Abstract: The present application provides a display module and a display device. The display module is applied to a glasses-free 3D display device including a drive circuit board, and the drive circuit board includes at least one first connection buckle; the display module includes a display panel and at least one flexible printed circuit board; the flexible printed circuit board includes a first end and a second end opposite to each other, the first end includes a plurality of bonding parts; the display panel includes a plurality of to-be-bonded parts; each of the bonding parts is bonded to a corresponding to-be-bonded part; the second end includes a second connection buckle; and the second connection buckle is clamped and electrically connected with the first connection buckle.

Abstract: Some techniques for efficiently indicating a mapping relationship from physical random access channel preambles and/or random access resource specific to one or more system information blocks in a wireless communication network are described. One example method includes transmitting, from a network node, a message that identifies a number of random access preambles that are reserved for transmissions of system information requests by mobile devices.

Abstract: A system and method for meeting the delay and reliability requirements for signal transmission using URLLC in the unlicensed band. The system and method include determining, by a wireless communication device, a channel access priority of a medium access control (MAC) protocol data unit (PDU), wherein the MAC PDU is to be multiplexed by data from a plurality of logical channels (LCHs); performing, by the wireless communication device, a channel access procedure according to the channel access priority.

Abstract: The present application provides a splicing display unit and a display screen, in order to visually eliminate the seam, improve the user's visual effect on splicing screens, and achieve a subjective visual feeling for the user as if there was no seam. The display screen includes a plurality of display modules and a plurality of optical structures, the plurality of display modules and the plurality of optical structures being closely arranged; each of the display modules includes a display area and a black edge area arranged around the display area, black edge areas of adjacent two display modules are spliced together to form a seam; one end of the first surface of the optical structure close to the seam is a first arc surface, and the first arc surface is configured to refract light emitted from the display area of the display module, and then distribute the refracted light in a front-view area corresponding to the seam.

Abstract: A method includes identifying a channel associated with a user of a content sharing platform. An indication of one or more channel related features associated with the channel is provided as input to an artificial intelligence (AI) model. The AI model is trained to predict a number of new users to obtain at least one content access level for the channel within a predetermined time of an effective date of the at least one content access level for the channel. One or more outputs of the AI model is obtained. The one or more obtained outputs comprise a predicted number of new users to obtain at least one content access level for the channel within a predetermined time of an effective date of the at least one content access level for the channel. A recommendation is provided for presentation on a client device of the user.

Abstract: A method for implementing a deep learning recommendation model (DLRM) is provided. The method includes: querying, by a host, an embedding vector corresponding to an input sparse feature of the DLRM from a first embedding table stored in CXL memory; performing, by the host, a computation for an embedding layer using the embedding vector based on the embedding vector being found in the first embedding table; querying, by a SmartSSD, the embedding vector from a second embedding table stored in the SmartSSD and performing the computation for the embedding layer using the embedding vector found in the second embedding table, based on the embedding vector not being found in the first embedding table; and obtaining, by the host, a recommendation result based on a computation result of the embedding layer and a computation result of a bottom multilayer perceptron (MLP) for an input dense feature of the DLRM.

Abstract: A defoaming composition is composed of a composition E composed of a hydrogen bond donor polyether modified polysiloxane C and a hydrogen bond acceptor X, and a composition F composed of a hydrogen bond donor fatty alcohol polyether D and a hydrogen bond acceptor Y; and the polyether modified polysiloxane C is composed of a polyorganosiloxane A and an allyl polyether B. The general structural formula of the polyorganosiloxane A is R02HSiO (Me2SiO)aSiHR02, where R0 is C1-12 alkyl, cycloalkyl or aryl, and a=10-100. The general structural formula of the allyl polyether B is CH2?CHCH2(OCH2CH2)b(OCH2CHCH3)cOH, where b=1-10, and c=10-100. The general structural formula of the fatty alcohol polyether D is R1(OCH2CH2)m(OCH2CHCH3)nOH, where R1 is C3-20 linear or branched alkyl, cycloalkyl or aralkyl; m=1-50; and n=10-100. The hydrogen bond acceptors X and Y are menthol, menthene, thymol, terpilenol, carveol or perillyl alcohol.

Abstract: This disclosure is directed to UE measurements and measurement report of serving cells, and configuration for the cell measurement and report to effectuate a fast serving-cell change during UE mobility within lower network layers, such as layer-1 or layer-2 of the wireless communication protocol stack. This disclosure is further directed to signaling procedures associated with the fast serving-cell change for the UE as triggered by the network based on the cell measurement and report, and various lower layer configurations and operations for effectuating an actual fast serving-cell change at and for the UE.

Abstract: This disclosure is directed to UE measurements and measurement report of serving cells, and configuration for the cell measurement and report to effectuate a fast serving-cell change during UE mobility within lower network layers, such as layer-1 or layer-2 of the wireless communication protocol stack. This disclosure is further directed to signaling procedures associated with the fast serving-cell change for the UE as triggered by the network based on the cell measurement and report, and various lower layer configurations and operations for effectuating an actual fast serving-cell change at and for the UE.

