Abstract: A communication technology for converging a 5th-generation (5G) communication system for supporting a higher data rate after a 4th-generation (4G) system to an Internet of things (IoT) technology and a system thereof are provided. A method for connecting to a network by a terminal in a mobile communication system wherein a first communication network and a second communication network are operable, and an apparatus thereof are provided. The method includes transmitting, to a mobility management function, information on supportable communication network for the terminal and an attach request message including a packet data unit (PDU) session request, receiving an internet protocol (IP) address allocated based on the information on supportable communication network and an attach accept message including a PDU session response, and connecting to a network based on the IP address.

Abstract: A communications device is equipped with a secondary interface, e.g., a wireless interface, in addition to a primary interface. In at least some, but not necessarily all, embodiments the secondary interface is an inexpensive Long Range (LoRa) wireless interface which uses sub-GHz unlicensed spectrum or a Narrow Band-Internet of Things (NB-IoT) wireless interface which uses licensed spectrum. The secondary interface is in addition to a primary interface used for transmitting data, e.g., user data such as voice, video or text data, to a primary communications device, e.g., to support voice or data applications running on a user device. The secondary interface, e.g., a low power/low data rate interface, is used for communicating small amounts of data for initial configuration, fault recovery, re-initialization, and/or updates.

Abstract: The invention relates to a method for operating a gateway wherein the method comprises to detect a downlink data packet session transmitted to the first user entity, and to amend the lifetime indicator in at least some of the data packets of the detected downlink data packet session such that the data packets for which the lifetime indicator has been amended, have reached the end of the lifetime and cannot be transmitted further when arriving at the first user entity.

Abstract: Apparatuses, methods, and systems are disclosed for carrier determination. One apparatus includes a processor that determines a first carrier of multiple carriers for a first device to transmit control information. The apparatus also includes a transmitter that transmits, to the first device, a first physical control signal indicating the first carrier, wherein the first physical control signal further indicates an interlace index for transmitting control information. The apparatus includes a receiver that receives control information from the first device on the first carrier.

Abstract: A method to operate an apparatus (UE1) comprises: receiving (102) a plurality of radio signals (s0, s2); determining (104) at least one resource conflict indicator (RCI) in dependence on the received radio signals (s0, s2), wherein the at least one resource conflict indicator (RCI) indicates at least one radio resource (rr1) that has a potential risk of a resource conflict; and transmitting (106) the resource conflict indicator (RCI).

Abstract: A user equipment (UE) can include processing circuitry configured to decode downlink control information (DCI) from a base station, the DCI including a modulation coding scheme (MCS) index and physical uplink shared channel (PUSCH) allocation. A demodulation reference signal (DM-RS) is encoded for transmission to the base station within a plurality of DM-RS symbols based on the PUSCH allocation. A phase tracking reference signal (PT-RS) time domain density is determined based on the MCS index and a number count of the DM-RS symbols for the DM-RS transmission. The PT-RS is encoded for transmission using a plurality of PT-RS symbols based on the determined time domain density. The plurality of symbols includes one or both of front-loaded DM-RS symbols and additional DM-RS symbols.

Abstract: A method of auto-detection of WLAN packets includes selecting a first Golay sequence from a first pair of Golay complementary sequences associated with first packet type, each Golay sequence of the first pair of Golay complementary sequences being zero correlation zone (ZCZ) sequences with each Golay sequence of a second pair of Golay complementary sequences associated with a second packet type, and transmitting a wireless packet carrying a short training field (STF) that includes one or more instances of the first Golay sequence.

Abstract: Solutions for focused cellular network paging of a user equipment (UE) include: detecting, by a network, a network exit of the UE from a last known cell and an exit condition for the UE; determining, by the network, a network paging condition; based on at least the last known cell and the exit condition for the UE, determining, by the network, a set of priority paging cells; paging the UE with the set of priority paging cells; and based on at least failing to receive a response by paging the UE with the set of priority paging cells, paging the UE with a larger set of cells. In some examples, the network topology is also used for determining the set of priority paging cells. By starting with the set of priority paging cells, rather than wider global paging, fewer cells are used for paging, thereby saving network bandwidth.

Abstract: A network device may receive a non-Internet protocol (non-IP) frame with a particular size and may compare the particular size to a maximum transmission unit (MTU) associated with a path between the network device and another network device. The network device may divide the non-IP frame into fragments, based on the particular size being greater than the MTU and may prepend generic fragmentation headers to the fragments to generate fragments with headers, based on the particular size being greater than the MTU. The network device may add generic fragmentation header labels and transport labels to the fragments with the headers to generate fragments with headers and labels, based on the particular size being greater than the MTU. The network device may transmit the fragments with the headers and the labels to the other network device, via the path, based on the particular size being greater than the MTU.

Abstract: Methods and apparatuses for power saving operations. A method of a UE includes receiving a configuration for a number of RS resource sets, a configuration for a PO over slots in time, an indication for activation or deactivation of one or more RS resources from the number of RS resource sets, and the one or more RS resources from the number of RS resource sets when the indication is for activation. The RS resource sets include a number of RS resources. The number of RS resource sets are associated with respective spatial parameters. The PO includes a number of PDCCH reception occasions. The number of PDCCH reception occasions are associated with respective spatial parameters for PDCCH receptions. The method further includes determining a PDCCH reception occasion from the number of PDCCH reception occasions. The PDCCH reception occasion has a same spatial parameter as a RS resource set from the number of RS resource sets.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a configuration for a semi-persistent scheduling (SPS) of a data transmission that rate matches the data transmission around one or more resource elements that are to be used for a cell-specific reference signal pattern. The UE may receive an SPS communication based at least in part on the configuration. Numerous other aspects are provided.

