Abstract: Provided are a method and device for configuring a slot formation indication (SFI) in a wireless communication system, particularly in new radio (NR) access technology. A user equipment (UE) receives, from a network, a first SFI for an unpaired carrier, configures a first slot in the unpaired carrier on the basis of the first SFI, receives, from the network, a second SFI for a supplemental uplink (SUL) carrier, and configures a second slot in the SUL carrier on the basis of the second SFI. The first SFI and the second SFI are separate pieces of information.

Abstract: A method for reducing the peak-to-average ratio in an OFDM communication signal is provided. The method includes defining a constellation having a plurality of symbols, defining a symbol duration for the OFDM communication signal, and defining a plurality of time instants in the symbol duration. A plurality of tones are allocated to a particular communication device, and a discrete signal is constructed in the time domain by mapping symbols from the constellation to the time instants. A continuous signal is generated by applying an interpolation function to the discrete signal such that the continuous signal only includes sinusoids having frequencies which are equal to the allocated tones.

Abstract: The described techniques provide for mapping one or more demodulation reference signal (DMRS) patterns to one or more available channel state information reference signal (CSI-RS) resources. A UE receiving DMRS and CSI-RS signals may determine CSI-RS resources, or reduce its search space for identification of CSI-RS transmissions, based on a DMRS pattern for a transmission. In some cases, a base station may transmit DMRS patterns and a mapping between DMRS patterns and CSI-RS resources to a UE. CSI-RS resources may be configured semi-statically or dynamically by a base station. In some cases, one or more null DMRS patterns may be configured and mapped to CSI-RS resources, and a base station may use a null DMRS pattern for one UE to transmit a DMRS to a different UE, and both UEs may measure channel state information based on an associated CSI-RS transmitted in mapped CSI-RS resources.

Abstract: A communication method, a terminal device and a network device are provided. The method includes: a terminal device receives first indication information sent by a network device, wherein the first indication information is used for scheduling first uplink transmission of the terminal device; the terminal device receives a physical-layer signaling sent by the network device, wherein the physical-layer signaling is used for instructing the terminal device to abandon or suspend the first uplink transmission, or the physical-layer signaling is used for modifying a configuration parameter of the first uplink transmission; and the terminal device performs processing on the first uplink transmission according to the physical-layer signaling.

Abstract: Embodiments of a User Equipment (UE), Next Generation Node-B (gNB) and methods of communication are generally described herein. The UE may receive control signaling to configure transmission of: a first physical uplink control channel (PUCCH) that includes first uplink control information (UCI) of a first UCI type; and a second PUCCH that includes second UCI of a second UCI type. In some cases, if the transmissions of the first PUCCH and the second PUCCH would overlap in a number of slots, the UE may, if the first and second UCI types are not of the same priority: transmit, in the overlapping slots, the PUCCH that includes the UCI type of highest priority; and refrain from transmission in the overlapping slots, and without postponement of the transmission, of the PUCCH that includes the UCI type of lowest priority.

Abstract: Systems and methods for operating a communication device so as to mitigate intermodulation interference to a signal. The methods comprise: continuously monitoring several communication channels by the communication device; using a noise floor level estimate of the communication device to detect when the communication device is under an influence of hig interference; determining an optimal level of attenuation to be applied by a variable attenuator of the communication device's receiver so as to mitigate the influence of intermodulation interference to the signal; and selectively adjusting an amount of attenuation being applied by the variable attenuator to achieve the optimal level of attenuation for mitigating intermodulation interference.

Abstract: An aggregated switch path optimization system includes first and second switch devices. An aggregated third switch device is coupled to the first switch device, the second switch device, and an aggregated fourth switch device. The aggregated third switch device forwards those packets from the first switch device via one of: an ICL to the aggregated fourth switch device, and a link to the second switch device. The aggregated third switch device then monitors a usage of the ICL and the availability of the link to the second switch device. In response to the usage of the ICL exceeding a threshold usage level, or an unavailability of the link to the second switch device, the aggregated third switch device transmits a packet redirection message to the first switch device that causes it to redirect packets away from the aggregated third switch device and towards the aggregated fourth switch device.

Abstract: Apparatus and methods are disclosed for client-based control of revising caller identifications (IDs) for communications between a private network and a public network. An apparatus including a telecommunications-providing server and processing circuit that communicates client-specific sets of data over an interface protocol. The telecommunications-providing server revises a caller ID for a VoIP call based on the client-specific sets of data, an identifier that corresponds to a requesting endpoint, and a geographic region determined from the call request. Further, the telecommunications-providing server causes control data to be sent to activate an analog-telephone bridging circuit and redirect the VoIP call by obtaining a dial tone and passes at least a subset of the data packet through the analog-telephone bridging circuit for connecting over the local line. The subset of the data packet includes the revised caller ID which is a local number identified by the determined geographic region.

Abstract: A system and method for establishing a dynamic wireless communication network with a plurality of autonomous aerial vehicles, such as drones. The drones can dynamically change the size and availability of the communication network, and work with an existing communication network, such as cellular telecommunications or internet protocol networks. The drones can therefore create and maintain a robust network in response to a variety of needs, such as emergency response areas or large sporting events. Further, the drones can establish communication hotspots for mobile devices, and can alternately be configured to create a data pipeline.

Abstract: Methods are provided in which devices vulnerable to performance degradation during a network offload process are identified and handled accordingly. In these methods, a network controller obtains data associated with operational performance of devices in a radio network during one or more offload procedures in which the devices are to be transitioned off of the radio network. The network controller further analyzes the data to determine impact to at least one performance parameter of the devices during the one or more offload procedures, and during a subsequent offload procedure, the network controller orchestrates offloading of the devices according to the impact determined to the at least one performance parameter based on the analyzing.

