Abstract: A method for establishing a duplex connection for data transmission between transmission units in a communications system, wherein the transmission units each have a transmit unit and a receive unit, where the duplex connection includes oppositely directed, unidirectional transmission channels, by which a communications link for each data transmission between respective transmit and receive units of the transmission units is established, during a synchronization phase transmit units independently emit in a periodically repeated manner a first synchronization signal respectively, where following detection and synchronization with the respective first synchronization signal by the respective receive unit, the respective transmit unit belonging to the same transmission unit is instructed to emit at least once a second synchronization signal respectively, where a changeover to data transmission is implemented once the second synchronization signal respectively has been detected at least once by respective receive

Abstract: A repeater configured to be connected to a network is provided. The repeater includes an uplink wireless transmission interface, a downlink wireless transmission interface, and a processing unit. The uplink wireless transmission interface is configured to establish an external wireless connection with the network. The downlink wireless transmission interface is configured to perform data transmission with the uplink wireless transmission interface and has an external wireless transmission function. The processing unit is configured to turn off the external wireless transmission function of the downlink wireless transmission interface when the connection between the uplink wireless transmission interface and the network is disconnected.

Abstract: Provided is a wireless communication terminal that communicates wirelessly. The wireless communication terminal includes: a transceiver; and a processor. The processor receives a first PLCP Protocol Data Unit (PPPU) through the transceiver, and transmits a second PPDU based on Basic Service Set (BSS) information indicated by the first PPDU.

Abstract: Provided is a wireless communication terminal that communicates wirelessly. The wireless communication terminal includes: a transceiver; and a processor. The processor receives a first PLCP Protocol Data Unit (PPPU) through the transceiver, and transmits a second PPDU based on Basic Service Set (BSS) information indicated by the first PPDU.

Abstract: A transmission apparatus, includes a plurality of input circuits, N+1 switches (N is a natural number of 2 or larger), and a plurality of output circuits, wherein a first input circuit divides inputted data into partial data in a predetermined length, and distributes to the N+1 switches continuous M pieces of partial data (M is a natural number of 2 or larger and N or smaller) and horizontal parities calculated over the M pieces of partial data for every the continuous M pieces of partial data obtained from the division, and a first output circuit restores the data inputted to the first input circuit and outputs the restored data using at least any of the M pieces of partial data and the horizontal parities which are distributed by the first input circuit to the N+1 switches and are transferred by the N+1 switches.

Abstract: This application provides a resource scheduling method, an apparatus, and a system, and relates to the field of communications technologies, to meet scheduling requirements of data transmitted on different logical channels. The method includes: sending, by a terminal device, a BSR to an access network device, where the BSR carries first indication information, and the first indication information is used by the access network device to determine a scheduling mode corresponding to a first logical channel; receiving, by the terminal device, a first uplink grant resource sent by the access network device, where the first uplink grant resource is scheduled by the access network device based on the BSR in the scheduling mode; and sending, by the terminal device, to-be-sent data on the first logical channel to the access network device by using the first uplink grant resource.

Abstract: The present disclosure discloses a method for D2D communication, a terminal device and a network device, where the method includes: determining, by a terminal device, a resource pool for data transmission from a plurality of resource pools according to a transmission mode used by the terminal device and whether the terminal device has a sensing capability, where different resource pools in the plurality of resource pools are used for data transmission by different types of terminal devices, and at least one of the following information of the different types of terminal devices is different: a transmission mode in use, a supported version of a communication protocol, and whether or not there is the sensing capability; performing, by the terminal device, data transmission using a time-frequency resource in the resource pool. Therefore, different types of terminal devices can transmit data together in a communication system and mutual interference is reduced.

Abstract: A network capacity adjustment is described herein. The network device determines an experience blocking ratio of a cell based on a quantity of concurrent users of the cell and a quantity of equivalent channels of the cell, determines an experience blocking ratio of a cell based on a traffic volume distribution model in the cell, or determines an experience blocking ratio of a cell based on an actual experience rate of each session and a required single-user experience rate. The quantity of equivalent channels of the cell are adjusted based on the experience blocking ratio of the cell. A network capacity of the cell is adjusted based on the experience blocking ratio of the cell, so that an adjusted network capacity of the cell can satisfy user experience.

Abstract: A network hub is provided for an onboard network system. The onboard network system includes first and second networks for transmission of first-type and second-type frames following first and second communication protocols. The network hub includes a receiver that receives a first-type frame. A processor determines whether or not the first-type frame received by the receiver includes first information that is a base for a second-type frame to be transmitted to the second network, to obtain a determination result, and selects a port to send a frame based on the first-type frame based on the determination result. A transmitter sends the frame based on the first-type frame to a wired transmission path connected to the port selected by the processor based on the first-type frame received by the receiver.

Abstract: A method includes a second provider edge (PE) device sending, to a first PE device, a media access control (MAC) route learned from a customer edge (CE) device, wherein the first PE device generates a MAC forwarding entry based on the MAC route, wherein the first PE device may forward, based on the MAC forwarding entry using the CE device, a packet whose destination MAC address is the CE device or a MAC address of a terminal device accessing the CE device, and wherein an outbound interface identifier included in the MAC forwarding entry is an identifier of an interface connected to the CE device.