Abstract: Provided is a positioning reference signal transmission method performed by a transmitter, the method including acquiring a first time domain sample data in which a cyclic prefix (CP) insertion is completed based on a zero input; acquiring a second time domain sample data corresponding to a waveform of a signal that continues during a plurality of symbols; synthesizing the first time domain sample data and the second time domain sample data; and transmitting a positioning reference signal based on a result of synthesizing the first time domain sample data and the second time domain sample data.

Abstract: Sharing integrated circuit (IC) resources can include receiving, within a communication endpoint of an IC, a plurality of packets from a plurality of different source virtual entities, determining packet handling data for each packet of the plurality of packets using an acceleration function table stored within the IC, routing each packet of the plurality of packets to one or more selected function circuit blocks of a plurality of function circuit blocks in the IC based on the packet handling data of each respective packet, and processing the plurality of packets using the one more selected function circuit blocks generating a plurality of results corresponding to respective ones of the plurality of packets. The plurality of results are queued within the communication endpoint. Each result is queued based on the packet handling data of the corresponding packet.

Abstract: A method where a data analytics network element may determine a background traffic transmission data analysis result of a first terminal device based on target background traffic transfer policies of another terminal device (that is, a second terminal device), and where the data analytics network element may further enable a first policy control network element to determine a background traffic transfer policy of the first terminal device. Therefore, the background traffic transfer policy of the first terminal device is determined by the first policy control network element with reference to the other terminal devices.

Abstract: A wireless communication network serves a User Equipment (UE) over multiple User Plane Function Groups (UPFGs). In the wireless communication network, a Session Management Function (SMF) receives UPFG performance metrics from the wireless communication network. The SMF identifies a Packet Data Flow Group (PDFG) for the UE. The SMF responsively selects one of the UPFGs for the PDFG based on the UPFG performance metrics. The selected UPFG comprises at least three User Plane Functions (UPFs) and the PDFG comprises at least two Packet Data Flows (PDFs). The SMF transfers network signaling to the selected UPFG to deliver the PDFG to the UE. The selected UPFG receives the network signaling and responsively exchanges user data for the UE to deliver the PDFG.

Abstract: The present disclosure relates to an electronic device supporting dual connectivity (ENDC) between a 4G network (LTE) and a 5G network (NR), and the electronic device may include a first communication module connected to a 4G base station to perform control and signal processing for transmission and reception of signals through a 4G network; a second communication module connected to a 5G base station to perform control and signal processing for transmission and reception of signals through a 5G network; an application processor (AP) that detects a change of an operation state of the electronic device when the operation state is changed; and a modem that activates only the first communication module to perform wireless communication with the 4G base station, or further activates the second communication module to perform wireless communication with both the 4G base station and the 5G base station according to the operation state of the electronic device detected by the AP.

Abstract: Methods, systems, and devices for wireless communications are described in which beamforming may be configured at a user equipment (UE) for narrowband communications. The UE may be a narrowband UE that may provide an indication to a base station that the UE is capable of performing beamforming communication for a unicast channel transmission. Such an indication may be provided in response to the UE receiving a non-beamformed broadcast channel transmission from the base station via a first carrier. The base station may receive the indication and configure the UE with a beamformed narrowband communications scheme. Such a beamformed formed narrowband communications scheme may be used for narrowband downlink shared channel communications, narrowband downlink control channel communications, or combinations thereof. In some cases, beamformed communications may be configured on a different carrier than the first carrier. The base station and UE may then communicate using beamformed transmissions.

Abstract: A method and apparatus are disclosed from the perspective of a first UE (User Equipment) to request SLRB (Sidelink Radio Bearer) configuration for a unicast link with a second UE. In one embodiment, the method includes the first UE receiving a first message from the second UE, wherein the first message includes a first SLRB configuration for the unicast link. The method further includes the first UE transmitting a second message to a network node to request a second SLRB configuration for the unicast link when the first message is received or a successful transmission of a complete message associated with the first message to the second UE is confirmed.

Abstract: Methods, systems, and devices for wireless communications are described. In some systems (e.g., non-orthogonal multiple access (NOMA) systems), a base station may serve a large number of user equipments (UEs) on the uplink. To improve detectability for these uplink transmissions (e.g., if reference signals are not available for the transmissions), the UEs may implement parallel transmissions of preambles with uplink data. A UE may split the uplink data into one or more data layers, and may select one or more preamble layers to transmit superposed with the data layers. These preambles may be sequences known to both the UE and the base station to aid in detectability. The UE may assign different signature sequences to each of these layers based on cross-correlation values (e.g., assigning sequences with higher cross-correlation values to the data layers for improved detectability), and may scramble the layers into a single shared signal for transmission.

Abstract: A method for transport of messages includes: based on relay-flag information being set to the first value, sending a message directly from a sending network node to a receiving network node, and sending an acknowledgement message directly from the receiving network node to the sending network node; based on relay-flag information being set to the second value, relaying a message from the sending network node via a third network node to the receiving network node, and sending an acknowledgement message directly from the receiving network node to the sending network node; and based on relay-flag information being set to the third value, relaying a message from the sending network node via a third network node to the receiving network node, and relaying an acknowledgement message from the receiving network node via the third network node to the sending network node.