Abstract: The invention relates to a device for transmission of data on a frequency spectrum divided into a plurality Nf of spectrum fragments (f1, f2) each of which covers a frequency band, the frequency bands being discontiguous. The device comprises a packet generator configured to generate a data packet comprising a payload and at least one occurrence of a constant envelope signalling sequence. Said sequence, for example a modified Zadoff-Chu sequence, comprises N complex symbols and consists of a plurality of complex symbol sets each associated with one of the spectrum fragments. Each set comprises N/Nf complex symbols and each complex symbol of a set comprises a scaling term to the frequency band covered by the spectrum fragment associated with this set and a spectral transposition term in the frequency band covered by the spectrum fragment associated with this set.

Abstract: A method of managing carrier aggregation for a multi-radio access technology (RAT) wireless transmitter/receiver unit (WTRU) is disclosed. The method may include: receiving, by the WRTU over a primary channel associated with a RAT of a first type, provisioning information for provisioning a supplementary channel associated with a RAT of a second type; establishing the supplementary channel associated with the RAT of the second type based on the received provisioning information; and wirelessly exchanging, by the WRTU, first data associated with a communication over the primary channel via the RAT of the first type, while wireless exchanging second data associated with the communication over the supplementary channel via the RAT of the second type.

Abstract: A method for a primary user device of a spectrum license used for allowing radio communication in a wireless communication network covering a local area to which the spectrum license is limited, wherein the method comprises: providing at least one spectrum compliance probe within the local area; detecting, using the at least one spectrum compliance probe, within the local area one or both of (i) a first interference caused by a first signal originating from within the local area, wherein the first interference is not allowed by the spectrum license, and (ii) a second interference caused by a second signal originating from outside the local area, wherein the second interference is not allowed by the spectrum license; and controlling the radio communication in response to said detection.

Abstract: There is provided a radio access node (40) for use in a communication network (32), the radio access node (40) being associated with a local energy storage system (122) that is part of a distributed energy storage network, the radio access node (40) being adapted to monitor the operation of a power distribution network (118); in the event of a fault in the power distribution network (118), control the local energy storage system (122) to supply power to the power distribution network (118). A radio access node (40) for use in a communication network (32) is provided. The node (40) is able to locate a fault on a power distribution network (118) and to generate a map of at least a part of said power distribution network (118), indicating the location of the fault.

Abstract: Embodiments provide a data transmission method and apparatus. The method includes: after obtaining information of a target input port of a data receiving device and information of a target protocol used by a target Internet of Things device connected to the target input port, the data receiving device determines the target input port and the target protocol, and decapsulates, according to the target protocol, a first data packet transmitted by the target Internet of Things device via means of the target input port to obtain data. The data receiving device can adaptively determine a target protocol according to the information of the target protocol used by the target Internet of Things device, without configuring the target protocol for the target Internet of Things device in advance.

Abstract: This application discloses a polar code interleaving processing method and apparatus. The method includes: determining N to-be-encoded bits, where N is a positive integer; obtaining a first sequence that includes sequence numbers of N polarized channels, where the first sequence is used to indicate a reliability order of the N polarized channels; performing polar encoding on the N to-be-encoded bits to obtain encoded bits; and performing interleaving processing on the encoded bits based on the first sequence. Because the first sequence used to indicate the reliability of the polarized channels is a sequence already existing in a polar code encoding process, no additional storage resource needs to be used to store the first sequence in the interleaving processing process, thereby reducing use of storage resources.

Abstract: The present disclosure relates to channel transmission methods, base stations, and terminal devices. One example method includes receiving a first channel from a network device, determining a frame structure used between the network device and a terminal device according to relationship between a transmission parameter set of the first channel and the frame structure, and communicating with the network device according to the frame structure.

Abstract: A method and system for minimizing the control overhead in a multi-carrier wireless communication network that utilizes a time-frequency resource is disclosed. In some embodiments, one or more zones in the time-frequency resource are designated for particular applications, such as a zone dedicated for voice-over-IP (VoIP) applications. By grouping applications of a similar type together within a zone, a reduction in the number of bits necessary for mapping a packet stream to a portion of the time-frequency resource can be achieved. In some embodiments, modular coding schemes associated with the packet streams may be selected that further reduce the amount of necessary control information. In some embodiments, packets may be classified for transmission in accordance with application type, QoS parameters, and other properties. In some embodiments, improved control messages may be constructed to facilitate the control process and minimize associated overhead.

Abstract: Apparatus and methods are provided for efficient bandwidth adaptation for wideband carrier. In one novel aspect, the UE starts a BWP timer upon detecting one or more BWP timer starting triggering events, resets the BWP timer upon detecting BWP resetting triggering events, and switches to the default BWP upon expiration of the BWP timer. The BWP timer starting triggering events comprises decoding a command to switch away from the default BWP, the detection of end of DL data transmission in DRX mode. In another novel aspect, the UE only decodes the DCI indication for active BWP switching in the first three OFDM symbols of a subframe or a slot. In yet another novel aspect, when the SPS is configured for the serving cell for a UE with multiple BWPs, the SPS is configured for all the BWPs accordingly.

Abstract: Systems, methods, and computer-readable media for discovering silent hosts in a software-defined network and directing traffic to the silent hosts in a scalable and targeted manner include determining interfaces of a fabric device that are connected to respective one or more endpoints, where the fabric device is configured to connect the endpoints to a network fabric of the software-defined network. At least a first interface is identified, where an address of a first endpoint connected to the first interface is not available at the fabric device. A first notification is transmitted to a control plane of the software-defined network based on identifying the first interface, where the control plane may create a flood list which includes the fabric device. Traffic intended for the first endpoint from the network fabric is received by the fabric device can be based on the flood list.

