Abstract: A network interface device may include: a frame having: a first frame end, a second frame end, a top frame surface, a bottom frame surface, a first lateral frame surface and a second lateral frame surface, wherein the top frame surface includes a longitudinal frame indent extending along a portion of the top frame surface and between the first lateral frame surface and the second lateral frame surface; and heat dissipating members protruding from the longitudinal frame indent of the top frame surface.

Abstract: The present application provides a memory block, a memory device, and a memory cell. The memory block includes a memory array, including a plurality of memory cells distributed in a a three-dimensional array. The memory array includes a plurality of memory subarray layers, and each memory subarray layer includes a drain region semiconductor layer including a plurality of drain region semiconductor strips, a channel semiconductor layer including a plurality of channel semiconductor strips, and a source region semiconductor layer including a plurality of source region semiconductor strips. A plurality of gate strips are arranged on each side of the drain region semiconductor strip, channel semiconductor strip, and source region semiconductor strip. A part of the gate strip, a corresponding part of the channel semiconductor strip, a part of the drain region semiconductor strip, and a part of the source region semiconductor strip are configured to form a memory cell.

Abstract: A light emitting element includes a first semiconductor layer doped with a first conductivity type, a stress relief layer disposed on the first semiconductor layer, the stress relief layer including an indium-containing layer containing a nitride-based semiconductor material containing indium, and doped with the first conductivity type, a light emitting layer disposed on the stress relief layer, the light emitting layer including a quantum well layer containing a nitride-based semiconductor material containing indium in a composition greater than or equal to an indium composition of the indium-containing layer, and a second semiconductor layer disposed on the light emitting layer and doped with a second conductivity type, the indium composition of the indium-containing layer is in a range of about 30% to about 100% of an indium composition of the quantum well layer.

Abstract: A light-emitting element includes an n-type semiconductor layer, an active layer formed on the n-type semiconductor layer, a p-type semiconductor layer formed on the active layer, a p-side electrode formed on the p-type semiconductor layer, and an n-side electrode formed on the n-type semiconductor layer. At least one of the p-side electrode and the n-side electrode includes an observation hole that allows observation of the light-emitting element from both upper and lower sides.

Abstract: A light emitting diode is provided. The light emitting diode includes: a semiconductor stack, including a first semiconductor layer, a second semiconductor layer, and an active layer located between the first semiconductor layer and the second semiconductor layer; a first insulating layer, formed on the semiconductor stack; a reflective electrode layer, partially formed on the first insulating layer, wherein a minimum distance between an edge of the reflective electrode layer and the semiconductor stack is a fourth distance, and the fourth distance is in a range of 1 ?m to 5 ?m; and a fourth insulating layer, formed on the reflective electrode layer, wherein the fourth insulating layer is aluminum oxide.

Abstract: A light emitting element array includes light emitting elements on a substrate that emit different color lights. Each light emitting element includes a first semiconductor layer, a second semiconductor layer on the first semiconductor layer, doped with a first conductivity type, and containing indium, a light emitting layer on the second semiconductor layer and containing indium, and a third semiconductor layer on the light emitting layer and doped with a second conductivity type. An indium content of the light emitting layer of a first light emitting element among the light emitting elements is higher than an indium content of the light emitting layer of a second light emitting element among the light emitting elements. The second semiconductor layer of the first light emitting element includes first layers containing indium alternately stacked with second layers. The second semiconductor layer of the second light emitting element is a single layer containing indium.

Abstract: Disclosed are a light emitting device and a light emitting display device, the light emitting device including a first electrode and a second electrode facing each other, at least one stack of layers between the first electrode and the second electrode and including a hole transport layer, an emission layer, and an electron transport layer, and an electron injection unit provided between the at least one stack and the second electrode and including a first n-type layer, a p-type layer, and a second n-type layer.

