Abstract: In a communication method, after a first communication apparatus sends first information to request a service, the first communication apparatus may receive data of the service from N functional entities, where the first information is used to determine the N functional entities that provide the service. In other words, the service requested by the first communication apparatus may be provided by the N functional entities. The N functional entities may be deployed on (and/or connected to) one or more communication apparatuses, that is, the data for the service requested by the first communication apparatus can be provided through the one or more communication apparatuses. Therefore, in a communication system, the one or more communication apparatuses can provide services based on requests of other communication apparatuses.

Abstract: A method includes allocating, by an access network device, a first temporary identifier to a terminal; and sending a first message to an access and mobility management function network element. The first message includes the first temporary identifier. The first temporary identifier is useable to identify the terminal in a message from the access network device to a first core network element.

Abstract: This invention is in the field of medicinal pharmacology. In particular, the present invention relates to pharmaceutical agents which function as inhibitors of sodium-glucose cotransporter (SGLT) activity. The invention further relates to methods of treating and/or ameliorating symptoms related to cystic fibrosis (CF), comprising administering to a subject (e.g., a human patient) a composition comprising one or more pharmaceutical agents which function as inhibitors of SGLT activity.

Abstract: The present disclosure discloses a top cover assembly and a battery. The top cover assembly includes a cover plate and a fitted assembly. The cover plate has a through hole extending through a first side and a second side, the first side and the second side being opposite sides of the cover plate. The fitted assembly includes a pole, a first insulation member, and a metal sleeve. The pole passes through the through hole and protrudes from the first side. The first insulation member is disposed around the pole and located at the first side of the cover plate. The metal sleeve is disposed around the pole and at least partially located at the first side of the cover plate. The metal sleeve is connected to the first insulation member. The first insulation member is disposed between the metal sleeve and the pole.

Abstract: A communication method and apparatus are provided. The method includes: A gateway device receives a first request from a terminal, where the first request is for requesting to provide services of M network slices for the terminal, and M is a positive integer greater than or equal to 2. After determining first allowed NSSAI, the gateway device may send the first allowed NSSAI to the terminal. The first allowed NSSAI includes identifiers of N network slices in the M network slices, the N network slices include a network slice allowed by different core network devices to provide a service for the terminal, and N is a positive integer greater than or equal to 2 and less than or equal to M.

Abstract: A self-managed DRAM module and method. The module includes a plurality of DRAM chips; and a controller chip configured to compress a data chunk received from a host according to a process that includes: compressing the data chunk to generate a plurality of compression results, wherein each compression result includes a different block size; identifying an optimal compression result, wherein the optimal compression result has a lowest block size among the plurality of compression results that achieves a threshold compression; and storing the optimal compression result in the plurality of DRAM chips.

Abstract: A communication method and a related device are provided. When an integrated access and backhaul (IAB) node supports a mobile IAB mode and an IAB mode, the IAB-node, a donor node, or a core network element is used as a party for determining an operating mode of the IAB-node, allowing flexible selection between the two modes to improve communication flexibility. In the method, the IAB-node determines that a radio resource control (RRC) connection to the donor node has not been established, or that the RRC connection has been established and that its operating mode is the mobile IAB mode, or that the RRC connection has been established; the IAB-node determines that its operating mode is the IAB mode from the mobile IAB mode and the IAB mode.

Abstract: In accordance with an embodiment, a method includes: receiving downlink control information comprising at least one piece of information of the following: an identifier of a first slice, an identifier of a first slice group, a random access resource configuration index corresponding to the first slice, or a random access resource configuration index corresponding to the first slice group; and receiving a random access response in response to a second slice or a second slice group that the terminal requests to access corresponding to the at least one piece of information comprised in the downlink control information, where the random access response corresponds to the first slice, the first slice group, the random access resource configuration index of the first slice, or the random access resource configuration index of the first slice group.

Abstract: A communication method includes: receiving, from a terminal device, a first request message for requesting to set up a first PDU session associated with a first network slice, where the first request message includes an identifier of the first network slice and an identifier of a second network slice; determining, based on configuration information and in response to the first request message, that a first cell is located outside a service area of the second network slice, and that there is at least one network slice with an available resource in the first cell; determining, a third network slice from the at least one network slice; establishing a second PDU session using a resource configured for the third network slice in the first cell, where the second PDU session provides the terminal device with a service provided by the first PDU session.

Abstract: Disclosed are a real-time fluorescence monitoring cryo-focused ion beam processing device and a corresponding method. The device includes a vacuum chamber, an ion beam system, and a fluorescence imaging system. A cryo stage is provided in the vacuum chamber and is used for placing a frozen sample, in which a fluorescent marker is provided. The ion beam system is disposed on the vacuum chamber and directed to the frozen sample for ion beam processing the frozen sample. The fluorescence imaging system is arranged on the vacuum chamber and located below the frozen sample and is used for performing real-time optical imaging on the frozen sample. During processing, the fluorescence imaging system emits excitation light to the frozen sample to excite the fluorescent marker in the sample to emit fluorescence, which is received by the fluorescence imaging system to form an image of a target structure in the frozen sample.

