set internal pressure so a gas inside the battery is easily discharged to improve stability of the battery, preventing chain rupture or explosion. The secondary battery includes an electrode assembly, a can configured to accommodate the electrode assembly, and a cap assembly configured to seal an upper portion of the can and having a cap-up comprising a base plate, a terminal part protruding upwardly from an upper side of the base plate and disposed at a center of the cap-up, and a connection part configured to connect the base plate to the terminal part. A notch is provided in at least one of the base plate, the terminal part, or the connection part to be ruptured at a set pressure within the can.

Abstract: An ADC may include an analog front end (AFE) configured to receive an analog input signal and sample the input signal to generate an analog sampled signal comprising a plurality of analog samples and conversion circuitry configured to convert each analog sample to a respective digital sample during a conversion phase. The AFE may include an amplifier configured to receive and buffer the input signal to generate an analog output signal and sampling circuitry configured to sample each of the plurality of analog output samples onto a sampling capacitor during a sampling phase. The AFE may also include precharging circuitry configured to, during the conversion phase, track the analog input signal and store a charge on a precharging capacitor, the charge based on the analog input signal, and during a precharging transfer phase, transfer at least a portion of the charge stored on the precharging capacitor to the sampling capacitor.

Abstract: A network side device, a first device, and a terminal device are provided. The network side device includes: a processor, a memory, and a computer program stored in the memory and capable of running on the processor. The computer program, when executed by the processor, causes the processor to perform a method for determining an operation mode. The method includes: determining first information; and determining at least a first operation mode of the first device based on the first information. The first operation mode comprises at least one of the following: a first beam direction of a reflected signal or a refracted signal of a first device; a first beamforming mode of the reflected signal or the refracted signal of the first device; or a first polarization mode of the reflected signal or the refracted signal of the first device.

Abstract: This disclosure relates to a receiver device for pulse amplitude modulation (PAM) signals. The receiver device calculates a transmitter dispersion eye closure quaternary (TDECQ). The receiver device first obtains a signal, wherein the signal is based on a PAM signal sent by a transmitter device over a channel to the receiver device, and filters the obtained signal. Further, the transmitter device equalizes the filtered signal using a FFE with multiple taps, and filters the equalized signal output by the FFE using a 2-tap post filter, wherein high frequency noise caused by the FFE is compressed. The receiver device applies a Max-Log-Map (MLM) algorithm on the filtered signal output by the 2-tap post filter, reconstructs a signal constellation of the PAM signal based on the result of the MLM algorithm, and calculates a TDECQ based on the reconstructed signal constellation.

Abstract: Disclosed is a substrate processing apparatus. The substrate processing apparatus includes a support unit configured to support a substrate in a lower area of a processing space in a chamber, a heat treatment unit configured to provide energy for heat treatment of the substrate from an upper area of the processing space to the lower area, a plasma generator configured to generate plasma for plasma processing of the substrate in an intermediate area of the processing space, and a space opening/closing unit configured to spatially connect or block the upper area and the intermediate area of the processing space to or from each other. When heat treatment is performed, the space opening/closing unit spatially connects the upper area and the intermediate area to each other, and when plasma processing is performed, the space opening/closing unit spatially blocks the upper area and the intermediate area from each other.

Abstract: A manufacturing method for a semiconductor device structure and the semiconductor device structure are disclosed. The method includes forming backside connection structures by sequentially forming heat transfer layers stacked upon one another and backside metallization structures sandwiched between the heat transfer layers. The formation of at least one heat transfer layer involves performing an annealing process to turn an insulating material layer into an insulating nanostructured material layer with nano grains and dopants distributed along grain boundaries of the nano grains.

Abstract: A semiconductor package provided herein includes a first semiconductor die, a second semiconductor die and an insulating encapsulation. The second semiconductor die is stacked on the first semiconductor die. The insulating encapsulation laterally surrounds the first semiconductor die and the second semiconductor die in a one-piece form, and has a first sidewall and a second sidewall respectively adjacent to the first semiconductor die and the second semiconductor die. The first sidewall keeps a lateral distance from the second sidewall.

Abstract: A routing member including: a first housing that includes a first tube through which a first wire passes; and a second housing that includes a second tube that differs from the first tube, and through which a second wire, which differs from the first wire, passes, wherein: the first housing further includes at least one first joint provided integrally with the first tube, the second housing further includes at least one second joint provided integrally with the second tube, and the at least one second joint is joined to the at least one first joint and together with the at least one first joint maintains a state where the second tube is disposed along the first tube.