Abstract: At least two PDSCH resource allocations can be received. Different PDSCH resource allocations of the at least two PDSCH resource allocations can be associated with different spatial filters for a UE. A pre-emption indication that indicates pre-empted resources can be received. A determination can be made as to whether the pre-emption indication is applicable to a first PDSCH resource allocation, a second PDSCH resource allocation, both PDSCH resource allocations, or no PDSCH resource allocation of the at least two PDSCH resource allocations. A first PDSCH corresponding to the first PDSCH resource allocation can be decoded based on no transmission being present for the UE in the pre-empted resources in response to determining the pre-emption indication is applicable to the first PDSCH resource allocation and not applicable to the second PDSCH resource allocation.

Abstract: Techniques for split-horizon filtering for EVPN-VXLANs are described. For example, an egress provider edge (PE) device is configured to apply split-horizon filtering to a BUM packet received from an intermediate network if the BUM packet includes a split-horizon identifier advertised by the egress PE device. As one example, the PE device encapsulates the split-horizon identifier within a tagging packet frame, such as a tagging packet frame in accordance with the 802.1Q tag format comprising a Tag Protocol Identifier (TPID). An ingress PE device receives the split-horizon identifier advertised by the egress PE device and is configured to encapsulate the split-horizon identifier within a BUM packet received from the Ethernet segment, and send the encapsulated packet into the intermediate network towards the egress PE device. In this way, when egress PE device receives the encapsulated packet including the split-horizon identifier, the egress PE device performs split-horizon filtering on the packet.

Abstract: A system and apparatus can include a port for transmitting data; and a link coupled to the port. The port can include a physical layer device (PHY) to decode a physical layer packet, the physical layer packet received across the link. The physical layer packet can include a first bit sequence corresponding to a first ordered set, and a second bit sequence corresponding to a second ordered set, the first bit sequence immediately adjacent to the second bit sequence. The first ordered set is received at a predetermined ordered set interval, which can occur following a flow control unit (flit). The first ordered set comprises eight bytes and the second ordered set comprises eight bytes. In embodiments, bit errors in the ordered sets can be determined by checking bits received against expected bits for the ordered set interval.

Abstract: In some embodiments, a method is performed after locking a first clock of a computing device to synchronize with a second clock associated with a first device where a difference between the first clock and the second clock is determined during the locking. The method measures a path delay to a second device based on sending messages including first timestamps of the first clock to the second device and receiving messages including second timestamps of a third clock from the second device. A third message is sent to the second device that includes a third timestamp of the first clock that has been locked to the second clock, wherein the third message includes the path delay, and wherein the third timestamp and the path delay allow the second device to analyze a lock quality of the first clock to the second clock based on a time of the third clock.

Abstract: Novel tools and techniques are provided for implementing intelligence enabled things (“IET”). In various embodiments, a first IET tag affixed to a first object among a plurality of objects might receive information regarding the first object and/or nearby objects. The first IET tag might determine a status of the first object and/or the nearby objects based at least partly on the received information and based at least partly on first data assigned to the first IET tag. The first IET tag might analyze the determined status to determine whether the determined status exceeds predetermined thresholds for normal parameters for the first object and/or the nearby objects. Based on a determination that the determined status exceeds predetermined thresholds for normal parameters for the first object and/or the nearby objects, the first IET tag might autonomously self-report to a computing system a state of the first object and/or the nearby objects.

Abstract: A wireless communication apparatus/system/method utilizing directional data transmission over a communication (e.g., mmW) band and propagating discovery assistance request and responses to neighboring stations (e.g., in its BSS or in the surrounding area) toward increasing network efficiency. If these stations support discovery assistance they send a discovery assistance response to the station from which the request was propagated. The STA that sent the propagated discovery assistance request processes all the responses and sends a discovery assistance response, containing information about the discovery assistance campaign, to the STA that requested the discovery assistance request.

Abstract: A PHY chip for a synchronous Ethernet system includes N network input/output (I/O) ports, a first external recovered clock input, a first recovered clock output, and a first clock multiplexer having a plurality of data inputs, a select input, and an output coupled to the first recovered clock output, at least one of the data inputs coupled to a first recovered clock from a respective one of the N network I/O ports, a first additional data input coupled to the first external recovered clock input.

Abstract: A communication system includes: a receiving device configured to receive data, and repeatedly set a time range; and a transmitting device configured to repeatedly transmit data to the receiving device at a first time interval, and change a transmission interval at which data is transmitted to the receiving device to a second time interval, which is different from the first time interval, if the number of pieces of data received by the receiving device within the time range is 2 or more.

Abstract: In one example, a method comprises generating, by a forwarding manager for an internal forwarding path executed by a plurality of packet processors of a forwarding unit of a network device, a dependencies structure that specifies one or more dependencies for a plurality of nodes, wherein the plurality of nodes represent different types of forwarding path elements of the forwarding path, wherein the plurality of nodes is binded to a first set of one or more packet processors of the plurality of packet processors; and rebinding, by the forwarding manager, a second set of one or more packet processors of the plurality of packet processors to the plurality of nodes, wherein rebinding the second set of one or more packet processors to the plurality of nodes is performed in a reverse direction of the dependencies structure.

Abstract: A method and a device for remapping a QoS flow, and a non-transitory computer storage medium are provided. The method comprises operations as follow. After a first device determines that a first QoS flow needs to be remapped from a first DRB to a second DRB, an SDAP entity of the first device determines a first data packet, the first data packet being the end data packet transmitted on the first DRB in the first QoS flow. After the SDAP entity of the first device determines that transmission of the first data packet in the QoS flow is completed on the first DRB, the first QoS flow is mapped to the second DRB, and data packets following the first data packet in the first QoS flow is transmitted on the second DRB.