Abstract: The present disclosure discloses a method for transmitting data, a terminal device, and a network device. The method includes: a first terminal device receives indication information transmitted by a network device, where the indication information is for indicating a transmission band for transmitting the data; the first terminal device determines a numerology for transmitting the data according to the transmission band; the first terminal device transmits the data to the network device or receives the data transmitted by the network device on the transmission band according to the numerology. Therefore, the method, the terminal device, and the network device according to the present disclosure can achieve, with different numerologies, scheduling of data transmissions that are based on different transmission bands, thereby increasing flexibility of control signaling design. Furthermore, downlink signaling overhead can be saved.

Abstract: A load control system may be commissioned using beacon messages. The load control system may include control devices that each include a beacon transmitting circuit configured to transmit a beacon message that comprises an identifier associated with the control device. A network device, such as a mobile device, may discover a control device based on the beacon message received from the control device. In response to discovery of the control device, the control device may be added to a temporary group of control devices for being collectively configured and/or controlled. Control devices may be discovered based on the signal strength at which the beacon messages are received. A mobile device may adjust a discovery threshold for discovering a target number of control devices in the load control system.

Abstract: A communication method of an access and mobility function (AMF) node in a communication system is provided. The communication method includes receiving, from a base station, a registration request message for a terminal, transmitting, to an old AMF previously accessed by the terminal, an information request message for the terminal, and receiving, from the old AMF, an information response message including network slice selection assistance information (NSSAI) corresponding to the terminal.

Abstract: An embodiment is a data sequence correction method. The data sequence correction method including temporarily saving data with sequence information imparted thereto in a ring buffer, the ring buffer having a predetermined number of storage regions corresponding to the sequence information, and being provided with a monitoring section made up of one, or two or more consecutive sequence numbers, and an acceptance section in which a start or a second sequence number of the monitoring section is a start sequence number, and the sequence number ahead by a count of storage regions of the ring buffer including the start of the monitoring section is an end sequence number.

Abstract: The base station simulator 10 as a signal analysis device performs communication with a UE 70 by simulating a base station to test an operation of a communication function of the UE 70, and includes a reception unit 21a that receives a signal to be measured modulated by an OFDM method, transmitted from the UE 70, an analog signal processing unit 22 that calculates signal data of the signal to be measured received by the reception unit 21a, a data analysis unit 27c that analyzes the signal data for a predetermined analysis item for each time domain defined by the OFDM method, and calculates analysis results of a plurality of analysis items corresponding to each time domain, and an analysis result display unit 28c that displays the analysis results of the plurality of analysis items side by side.

Abstract: Systems and methods for steering data packets among a plurality of available network devices. A device connected to a wide area network through multiple network interfaces may dynamically select which network interface to use to transmit individual packets sent to, and received from, client devices over a local area network.

Abstract: A user apparatus includes a transmission unit configured to transmit sidelink data based on information for sidelink scheduling received from a base station apparatus; and a reception unit configured to receive feedback information with respect to the sidelink data from a user apparatus that has received the sidelink data, wherein the transmission unit transmits to the base station apparatus, based on a predetermined assumption, first HARQ-ACK information that is based on the feedback information, and second HARQ-ACK information with respect to data received by the reception unit from the base station apparatus.

Abstract: An extremely high-throughput (EHT) station (STA) may encode a null data packet (NDP) announcement frame for transmission to include a high-efficiency (HE) subfield and a Ranging subfield in a Sounding Dialogue Token field. To identify the NDP announcement frame as an EHT NDP announcement frame (i.e., an EHT variant), the EHT STA may set both the HE subfield and the Ranging subfield in the Sounding Dialogue Token field to a value of one. When operating as an EHT access point (AP), the EHT STA may encode a trigger frame to include a Special User Info Field. The Special User Info Field may be identified by a predetermined value as an STA association identifier (AID) value. The use of the predetermined value as the AID value in the Special User Info Field indicates that the trigger frame is an EHT variant and indicates that the trigger frame is being sent by an EHT AP.

Abstract: A method is performed by a computing device in a data transport network. The computing device receives congestion-related information corresponding to current conditions of a portion of the network. The computing device determines whether a data transport session has a fair-share protocol. When the data transport session has the fair-share protocol, determining a congestion policy for the data transport session, and applying, using the congestion-related information, the congestion policy to the data transport session.

Abstract: A system and method of controlling a constellation of nanosatellites colocates processing resources with sensors in each satellite. Latencies in data transmission are addressed by organizing the constellation of satellites into computational pipelines. An orbital edge computing module simulates system design for mission design, planning and analysis in addition to supporting online autonomy.

Abstract: Method, systems and devices for determining a transport block size (TBS) are disclosed. The method comprises determining the TBS based on a parameter or a signaling associated with an event of determining an intermediate value of a TBS determination procedure, wherein the parameter or a signaling is available for a wireless terminal supporting a release version, wherein the intermediate value is determined based on a plurality of resource parameters, wherein the plurality of resource parameters comprises at least one of the total number of resource elements allocated to the wireless terminal, a rate, a modulation order, and the number of layers.