Abstract: A method and device for predicting a flow capacity of an ecological river channel with vegetation are provided. The method includes: obtaining ecological rive channel geographic data during dry season and ecological zone vegetation data; obtaining a layout strategy of a liquid level sensor group based on ecological zone distribution data and ecological zone vegetation data, the layout strategy of the liquid level sensor group reflects an inundation status of emergent vegetation in the ecological zone by rivers during flood season; obtaining a prediction river flow data at a node location of the ecological zone based on a corrected roughness coefficient of the ecological zone and water level data during the flood season, the node location is a position corresponding to a cross section of the water flow. A directional monitoring for a specific zone is formed with the liquid level sensor group.

Abstract: The present disclosure relates to a display device, a door body and a cabinet body. The display device includes: an information collecting assembly configured to collect environment information; a communication module configured to perform wireless-communication linking to an Internet-of-Things device, to transmit the environment information to the Internet-of-Things device, and receive multimedia information sent by the Internet-of-Things device; and a display module configured to display the multimedia information, wherein the multimedia information includes audio-video advertisement information.

Abstract: Disclosed are a hinge structure and a foldable device. The hinge structure includes: a first swing arm and a second swing arm; and a support structure, disposed between the first swing arm and the second swing arm. During rotation of the first swing arm and the second swing arm, two ends of the support structure are configured to contact the first swing arm and the second swing arm respectively, enabling the support structure to move between a first position and a second position. The posture of the support structure in the first position is different from the posture of the support structure in the second position.

Abstract: This disclosure relates generally to wireless communications and, more particularly, to systems and methods for dynamic configuration of a packet duplication convergence protocol (PDCP) configuration. In one embodiment, a method performed by a communication device includes: receiving configuration information from a communication node; and determining, for a packet duplication protocol per data radio bearer, a number of copies or a logical path based on the configuration information.

Abstract: This disclosure is directed radio link control (RLC) and media access control (MAC) protocol data unit (PDU) transmission and retransmission in wireless networks, and is particularly directed to methods and systems for preventing inconsistency in RLC transmission status reports, and for resolving such inconsistency. The disclosed solutions either proactively prevent or reduce the likelihood of the occurrence of such inconsistency at the MAC layer or provide remedial measures at the RLC layer after an inconsistent RLC report is received. The disclosed methods and systems help improving network efficiency.

Abstract: In wireless communication, a device may change, add, or handover between cells of network access for inter-cell mobility. This may include Layer 1 and/or Layer 2 (L1/L2) signaling for a user equipment (UE) moving between cells in a network. The signaling can reduce the mobility interruption time and improve robustness of a handover. The movement may be triggered by the network or the UE. A Layer 1 and/or Layer 3 (L1/L3) measurement is used for the inter-cell mobility. The mobility may be coordinated based on interactions between a centralized unit (CU) and a distributed unit (DU). The procedures can reduce interruption time and improve reliability.

Abstract: Provided is a data compaction method that includes: determining, by an electronic device, a plurality of Sorted String Table (SSTable) files on which a compaction operation is to be performed among SSTable files stored in a storage device connected to the electronic device, the data in the SSTable files stored in the storage device is stored based on a Log Structured Merge Tree (LSM-Tree) mechanism; based on receiving the plurality of SSTable files from the storage device, performing, by the electronic device, merge sorting on data in data blocks of the plurality of SSTable files based on indexes of the data in the data blocks of the plurality of SSTable files, to obtain reconstructed data blocks; and sending, by the electronic device, the reconstructed data blocks to the storage device, the reconstructed data blocks being used by the storage device to obtain reconstructed SSTable files.

Abstract: Provided are a method and apparatus for determining a transmission priority and a computer-readable storage medium. The method includes that a transmitter determines a priority of a Hybrid Automatic Repeat reQuest (HARQ) process and that the transmitter transmits at least one of a traffic channel or a control channel according to the priority of the HARQ process.

Abstract: A method is provided. The method includes: obtaining a cache value of data corresponding to an access request; and determining whether to access the data corresponding to the access request from a cache device or a storage device based on whether the cache value meets a preset condition.

Abstract: A host, a storage device, and a data processing method of the host and the storage device are disclosed. The data processing method of a storage device includes receiving a query request involving a scan-filter task from a host, determining whether a computing resource within the storage device is saturated, with respect to the scan-filter task, determining whether the storage device is needed to perform a scan-filter operation, based on determining that the computing resource within the storage device is not saturated, performing the scan-filter operation on raw data within the storage device to obtain processed data, based on determining that the storage device is needed to perform the scan-filter operation and transmitting the processed data to the host.

Abstract: In wireless communication, a device may change, add, or handover between cells of network access for inter-cell mobility. This may include Layer 1 and/or Layer 2 (L1/L2) signaling for a user equipment (UE) moving between cells in a network. The signaling can reduce the mobility interruption time and improve robustness of a handover. The movement may be triggered by the network or the UE. A Layer 1 and/or Layer 3 (L1/L3) measurement is used for the inter-cell mobility. The mobility may be coordinated based on interactions between a centralized unit (CU) and a distributed unit (DU). The procedures can reduce interruption time and improve reliability.