Abstract: The present disclosure provides a data processing method for a direct memory access (DMA) controller. The method includes acquiring feature information of two or more original output feature maps, and generating DMA read configuration information and DMA write configuration information of the original output feature maps based on the feature information of each original output feature map; and reading input data from the original output feature map based on the DMA read configuration information of the original output feature map, and storing the read input data to a target output feature map based on the DMA write configuration information of the original output feature map for each original output feature map.

Abstract: An arithmetic device for a neural network includes a controller and multiply-accumulate unit groups. A multiply-accumulate unit group includes a filter register and a plurality of computing units, and the filter register is connected to the plurality of computing units. The controller is configured to generate control information and transmit the control information to the plurality of computing units. The filter register is configured to cache filter weighted values of multiply-accumulate operations to be performed. The plurality of computing units is configured to cache input feature values of the multiply-accumulate operations to be performed and perform the multiply-accumulate operations on the filter weighted values and the input feature values according to received control information.

Abstract: Embodiments of the present invention disclose a communication method, an access network device, and a core network device. The method includes: sending, by a source access network device, to a core network device a handover message for a handover of one or more sessions of a terminal device from the source access network device to a target access network device, wherein the handover message comprises information about the target access network device and identifier information of the one or more sessions; and sending, by the core network device, a response message of the handover message to the source access network device, wherein the response message of the handover message comprises indication information indicating a reason that a session of the one or more sessions is not accepted, wherein the reason is associated with a slice corresponding to the session.

Abstract: A method of manufacturing a super junction structure includes etching a material to define a trench, wherein the trench has a tapered profile. The method further includes implanting dopants into sidewalls and a bottom surface of the trench to define a doped region, wherein the doped region surrounds the trench. The method further includes depositing an undoped material into the trench. The method further includes performing a thermal process, wherein the thermal process drives the dopants from the doped region into the undoped material to form a conductive pillar in the trench.

Abstract: The present disclosure provides a deformation driving device for flexible display panel, the deformation driving device includes a photodeformable element t, and the flexible display panel includes a display surface and a back surface opposite to the display surface. The photodeformable element has a binding surface for being attached to the flexible display panel's back surface, and and is capable of deforming under irradiation of light with a predetermined wavelength to bend or flatten.

Abstract: This application provides a communication method, a network device, and a terminal. The communication method includes: obtaining, by a first network device, a first AMBR of a PDU session, where the first AMBR is an AMBR of a flow that is served by a second network device in the PDU session, the first network device is a master node serving a terminal, and the second network device is a secondary node serving the terminal; sending, by the first network device, first information to the second network device, where the first information includes the first AMBR, so that the second network device provides, based on the first AMBR, the PDU session service for the terminal. The communication method, the network device, and the terminal provided in this application help ensure a session-level aggregate maximum rate requirement in a dual connectivity scenario.

Abstract: The present disclosure relates to methods for transmitting a scheduling request (SR). One example method includes sending, by an access network device, an SR configuration to a terminal device, where the SR configuration includes SR parameters corresponding to a plurality of wireless physical layer parameter numerologies. When there is to-be-sent uplink data, the terminal device selects, according to a preset policy, one SR parameter corresponding to a logical channel (LCH) on which the uplink data is located, and transmits an SR on an SR resource corresponding to the selected SR parameter to request an uplink grant. Further, the terminal device requests the uplink grant with reference to a maximum number of SR transmission on the LCH or a maximum number of SR transmission of the terminal device in the SR configuration.

Abstract: Examples described relate to classifying software. In an example, a determination may be made whether a software installation directory includes a file to run software. In response to a determination that the software installation directory includes a file to run the software, information may be extracted from text data associated with the software installation directory using named entity recognition technique. The files in the software installation directory may be classified as one of a primary file, a secondary file, or a tertiary file based on respective relevance scores of the files, wherein the respective relevance scores may represent respective relevance of the files against the extracted information.

Abstract: This application provides an RNA allocation method, a network device, and a terminal. The method includes receiving, by a first network device, a second message sent by a second network device, where the second message carries RPA information of the second network device, and the RPA information is used to identify an RPA.

Abstract: The present disclosure relates to communication methods, base stations, terminal devices, and systems. One example method includes sending, by a master base station, a first request message to a secondary base station, where the first request message instructs the secondary base station to switch a first Quality of Service (QoS) flow of a first session from the secondary base station to the master base station, and the first session is a session corresponding to a terminal device, and receiving, by the master base station, a first response message from the secondary base station, where the first response message responds to the first request message.

Abstract: Example communication methods and apparatus are described. One example method includes sending a handover request message to a target base station, where the handover request message is used to instruct to hand over a first session of a terminal device from the source base station to the target base station. The handover request message includes first information. The first information includes information about at least one quality of service (QoS) flow in the first session. The first session is a session corresponding to the terminal device. The source base station receives a handover request response message from the target base station, where the handover request response message includes second information. The second information is used to indicate that the target base station accepts a first QoS flow in the first session, and the at least one QoS flow includes the first QoS flow.