Abstract: A communication method, apparatus and device, and a storage medium, a chip, and a product are provided. The method includes: a terminal device triggering the reporting of first global navigation satellite system (GNSS) assistance information, the first GNSS assistance information includes at least one of a first GNSS position fix time duration for measurement or a first GNSS validation duration, and the first GNSS assistance information is carried by a radio resource control (RRC) signaling and/or a medium access control (MAC) control element (CE).

Abstract: This application belongs to the field of rotation angles detection, and provides a self-calibration method for a magnetic encoder, a motor, and a method for calibrating detection values of angles. The self-calibration method for the magnetic encoder includes: performing a low-pass filtering process on detection values ?det(ij) to obtain filtered values ?filt(ij); setting m reference points ?ref(n) within 360°, and selecting detection values ?det(ij-n) respectively closest to each reference point ?ref(n) in each period; selecting filtered values ?filt(ij-n) corresponding to ?det(ij-n); calculating trimming values ?cal(i-n)=?filt(ij-n)??det(ij-n); performing an averaging process on ?cal(i-n) over p periods for each reference point ?ref(n) to obtain target trimming values ?cal(n); and storing each of the reference points ?ref(n) and the target trimming values ?cal(n) respectively corresponding to the each of the reference point in a one-to-one correspondence as a trimming reference table.

Abstract: A sensor assembly, including a sensor body and a connector. The sensor includes: a first casing, a cover plate, and a first signal piece. The connector includes: a second casing and second signal piece. The first casing defines therein a first accommodation chamber. The cover plate is installed at an end of the first casing. The first signal piece is arranged in the first accommodation chamber, and the cover plate defines therein a mounting hole in communication with the first accommodation chamber. The second signal piece is arranged on the second casing, and the second casing is arranged in the mounting hole and is in detachable connection with the cover plate. The first signal piece contacts with the second signal piece.

Abstract: A display panel and a display device are provided. A display panel includes a first substrate, a second substrate and a photo spacer disposed between the first substrate and the second substrate. The first substrate includes a first base and a first alignment layer. The first alignment layer includes a first portion and a second portion. The second portion surrounds the first portion. One end of the photo spacer is connected to the second substrate, and the other end of the photo spacer corresponds to the first portion. A distance between the first portion and the second substrate is different from a distance between the second portion and the second substrate.

Abstract: An on-device artificial intelligence (AI) device capable of interpreting a conversation between multiple speakers in real time and a method thereof are provided. The AI device can include an input module where utterance voice of a speaker is input; and a processor configured to perform AI processing to interpret the utterance voice of the speaker into a target language, wherein the processor is configured to when utterance voices are input from a plurality of speakers, preprocess the utterance voices, classify the preprocessed utterance voices by speaker, when a specific speaker is selected from the plurality of speakers, extract utterance voice of the selected specific speaker from the classified utterance voices by speaker, and interpret the utterance voice of the specific speaker into a target language and output it.

Abstract: A coil spring device includes a main body spring in which a wire rod extends in a vertical direction in a spiral shape around a coil axis, and an insulator made of rubber or an elastomer and configured to support a lower end part of the main body spring from below the main body spring, in which the insulator is provided with a support groove that extends around the coil axis and into which the lower end part of the main body spring is inserted, a support plate formed of plastic or a metal material is fixed to an inner surface of the support groove, and the lower end part of the main body spring is adhered to the support plate.

Abstract: A hose joint, includes: a guide part provided at a nipple, and provided opposed to an inner surface of a hose body having flexibility; a tightening member having a tapered surface provided opposed to an outer peripheral surface of the guide part, so as to have g diameter increasing larger gradually in an inserting direction of the hose body; a sleeve provided reciprocatably in the inserting direction of the hose body and a hose pullout direction in an opposite direction thereto along the tightening member, and in a manner capable of undergoing diameter expansion and contraction deformation in a radial direction elastically; and an elastic member provided so as to press the sleeve in the hose pullout direction along the tapered surface.