Abstract: A method for establishing a wireless network for a vehicle is provided herein. The vehicle comprises a tractor unit and a trailer. The tractor unit comprises at least one first station and a first control unit and the trailer comprises a second station and a second control unit. The method comprises supplying electrical energy to the second control unit. The method further comprises interconnecting the first control unit and the second control unit via a physical interface. The method further comprises generating a defined message by the second control unit and receiving the defined message by the first control unit via the physical interface. The method further comprises transmitting information required to establish the wireless network via the first station only when the defined message is present in the first station.

Abstract: A signaling attack prevention method and apparatus, where the method includes receiving a general packet radio service (GPRS) Tunneling Protocol (GTP-C) message from a serving gateway (SGW), determining whether the GTP-C message is received from an eighth data interface (S8), determining whether a first characteristic parameter of the GTP-C message is valid when the GTP-C message is received from the S8 interface, where the first characteristic parameter includes at least one of an international mobile subscriber identity (IMSI) of a user, or an identifier of a message source end of the GTP-C message, and discarding the GTP-C message or returning, to the SGW, a GTP-C response message carrying an error code cause value when the first characteristic parameter of the GTP-C message is invalid.

Abstract: A method for detecting and preventing the operation of a rogue access point (AP) by issuing deauthentication packets thereto includes receiving beacon packets of all wireless APs in a wireless network area, obtaining timestamps, and establishing a clock skew model for each wireless AP accordingly. Each clock skew model can be held abnormal according to a growth slope of the clock skew model, and the wireless AP corresponding to an abnormal clock offset model can be defined as a rogue AP. Position and distance range of the rogue AP can be established by RSSIs, and a specified authorized AP adjacent to the rogue AP can be selected and controlled to send deauthentication packets to the rogue AP. A device for detecting and restraining the rogue AP is also provided.

Abstract: As described herein, various nodes in a 3GPP network, including a user equipment (UE), can be used to insert metadata in uplink traffic so that the network and/or an (S)Gi-LAN can make traffic steering decisions based on the metadata. For example, the UE can insert metadata into its uplink traffic so that the services in the (S)Gi-LAN can be better leveraged. In one embodiment, network nodes are able to insert metadata that relates directly to the UE and that relates to the operating conditions of the network nodes that the UE is using to send uplink data, so that the services in the (S)Gi-LAN can be better leveraged.

Abstract: A method for sending a wireless local area network packet structure is provided, and the method comprises: determining a packet structure, where the packet structure comprises an HE-SIGA and an HE-SIGB, the HE-SIGA comprises an indication information, and if a current transmission mode is a full bandwidth MU-MIMO transmission, the indication information is used to indicate a number of scheduled users, or if the current transmission mode is other transmission mode, the indication information is used to indicate a number of symbols in the HE-SIGB; and sending the packet structure.

Abstract: Disclosed are a method and an apparatus for generating an STF signal usable in a wireless LAN system. The STF signal is included in a field used to improve AGC estimation of a MIMO transmission. A portion of the STF signal is used to transmit an uplink, and can be used for uplink MU PPDUs transmitted from a plurality of STAs. The STF signal that is disclosed, for example, is used for a 40 MHz band or an 80 MHz band, is desirably usable for the 40 MHz band, and can be generated based on a sequence in which a predetermined M sequence is repeated. The predetermined M sequence can be a binary sequence of which the length is 15 bits.

Abstract: Disclosed are a method and an apparatus for generating an STF signal usable in a wireless LAN system. The STF signal is included in a field used to improve AGC estimation of a MIMO transmission. A portion of the STF signal is used to transmit an uplink, and can be used for uplink MU PPDUs transmitted from a plurality of STAs. The STF signal that is disclosed, for example, is used for a 40 MHz band or an 80 MHz band, is desirably usable for the 40 MHz band, and can be generated based on a sequence in which a predetermined M sequence is repeated. The predetermined M sequence can be a binary sequence of which the length is 15 bits.

Abstract: Methods and apparatus are provided in which data is received from a base station on a downlink data channel. It is determined whether a scheduling type of the downlink data channel is persistent or non-persistent. Acknowledgement/negative acknowledgement (ACK/NACK) information for the data is transmitted to the base station. In case that the scheduling type is non-persistent, the ACK/NACK information is transmitted on a first resource determined according to a downlink control channel corresponding to the data. In case that the scheduling type is persistent, the ACK/NACK information for an initial persistent data transmission is transmitted on a second resource determined by using resource information received by high-layer signaling, and the ACK/NACK information for a persistent data retransmission is transmitted on a third resource determined according to the downlink control channel associated with the persistent data retransmission.

Abstract: A first information handling system may determine a first bandwidth of a first connection between the first information handling system and a client information handling system. The first information handling system may also determine a second bandwidth of a second connection between a second information handling system and the client information handling system. The first information handling system may determine that the first bandwidth is greater than the second bandwidth. Based on the determination, the first information handling system may be designated as a VRRP master node based. Based on the designation as the VRRP master node, the first information handling system may control VRRP operation of the first and second information handling systems.

Abstract: A device may obtain, for an account associated with a user equipment (UE) that is connected to a network, subscriber profile data that includes a group identifier for a messaging group for UEs that are eligible to utilize a group messaging service. The device may update a data structure to associate the group identifier and a UE identifier for the UE, wherein the data structure also associates the group identifier and other UE identifiers for other UEs of the messaging group. The device may receive, based on being subscribed to the group messaging service, group message data for a group message. The device may select the UE and the one or more other UEs as target recipients of the group message and may provide, using multicast, the contents of the group message to the UE and the one or more other UEs.