Abstract: A stopper includes a head portion sized and configured to be coupled to an upper platen of a chemical-mechanical planarization system and a stopper leg sized and configured to direct a flow of liquid slurry applied to an upper planar surface of the upper platen substantially away from a lower surface of the upper platen.

Abstract: A communication method and a communications device are provided. In the method, a first base station receives a first message; the first base station determines, based on the first message, whether to allocate a new RNA to a terminal in an inactive state; and the first base station allocates a new RNA to the terminal in the inactive state after determining to allocate a new RNA to the terminal in the inactive state, so as to reduce signaling overheads; and/or the first base station receives a second message; the first base station determines a communication status of the terminal in the inactive state based on the second message; and after determining that the terminal needs to change the communication status, the first base station controls the terminal to change the communication status.

Abstract: A calculation unit, a calculation system and a control method for calculation unit are provided. The calculation unit includes a data interface configured to be connected to a data bus; a data storage component configured to store target data received by the data interface; a first configuration interface configured to receive channel information, where the channel information is used to indicate a quantity of channels included in the data interface; and an operation control component. The operation control component is configured to perform following operations: determining that the data interface includes M channels according to the channel information; obtaining the target data from the data storage component, where the target data includes sub-data corresponding to each channel in the M channels, and performing a data operation according to the sub-data corresponding to each channel in the M channels.

Abstract: This application provides a handover method that is based on DC, including: sending, by a source base station, a handover request to a target base station, where the handover request carries a target base station user equipment (UE) aggregate maximum bit rate (UE-AMBR) and/or network slice information of UE; and receiving, by the source base station, a handover request feedback sent by the target base station. A UE capability is coordinated between the source base station and the target base station, so that it is ensured that a technical effect of the UE capability is not exceeded during a DC-based handover. The coordination of the UE capability may be implemented by the source base station, or may be implemented by the target base station.

Abstract: Example communication methods and an access network device are described. One example method includes sending a first message to a second access network device by a first access network device, where the first message carries a quality of service (QoS) flow identification (QFI) for a split bearer corresponding to the first access network device and a QoS parameter corresponding to the QFI. The second access network device receives the first message from the first access network device, where the first message carries the QFI for the split bearer corresponding to the first access network device and the QoS parameter corresponding to the QFI. The second access network device sends a second message to the first access network device, where the second message is a response to the first message. The embodiments of this application are used to implement QoS control.

Abstract: This application provides a communication method, a network device, a terminal device, and a system. The communication method includes: obtaining, by a RAN device, information about at least one RAN network slice identifier; and sending, by the RAN device, first information to a terminal device, where the first information includes the at least one RAN network slice identifier, and there is a correspondence between the at least one RAN network slice identifier and a core network network slice identifier. In embodiments of this application, RAN network slice identifier information is used for communication, to improve communication efficiency.

Abstract: A cell reselection method includes generating, by a radio access network device, cell reselection information, wherein the cell reselection information includes an identifier of at least one carrier frequency and an identifier of a network slice supported by each of the at least one carrier frequency. The cell reselection method further includes sending, by the radio access network device, the cell reselection information to a terminal device, wherein the cell reselection information is useable by the terminal device for cell reselection.

Abstract: A handover control method and an apparatus are provided. The method may include sending, by a source base station to a terminal device, a message for instructing handover, where the message includes information about at least one downlink first unacknowledged SDU of a PDCP. The method may also include forwarding, by the source base station to a target base station during the handover of the terminal device, PDCP SDUs of at least one source DRB that are not correctly received by the terminal device in sequence. Furthermore, the method may also include retransmitting, by the target base station to the terminal device after the terminal device completes the handover to access the target base station, downlink PDCP SDUs of the at least one source DRB that are not correctly received by the terminal device and that are numbered from an SN indicated by the information about the at least one downlink first unacknowledged SDU of the PDCP.

Abstract: The predicted explosive growth in the number of wireless devices and mobile applications utilizing wireless networks makes it time for engineers to face the high network densification challenge where massive numbers of terminal devices (TDs) coexist and require both high-rate and low-latency wireless data transmissions. We describe a multiple access point (AP) Time-Reversal Division Multiple Access (TRDMA) downlink system that utilizes the natural spatial and temporal focusing properties of Time Reversal (TR) based communications, where the interference to unintended receivers is automatically at least partially mitigated. As a result, in some implementations, the TRDMA system can achieve full or nearly-full spectrum reuse without any coordination among APs. The performance of the TRDMA system is investigated in both an open access model where an AP is open to all the TDs and a closed access model where an AP is only open to specific TDs.