Abstract: An optical element, a vehicle light module, a vehicle light, and a vehicle. The optical element comprises a plurality of optical units. Each optical unit comprises a light incident surface (11), a light guide part (12), and a light-emitting surface (13). The light incident surfaces (11) are located on the same plane and are successively connected so as to form an optical element light incident surface. The light guide parts (12) are arranged such that light rays emitted from the optical element light incident surface can be guided so as to be emitted from the corresponding light-emitting surfaces (13). The light-emitting surfaces (13) are arranged in a preset form. The optical element is provided with the light-emitting surfaces (13) having a smaller width dimension. therefore is suitable for elongated vehicle lights of different sizes, and has the advantages of a high integration level, high optical efficiency and a small size.

Abstract: The present invention discloses a door and window switching mechanism with a stroke adjustment function, including a mounting panel, a stroke adjustment mechanism, and a transmission arm plate. The stroke adjustment mechanism includes a stroke bracket, a linear transmission component, a stroke adjustment assembly, and a mounting base. The stroke adjustment assembly consists of a transmission gear, a synchronous pulley, a driven pulley, a synchronous belt, and a sliding base. This invention is reasonable and structurally novel, featuring the ability to convert the rotational movement of the door or window into sliding movement. This allows the door or window to perform reciprocating movement along the installation surface during the opening and closing process, providing functions that prevent collision interference, reduce wear, prevent dust accumulation, and enhance aesthetics. It can be applied to vehicle doors and windows, conventional doors and windows, as well as products or electrical devices.

Abstract: A drill rod spacer assembly is formed of a plurality of spacer members each movable to a first position, and a drive transfer arrangement configured operable for receiving a drive for moving a body. The body is configured for interacting with a spacer member while moving so as to move same to its first position. The drill rod spacer mover has a detent member configured operable for supporting a respective spacer member in its first position when the body moves to interact with another spacer member. More than one drill rod spacer mover can be arranged to form a drill rod spacer mover arrangement for operable use with a drill rod storage assembly.

Abstract: A first node, a second node, and one or more third nodes for controlling a remote node via RDMA connection are provided. The first node is connected by RDMA connection to the second node and the third nodes, and the second node is connected by RDMA connection to the third nodes. The first node receives a read request for data from the second node, determines at which third node the data is available, and causes the third node to send the data to the second node. The third node is caused to send the data by receiving a RDMA write request or a send for a command from the first node. The third node sends the data by performing a RDMA write operation or a send operation in response to the command written by the first node directly to a send queue at the third node.

Abstract: A sub-block-based storage device includes a memory device configured to include a plurality of memory blocks, a work memory storing instructions, and a memory controller communicatively coupled with the memory device and the work memory and configured to manage the plurality of memory blocks. Each block of the plurality of memory blocks includes a plurality of sub-blocks having different capacities. The memory controller is configured to execute the instructions to manage used sub-blocks which store valid data from among the plurality of sub-blocks, manage free sub-blocks which are empty from among the plurality of sub-blocks, select a garbage collection source block from the used sub-blocks, select candidate destination blocks by comparing a size of valid data stored in the garbage collection source block and each of sizes of the free sub-blocks, and select a garbage collection destination block from the candidate destination blocks.

Abstract: A display panel includes pixel units, data lines, first fan-out lines located in an active area, second fan-out lines, test circuit units, and test signal lines located in a non-active area. A first fan-out line is electrically connected to a corresponding first data line. Each test circuit unit includes switches including first switches and second switches. First ends of the first switches are electrically connected to the first fan-out lines through corresponding second fan-out lines. First ends of second switches are electrically connected to corresponding second data lines through corresponding second fan-out lines. Second ends of switches electrically connected to corresponding pixel units in the same column are electrically connected to the same test signal line. Second ends of switches electrically connected to corresponding pixel units in two adjacent columns are electrically connected to different test signal lines.