Abstract: Embodiments of this application provide a communication method and apparatus, and a storage medium. The communication method includes: determining a target buffer status report (BSR) format based on a result of comparison between a first identifier and a first value, where the first identifier is a largest logical channel group (LCG) identifier in LCG identifiers of LCGs having buffered data; and generating a BSR based on the target BSR format. Uplink transmission resources can be properly used to report a BSR.

Abstract: This application provides a method of obtaining information. According to the method, a mobile relay device moves to a permitted area in which the mobile relay device is allowed to use a relay function, where the permitted area is a cell covered by a donor base station. The mobile relay device obtains, in the permitted area, a physical cell identifier (PCI) of a relay cell through which the relay function is provided for a terminal device, where the relay cell is a cell accessed by the terminal device. In this way, the mobile relay device can obtain the PCI, and provide a relay service for the terminal device served by the mobile relay device.

Abstract: In accordance with an embodiment, a method includes receiving node configuration information and a first beam set of a first node from the first node; and forwarding the first beam set to form a second beam set of a second node based on the node configuration information, wherein the first beam set and the second beam set each comprise at least one beam.

Abstract: In one embodiment, an autonomous vehicle includes one or more processors and a non-transitory computer-readable medium storing instructions that, when executed by the one or more processors, cause the one or more processors to receive local scene data, input the local scene data into a data-driven planner and an iterative trajectory optimization planner, generate, using the data-driven planner, a DDP output that includes a DDP trajectory based at least in part on the local scene data and one or more lead vehicle labels, determine a lead vehicle from the one or more lead vehicle labels, input the DDP output and the lead vehicle into the iterative trajectory optimization planner, where the DDP output and the lead vehicle are used as costs of a plurality of costs of a cost function that is minimized by the iterative trajectory optimization planner, and generate, using the iterative trajectory optimization planner, an output trajectory.

Abstract: In one embodiment, an autonomous vehicle includes one or more processors. The autonomous vehicle also includes a non-transitory computer-readable medium storing instructions that, when executed by the one or more processors, cause the one or more processors to receive local scene data, input the local scene data into a data-driven planner and an iterative trajectory optimization planner, generate, using the data-driven planner, a DDP output that includes a DDP trajectory based at least in part on the local scene data, input the DDP output into the iterative trajectory optimization planner, where the DDP output is used as one or more costs of a plurality of costs of a cost function that is minimized by the iterative trajectory optimization planner, and generate, using the iterative trajectory optimization planner, an output trajectory.

Abstract: A communication method to determine, based on information sent by a distributed unit (DU) connected to a mobile integrated access and backhaul (mIAB) node, an identifier of a first central unit (CU) connected to a mobile terminal (MT) in the mIAB node, and implement data transmission of the mIAB node in a topology of the first CU based on the identifier of the first CU. In the method, the DU determines first information, where the first information is used to determine the identifier of the first CU, the DU connected to the first CU includes a first cell, the first cell is a cell supporting mIAB node access, and the identifier of the first CU is used to set up data transmission in the topology of the first CU for an mIAB node accessing the first cell; and the DU sends the first information.

Abstract: A communication method and a related apparatus are provided, relating to the field of communication technologies. The communication method includes: A relay node sends first information to a first donor node when a first triggering condition is met, where the first information includes an outcome of setting up a first F1 interface between the relay node and a target donor node. In this method, the first information is sent to the first donor node, so that the first donor node learns that the relay node does not set up an F1 interface with a second donor node indicated by the first donor node, and/or the first donor node learns that the relay node sets up an F1 interface with a target donor node configured by a network management system.

Abstract: A self-managed DRAM module and method. A controller chip is configured to handle data access requests according to a process that includes: searching a first tier for an uncompressed cache data block; in response to a first tier hit, serving the uncompressed cache data block to service the data access request; in response to a first tier miss, searching a second tier for a compressed cache data block; in response to a second tier hit, decompressing the compressed cache data block to generate a decompressed cache data block, and inserting the decompressed cache data block into the first tier to service the data access request; and in response to a second tier miss, reading a compressed data block from DRAM, decompressing the compressed data block to generate a decompressed data block, and inserting the decompressed data block into the first tier to service the data access request.

Abstract: Disclosed by the present disclosure are a method and apparatus for producing fine rubber powder from waste tires, which belong to the field of rubber powder production. To solve the problem of high iron impurity content in rubber powder after existing mechanical pulverization, the method for producing fine rubber powder from waste tires sequentially includes: Step 1: separating a waste tire between a sidewall and a shoulder to obtain a tire annular band; and Step 2: applying a water jet to the tire annular band by a crushing water jet cutter to cut it into a flocculent rubber structure; and grinding the flocculent rubber structure on the surface of the tire annular band by a grinding assembly into fine rubber powder.

Abstract: The present disclosure relates to communication methods, apparatuses, mediums, and chips. In one example communication method, a target access network device receives first information, where the first information indicates a relationship between a first network slice in a first network and a second network slice in a second network, and the first network is different from the second network. The target access network device performs access control from a terminal device to the target access network device based on at least the first information.