Abstract: This application provides a resource indication method, a terminal device, and a network device. The method includes: receiving, by the terminal device, the first indication information, and determining time domain positions of demodulation reference signals (DMRSs) based on the mapping type of the physical shared channel and with reference to a position index of the last symbol occupied by the physical shared channel or a quantity of symbols occupied by the physical shared channel in the resource unit, where the position index of the last symbol occupied by the physical shared channel in the resource unit corresponds to the first type, and the quantity of symbols occupied by the physical shared channel in the resource unit corresponds to the second type.

Abstract: Provided are a method and device for receiving remaining minimum system information (RMSI) in a wireless communication system. User equipment (UE) receives a synchronization signal (SS)/physical broadcast channel (PBCH) block from a network, receives information about an offset between the SS/PBCH block and the RMSI from the network, and receives the RMSI from the network on the basis of the information about the offset between the SS/PBCH block and the RMSI. The offset between the SS/PBCH block and the RMSI can be based on the numerology having a smaller subcarrier interval among the numerology of the SS/PBCH block and the numerology of the RMSI, and, more generally, the numerology having the smaller subcarrier interval among the numerology of the SS/PBCH block and the numerology of the RMSI can be the numerology having the smallest subcarrier interval in each frequency range (FR).

Abstract: A path MTU size determination system includes a source host device that generates and transmits a path MTU size discovery packet. A plurality of switch devices in the path MTU size determination system provide a network path that couples a destination host device to the source host device. Each of the switch devices is configured to receive the path MTU size discovery packet transmitted by the source host device, provide a switch identity of that switch device and a MTU size supported by that switch device in a MTU size reporting header included in the MTU size discovery packet, and forward the path MTU size discovery packet. One of the switch devices will operate to determine a lowest MTU size in the MTU size reporting header, and another of the switch devices will cause the source host device to provide the lowest MTU size as its path MTU size.

Abstract: A terminal apparatus for communicating with a base station apparatus receives an RRC connection reconfiguration request message including a Data Radio Bearer (DRB) configuration from the base station apparatus. The DRB configuration includes a DRB identity and a PDCP entity configuration corresponding to the DRB identity. PDCP entity configuration information includes one of a PDCP entity configuration for E-UTRA and a PDCP entity configuration for NR. A PDCP entity is established in accordance with the PDCP entity configuration information.

Abstract: A method is described for generating and transmitting a frame by a station. The method includes determining a bandwidth of a frame to be transmitted by the station; generating a long training field for the frame, wherein the long training field includes a set of pilot tones located at a set of subcarrier positions, wherein when the bandwidth of the frame is 10 MHz, the set of subcarrier positions include four subcarrier positions and the four subcarrier positions are set as {?21-?1,?7-?2,7+?3,21+?4} where ?1, ?2, ?3, and ?4 are odd values, and wherein when the bandwidth of the frame is 20 MHz, the set of subcarrier positions include six sub carrier positions, including {?53-?1,?25-?2,?11-?3, 11+?4,25+?5,53+?6} where ?1, ?2, ?3, ?4, ?5, and ?6 are odd values.

Abstract: Systems, apparatuses, and methods for implementing beamforming techniques to choose transceivers in a wireless mesh network are disclosed. Multiple transceivers are deployed in a wireless virtual reality (VR) environment to provide a high quality path to send an encoded video stream from a graphics source to a head-mounted display (HMD) receiver. When a master transceiver connected to the graphics source does not have a line of sight connection to the HMD, the master transmitter sends the encoded video stream on a path though one or more passive transceivers that have good line of sight connections on the path to the HMD. To determine the quality of the wireless links between the various transceivers and the HMD, beamforming training procedures are performed. These beamforming training procedures are implemented to determine how to route the encoded video stream from the master transceiver to the HMD.

Abstract: A beam training method and a related device are disclosed. The method includes: sending, by a first communications device, sidelink control information (SCI) to a second communications device, where the SCI is used to instruct the first communications device to send at least one channel state information-reference signal (CSI-RS) to the second communications device; and sending, by the first communications device, the at least one CSI-RS to the second communications device based on the SCI, where the at least one CSI-RS is used by the second communications device to determine that a beam corresponding to a CSI-RS with highest signal strength in the at least one CSI-RS is a beam for communication between the second communications device and the first communications device. The CSI-RS used for beam training is dynamically sent based on the instruction of the SCI.

Abstract: Provided is a communication apparatus that can perform first communication in a network during a first period of a predetermined length having a predetermined cycle, and, in the network, can set a second period different from the first period based on the first communication and perform second communication during the second period while continuing the first communication. In a case where the second communication is to be ended, the communication apparatus notifies the partner apparatus of the second communication that the second communication is to be ended, and performs control so as to end the second communication with the partner apparatus according to transmission of the notification.

Abstract: Systems and methods for point to multipoint communications are provided. In one example, a system includes one or more modal antennas. Each modal antenna is configured to operate in a plurality of modes. The system can include a transceiver configured to communicate with a plurality of client devices over a wireless communication medium via the one or more modal antennas over a plurality of frames. The system can include one or more control devices configured to control the operation of the one or more modal antennas. For each of the plurality of frames communicated to one of the plurality of client devices, the one or more control devices are configured to determine a selected mode of the plurality of modes for the one or more modal antennas and configure the one or more modal antenna in the selected mode for the corresponding frame of the plurality of frames.