Abstract: There is provided mechanisms for handling an impaired antenna branch at a radio transceiver device. The radio transceiver device includes a plurality of antenna branches. Channel information is correlated among the respective antenna branches according to a correlation relation. A method is performed by a network node. The method includes obtaining an indication that at least one of the antenna branches at the radio transceiver device is impaired. The method includes, in response thereto obtaining channel information for each of the non-impaired antenna branches at the radio transceiver device. The method includes estimating channel information for each of the at least one impaired antenna branch using the obtained channel information and the correlation relation.

Abstract: A method of operating a target radio node in a radio access network is disclosed. The method includes receiving control information transmitted on a control channel, and transmitting acknowledgement feedback pertaining to the control information. The disclosure also pertains to related methods and devices.

Abstract: Methods and apparatuses for determining spatial settings during a random access procedure. A method for operating a user equipment includes determining a first physical random access channel (PRACH) preamble for transmission in a first PRACH occasion (RO) using a first spatial setting and determining a second PRACH preamble for transmission in a second RO using a second spatial setting. The method further includes transmitting the first PRACH preamble in the first RO using the first spatial setting and transmitting the second PRACH preamble in the second RO using the second spatial setting. The method further includes receiving a first physical downlink control channel (PDCCH) scheduling a reception of a first physical downlink shared channel (PDSCH) using a third spatial setting associated with the first spatial setting, or a second PDCCH scheduling a reception of a second PDSCH using a fourth spatial setting associated with the second spatial setting.

Abstract: Methods performed by base stations and wireless devices in networks are disclosed. A method performed by a base station comprises: initiating a QoS-flow to DRB remapping; informing a target base station that the remapping is ongoing; and providing the target base station an old and a new QoS-flow to DRB mapping, wherein the old mapping was in place before the remapping, and the new mapping will be in place after the remapping. Another method performed by a base station comprises: receiving an indication from a further base station that QoS-flow to DRB remapping is ongoing; receiving an old and a new QoS-flow to DRB mapping from the further base station; and receiving signals from a wireless device using the old and new QoS-flow to DRB mappings. A method performed by the wireless device comprises: sending data packets using a first QoS-flow to DRB mapping; receiving a new mapping; and sending an SOAR end marker, indicating that the wireless device is applying the new mapping.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive, from a non-terrestrial network (NTN) entity, a message that is associated with an uplink grant. The UE may select, based at least in part on the message, either a cell-specific offset or an updated offset that is indicated after initial access, as a timing offset that accounts for a propagation delay between a base station of the NTN and the UE. The UE may transmit, to the NTN entity, an uplink communication using the timing offset. Numerous other aspects are described.

Abstract: A wireless network controller selects a network slice for a User Equipment (UE). The wireless network controller selects a functionality split for the UE based on the selected network slice and indicates the selected functionality split to a Centralized Unit (CU). The CU indicates the selected functionality split to a Distributed Unit (DU). The DU exchanges user communications with the UE. The DU processes the user communications with the network applications allocated to the DU in the selected functionality split for the UE. The DU exchanges the user communications with the CU. The CU processes the user communications with the network applications allocated to the CU in the selected functionality split for the UE.

Abstract: An arrival rate estimation device includes an average received power calculation unit that calculates an average received power for each mesh that constitutes an area, with respect to each of a plurality of base stations and each of a plurality of antennas included in each of the base stations and an arrival rate estimation unit that calculates a communication arrival rate by substituting the average received power into a cumulative distribution function of an instantaneous received power value, and based on the calculated communication arrival rate, calculates a communication arrival rate while giving consideration to a site diversity effect and an antenna diversity effect, the cumulative distribution function being obtained from a probability density function of an amplitude that instantaneously changes due to Rayleigh fading.

Abstract: Various embodiments of the present disclosure may be used to determine how activation downlink control information (DCI), release DCI, and dynamic retransmission DCI are distinguished for DCI formats 3_0/3_1 for Mode-1 sidelink resource allocation. Furthermore, in case of asynchronous downlink (DL) and sidelink (SL) carriers, embodiments of the present disclosure may be used to determine how a user equipment (UE) determines transmission slots with respect to system frame number (SFN) or direct frame number (DFN) when activated with Type 1 configured scheduling.

Abstract: A method of wireless communication by a receiving sidelink user equipment (UE) includes receiving a first original message from a first transmitting sidelink UE. The method also includes receiving, from a network coding device, a network coded (NC) packet that is coded across the first original message and a second original message from a second transmitting sidelink UE. The first original message corresponds to a first transport block. The second original message corresponds to a second transport block. The method further includes transmitting a first negative acknowledgment (NACK) in response to the first transport block being unsuccessfully decoded. The method still further includes transmitting a second NACK in response to the second transport block being unsuccessfully decoded. The method still further includes transmitting a first acknowledgment (ACK) in response to the first transport block being successfully decoded.