Abstract: An extension cable reel comprising a central body with an axle extending both directions from the central body. Freely rotatably mounted on the axle are at least two drums, at least one on each side of the central body. Each drum comprises a length of cable (for electrical or data connection) or hose (for fluid connection), the cable or hose reversibly windable around the drum. Each cable or hose on a first side of the central body is in electrical or fluid communication with at least one cable or hose on the second side of the central body. Each cable on the first side has a plug at its free end and each cable on the second side has at least one socket at its free end. Each hose has at least one fluid connection at its free end.

Abstract: A battery system including a plurality of battery packs, and a battery control device configured to collect voltage values for each of the plurality of battery packs and to control charging of the plurality of battery packs, based on the collected voltage values. The battery control device may be configured to determine a charging group by selecting one or more battery packs having a voltage value within a predefined threshold range, and to control the battery packs included in the charging group to be charged together up to a predefined target voltage. Here, the battery control device may be configured, when charging up to the target voltage is completed, to update the charging group by selecting, among battery packs in which charging is not in progress, a battery pack whose voltage value is within a predefined threshold range from a voltage value of the charging group.

Abstract: An undercounter wireless power system utilizes an adjustable undercounter mount capable of supporting a wireless power transmitter housed within a tray underneath a countertop supported by a base cabinet. In some instances, the adjustable undercounter mount includes one or more adjustable rails having adjustable lengths and including opposing ends configured to be secured to opposing support structures of the base cabinet and having adjustable lengths, and in some instances, the adjustable undercounter mount includes one or more mounting brackets including flanges that engage a mounting lip that extends at least partially around a periphery of the tray.

Abstract: A coil assembly of a seal-less pump or turbine comprises materials having differing coefficients of thermal expansion that are layered but not bonded together, thereby reducing thermal stresses at cryogenic temperatures. Differences in shrinkage upon cooling provides compressive structural support. Coils are wound on hollow, non-magnetic spools, and a resin is applied for mechanical support, for example by vacuum impregnation. A release agent prevents bonding of the resin to the coils. The hollow spools are then placed over winding cores, such as laminated iron cores, without bonding. During cooling, the non-metallic spools shrink more than the cores, thereby providing compression fits. At ambient temperature, the spools can be held in place by interferences fits, and/or by key-stock pieces. Wired interconnections between the coils can be located within a wire harness cavity, which can be filled with a resin to provide mechanical support, while a release agent prevents bonding.

Abstract: Methods for video decoding and encoding, apparatuses and non-transitory computer-readable storage media thereof are provided. In one method for video decoding, a decoder may obtain one or more spatial neighboring samples associated with a current sample. Furthermore, the decoder may obtain a filtered sample for the current sample based on the one or more spatial neighboring samples.

Abstract: Provided is a display device including: a display; memory storing one or more instructions; and at least one processor configured to execute the one or more instructions stored in the memory, wherein the one or more instructions, when executed by the at least one processor, cause the display device to: recognize a display ratio of content, generate, based on the recognized display ratio of the content and a display ratio of the display, a first area of an image of the content to be displayed on the display, and a second area of the image of the content to be displayed by an external device on a surrounding area of the display, transmit the second area to the external device, and display the first area on the display while causing the external device to display the second area on the surrounding area of the display.

Abstract: A camera module including a first body having a lens, a second body coupled to the first body, a substrate assembly located inside the second body, and a first shield can located inside the first body, the first shield can facing the substrate assembly in an optical axis direction. The first body includes at least one hole exposing the first shield can to an outside.

Abstract: A control method of an electronic device includes obtaining information about a parameter of a neural network model, identifying a maximum value and a minimum value of the parameter of the neural network model based on the obtained information about the parameter of the neural network model, obtaining a quantization scale in the form of a power of two by adjusting the maximum value and the minimum value of the parameter of the neural network model, and quantizing the parameter of the neural network model based on the quantization scale in the form of a power of two.

Abstract: Disclosed are a vertical trench coupling capacitance gate-controlled junction field effect transistor and a manufacturing method thereof. The vertical trench coupling capacitance gate-controlled junction field effect transistor includes a substrate of a first doping type, an epitaxial layer of the first doping type, and a plurality of repeating units disposed adjacently; where the epitaxial layer is disposed on the substrate, the substrate is served as a drain region, and each of the repeating units includes: two source regions of the first doping type; a trench; a gate of the second doping type; a dielectric; and a coupling capacitance upper electrode, where the gate is indirectly controlled by the coupling capacitance upper electrode spaced with the dielectric layer.