Abstract: This application provides a beam management method, a terminal device, and a network device. The method includes: measuring, by a terminal device, a beam of a network device; and sending, by the terminal device, an identifier of a first beam to the network device, where the first beam is a beam on which a beam failure occurs or a beam meeting a first condition, and the identifier of the first beam is sent to the network device by using physical layer control signaling or by using MAC layer control signaling.

Abstract: In a beamforming system, each User Equipment (UE) transmits an uplink probe. Each Base Station (BS) carries out a spatial search of the uplink probes, estimates an Angle of Arrival (AoA) of the uplink probe received from each UE, and estimates the uplink channel frequency response on an uplink dedicated beam formed toward the UE's AoA. The BS transmits a reference signal to each UE on a downlink dedicated beam formed toward the UE's AoA, from which the UE estimates the downlink frequency response. The UE forms channel impulse response matrices for the uplink and the downlink, using the estimated uplink and downlink channel frequency responses. The BS uses the channel impulse response matrices to form downlink and uplink dedicated beams that put boresight of the beams toward the AoA of one UE and put nulls toward the AoAs of the other UEs.

Abstract: An embodiment of the present invention relates to a method for performing sidelink communication in a wireless communication system, the method comprising the steps of: receiving, by an in-coverage terminal, predetermined information relating to which parameters, among sidelink parameters, are valid for an out-coverage terminal; and performing sidelink communication with the out-coverage terminal, using the parameters having been determined to be valid according to the predetermined information. The UE is capable of communicating with at least one of another UE, a UE related to an autonomous driving vehicle, the BS or a network.

Abstract: An abnormality detection method is provided. The abnormality detection method is for detecting an abnormality that may be transmitted to a bus in an on-board network system. The on-board network system includes a plurality of electronic controllers that transmit and receive messages via the bus in a mobility entity. In the abnormality detection method, for example, a gateway transmits identification information to a server and receives a response determining a unit time. An operation process is performed using feature information based on a number of messages received from the bus per the determined unit time and using a model indicating a criterion in terms of a message occurrence frequency. A judgment is made as to an abnormality according to a result of the operation process.

Abstract: Disclosed is a base station in a wireless communication system. Each base station in wireless communication comprises: a communication module; and a processor. The processor generates a hybrid automatic repeat request (HARQ)-ACK codebook comprising one or more bits and indicating whether or not reception of a channel or signal is successful, and transmits the HARQ-ACK codebook to the base station.

Abstract: A method can include obtaining telecommunication data corresponding to a first cell site. The first cell site can have a communication capacity within a first coverage region. The first coverage region can include a set of subregions. The method can further include obtaining condition data corresponding to a set of focus areas within the first coverage region. The set of focus areas can have at least one emergency condition. The method can further include generating, based on the telecommunication data and the condition data, a first respective classification for each of the subregions.

Abstract: Embodiments of this application provide a data processing method and apparatus. The method includes: receiving, by a first device, control information, where the control information includes information about a first resource and information about a HARQ process; receiving, by the first device on a second resource, data associated with the control information; and placing the data into a buffer of a HARQ process of a HARQ entity associated with the first resource. The associated data is sent on the plurality of resources. The initially transmitted data and the retransmitted data are stored in the buffer of the specified process of the specified HARQ entity according to an indication of the control information, to improve a decoding success rate.

Abstract: The present disclosure relates to example data transmission methods, user equipment, and access network devices in an LAA-LTE system. An example data receiving method includes determining, by user equipment, first information of a first cell. The user equipment determines a first subframe based on the first information, where a downlink data transmission length of the first subframe is less than a first threshold. The user equipment then determines a data transmission characteristic of the cell in the first subframe based on a preset condition, so as to receive, based on the data transmission characteristic, data including the first subframe. In doing so, a data transmission characteristic of a base station or a terminal is standardized, and a reference signal such as a DRS can be correctly identified.

Abstract: A physical layer (PHY) is coupled to a serial, differential link that is to include a number of lanes. The PHY includes a transmitter and a receiver to be coupled to each lane of the number of lanes. The transmitter coupled to each lane is configured to embed a clock with data to be transmitted over the lane, and the PHY periodically issues a blocking link state (BLS) request to cause an agent to enter a BLS to hold off link layer flit transmission for a duration. The PHY utilizes the serial, differential link during the duration for a PHY associated task selected from a group including an in-band reset, an entry into low power state, and an entry into partial width state.

Abstract: A system that can determine states of human activity and transitions between those states using wireless signal data. A machine learning model such as a Hidden Markov Model (HMM) may be trained to determine transitions between states of human activity (e.g., static, slow movement, fast movement) using information from wireless signal data, such as channel state information gathered from Wi-Fi signal beacons. Depending on the state of the human activity the system may then cause certain commands to be executed corresponding to the human activity such as turning on a certain configuration of lights, playing certain music, or the like.