Abstract: A User Equipment (UE) measures the signal quality of a dedicated downlink reference signal transmitted by a Base Station (BS) to the UE. If the signal quality is below a threshold, the UE initiates a measurement procedure to determine a target handover BS. The UE sequentially transmits an uplink reference signal on each of UE's beams. The BSs estimate the Angle of Arrival (AoA) of any received uplink reference signal, form a dedicated downlink beam pointed toward the AoA and transmit an acknowledgment to the UE on the corresponding beam. The UE estimates the signal quality of the received acknowledgements on the different UE beams, and transmits a handover message on the UE beam on which the acknowledgement with the highest signal quality is received The acknowledgement comprises a preamble, spread using a pseudo-noise sequence specific to each BS.

Abstract: A hotspot comprises WAN interfaces, each WAN interface coupleable with a wireless WAN, at least two wireless WANs including at least two cellular WANs, at least two WAN interfaces including two ports configured to receive two SIMs, each SIM for connecting over a cellular WAN, each WAN interface disposed in or coupled to a housing; a LAN interface coupleable with a network-enabled device over a LAN, the LAN interface disposed or coupled to the housing; and an aggregator configured to use a distribution protocol to identify two or more WAN interfaces in response to a data connection request; receive outgoing data from the device; partition the outgoing data for transfer over the two or more WAN interfaces; transfer the partitioned outgoing data to the two or more WAN interfaces; receive incoming data from the two or more WAN interfaces; and transfer the directed incoming data to the device.

Abstract: A method includes: configuring, by a base station, at least two types of random access resources, where the at least two types of random access resources include a first-type random access resource and a second-type random access resource; and different types of random access resources are in a one-to-one correspondence with different sending beam forms of a terminal; or the first-type random access resource is associated with resources of different downlink signals, and the second-type random access resource is not associated with the resources of the different downlink signals.

Abstract: The present application relates to a wireless communication system. More specifically, the present application relates to a method and a device for semi-persistent scheduling transmission using HARQ process IDs. Specifically, a sequential order in a HARQ process ID set is used. The communication device is capable of communicating with at least one of another device, a device related to an autonomous driving vehicle, a base station or a network.

Abstract: A terminal is disclosed that includes a processor that determines a cyclic shift to be applied to a demodulation reference signal, based on a plurality of candidates configured by higher layer signaling and based on a field, for indicating a physical uplink control channel (PUCCH) resource for an uplink control information (UCI), included in a downlink control information. The terminal further includes a transmitter that transmits the UCI using a PUCCH format, in which the determined cyclic shift is applied to the demodulation reference signal and to which an orthogonal code having a sequence length less than 5 is applied, where the processor controls a frequency-domain orthogonal cover code (freq-domain OCC) to be applied for the PUCCH format, and where a number of bits of the UCI is more than 2. In other aspects, a base station and another terminal are also disclosed.

Abstract: A method of compensating for potential interruptions in a wireless spatially selective connection over which data at a first compression level is transmitted from a host device to a client device involves determining (S32) that an interruption to the wireless spatially selective connection over which data is being transmitted at a first compression level to a client device is starting or is due to start, compressing (S3Y3) the data at a second compression level that is higher than the first compression level, and forwarding (S34) the data compressed at the second compression level to a transmitting component for wireless spatially non-selective broadcast while the interruption to the spatially selective connection occurs. Determining that the interruption is due to start may involve analysing a historical record of previous interruptions to determine a periodicity of the previous interruptions or receiving information from the transmitting component that an interruption is expected to occur.

Abstract: A data transmission method includes: receiving, by a user equipment (UE), first indication information from a wireless access device, where the first indication information is activation indication information or deactivation indication information; and when the first indication information is the activation indication information, executing, by the UE, a processing operation; or when the first indication information is the deactivation indication information, stopping, by the UE, the processing operation; where the processing operation includes at least one of a duplication operation and a switching operation; the duplication operation means transmitting same data through a plurality of links; and the switching operation means selecting one from a plurality of links to perform data transmission.

Abstract: Method for receiving retransmitted data is disclosed. A terminal device receives identification information of a code block group. The code block group is one of a plurality of code block groups of a transport block that the terminal device received from a radio access network device, and the code block group includes at least one code block that is not transmitted correctly. The terminal device also receives a retransmission of the code block group from the radio access network device. The terminal device restores information carried in the received transport block. The identification information of the code block group is carried in downlink control information. The identification information of the code block group indicates which code block group of the transport block is retransmitted. The downlink control information further includes indication information that indicates whether the code block group is punctured or interfered.

Abstract: One or more devices, systems, and/or methods involve communicating with a node using a wireless transmission; receiving a node transmission responsive to the wireless transmission; and transmitting a wireless reference transmission responsive to the node transmission. The wireless reference transmission is transmitted aperiodically and responsive to a node transmission received from the node. Additionally, one or more devices, systems, and/or methods involve receiving, from a node, a wireless transmission; transmitting, to the node, a node transmission about the wireless transmission; and receiving a wireless reference transmission from the node responsive to the node transmission.

Abstract: Provided is a wireless communication terminal. The wireless communication terminal includes a transceiver configured to transmit and receive a wireless signal and a processor configured to control an operation of the wireless communication terminal. The processor collects data to be transmitted to a plurality of terminals, generates an aggregate-MAC protocol data unit for transmitting data to the plurality of terminals at the same time, and transmits the aggregate-MAC protocol data unit to the plurality of terminals.

Abstract: Methods and devices are described for encoding and decoding control information that has been modulated based on one or more identifiers of the transmitter and/or receiver. Some embodiments describe scrambling sequence design for multi-mode block discrimination on downlink control information (DCI) blind detection. Separate scrambling masks may be applied to disparate bit fields within a coded DCI message, wherein each of the scrambling masks is derived from a unique identifier associated with either the transmitter or the intended receiver. The scrambling masks may be used by the receiver to perform early termination of the decoding process, to mitigate intercell interference, and to verify that the receiver is the intended receiver.