Abstract: A method for transmitting broadcast signals, includes encapsulating input packets including Internet Protocol (IP) packets or Transport Stream (TS) packets into link layer packets in a link layer, each header of the link layer packets including packet type information representing a type of the input packets in a payload of each link layer packet and payload configuration information representing a configuration of the payload of each link layer packet, wherein for a first link layer packet including a single packet, the payload configuration information of the header in the first link layer packet has a value representing that the first link layer packet carries the single packet, the header further includes header mode information representing a length related to the first link layer packet.

Abstract: An integrated circuit can include a Network-on-Chip (NoC) having a router network with first and second shared physical channels. The NoC includes one or more master bridge circuits (MBCs) coupled to the router network, where each MBC provides a packet-based interface to a master client circuit coupled thereto for initiating transactions over the router network. Each MBC sends and receives data for the transactions over the router network as flits of packets according to a schedule. The NoC includes one or more slave bridge circuits (SBCs) coupled to the router network, where each SBC provides a packet-based interface to a slave client circuit coupled thereto to for responding to the transactions over the router network. Each SBC sends and receives the flits over the router network according to the schedule. The flits sent from different client circuits are interleaved using time-multiplexing on the first and second shared physical channels.

Abstract: A wireless communication apparatus performs communication with a relay apparatus that performs change processing for changing a channel for wireless connection upon detecting an interference condition. The wireless communication apparatus includes a wireless communication unit and a communication control unit. The wireless communication unit establishes the wireless connection with the relay apparatus. The communication control unit performs control for disconnecting the wireless connection, when the communication with the relay apparatus through the wireless connection stops for a period based on a set timeout time. The communication control unit increases the period before the control for disconnecting the wireless connection is performed, when the wireless connection is performed through a target channel on which the change processing is performed.

Abstract: The present disclosure provides a data transmission method of a system in an IP based broadcasting network, the data transmission method comprising the steps of: generating an MPEG media transport protocol (MMTP) packet using a media processing unit (MPU) for a service; generating an IP packet using the MMTP packet; generating a layer 2 (L2) packet using the IP packet and generating a layer 1 (L1) packet stream using the L2 packet; and transmitting the L1 packet stream, wherein absolute time information of the system is included in one of a transmission frame of the L1 packet stream and the L2 packet.

Abstract: A device provides path data associated with a network that includes network devices interconnected by links. The path data includes data identifying a first path and a second path to be provided through the network. The device provides an instruction to cause the network devices to provide information identifying the first path and to route traffic via the first path, and receives an indication of a failure associated with the first path. The indication causes the network devices to provide information identifying the second path and to re-route the traffic from the first path to the second path. The device causes the failure associated with the first path to be repaired while the traffic is re-routed to the second path, and provides, based on causing the failure to be repaired, another instruction to cause the network devices to route the traffic via the first path.

Abstract: A wake-up signal being for providing an indication to one or more of the communications devices (UEs) that they should receive a paging message in one or more of a plurality of paging occasions, and transmitting a candidate indicator message to the one or more UEs in an unused portion of radio resources of the wireless access interface that is allocated for signals other than the candidate indicator message, the candidate indicator message indicating one or more characteristics of the wake-up signal by which the wake-up signal may be transmitted as one or more candidates, wherein the one or more candidates are to be searched for detection of the wake-up signal by the one or more UEs.

Abstract: A low aggregate power consumption wireless communication network comprising: a plurality of wireless transceiver subsystems systems configured for distributed installation within a physical region, each transceiver subsystem comprising: a listening device configured to receive radio frequency transmissions; a wireless transceiver; and a power controller operatively connected to the listening device and the wireless transceiver, the power controller being configured to cause the wireless transceiver to assume a low power sleep state and transition to an awake state in response to a trigger from the listening device, the listening device being configured to monitor received transmissions for a network access request signal, indicative of a need for utilisation of the wireless transceiver, and in response to receiving the network access request signal, trigger the power controller to cause transition of the transceiver from a sleep state to an awake state, whereby network communication functionality is enabled f

Abstract: The embodiments of the application provide a communication method, terminal equipment, and network equipment. The method comprises: determining a first data transmission format used to generate first transmission version of uplink data; selecting, from a data resource pool, a first data transmission resource used to transmit the first transmission version; transmitting, to network equipment, a first scheduling configuration message containing information of the first data transmission resource and the first data transmission format; encoding and modulating, according to the first data transmission format, the uplink data, to generate the first transmission version; and transmitting, to the network equipment, by means of the first data transmission resource, the first transmission version, so as to facilitate the network equipment to receive, demodulate and decode, according to the first scheduling configuration message, the first transmission version.

Abstract: The present invention relates to a method for transmitting and receiving a signal in a wireless communication system and a device therefor and, more particularly, the present invention relates to a method and a device therefor which comprise generating at least one wake-up signal (WUS) sequence, attempting to detect at least one WUS on the basis of the generated WUS sequence, and monitoring a paging signal in a paging occasion (PO) associated with at least one WUS if at least one WUS has been detected, wherein the WUS sequence is generated on the basis of a cyclic shift, a Zadoff-Chu sequence and a complex value associated with a scrambling sequence.

Abstract: A method for allocating wireless resources based on sensitivity to interference provides a base station controller which, within an area of overlap of adjacent wireless cells, determines a set of neighboring cell pairs from a plurality of cells. The base station controller sorts the set of neighboring cell pairs according to the number of inner-pair interfered user equipment devices of each neighboring cell pair where inner-pair interfered user equipment devices are user equipment devices located in coverage areas of the neighboring cell pair and allocates resource blocks for each neighboring cell pair sequentially based on the sorted set. An apparatus employing the method is also disclosed.

Abstract: A communication system includes a programmable switch configured to perform packet transfer and queuing, a plurality of VNFs configured to execute network functions on packets, and a controller configured to control the programmable switch including a queue distribution unit configured to distribute input packets to any of the plurality of VNFs according to an instruction of the controller with respect to a queue group, the plurality of VNFs each include a load measurement unit configured to measure an amount of consumption of server resources and notify the controller of a load status, and the controller includes a load analysis unit configured to analyze a load of each of the plurality of VNFs based on a certain rule, and a queue control unit configured to change a queue distribution rule.

Abstract: The present specification provides a method for transmitting a transport block (TB) by using downlink control information (DCI) in a wireless communication system. In particular, the method, performed by a terminal, comprises: receiving first DCI from a base station; selecting a modulation and coding scheme (MCS) table, on the basis of the first DCI; calculating a first transport block size (TBS), on the basis of at least one of a format of the first DCI and the selected MCS table; and transmitting, to the base station, a first TB according to the calculated first TBS, wherein the first TBS is the same as a second TBS of a second TB transmitted before the transmission of the first TB.

Abstract: A system information updating method, a user equipment and a base station are provided, the method including: receiving, by the wake-up radio (WUR) interface of the user equipment, a wake-up signal sent by the base station, where the wake-up signal is used to wake up a main radio interface of the user equipment and instruct the main radio interface of the user equipment to receive updated system information, the wake-up signal includes system information (SI) update transmission control information, and the SI update transmission control information includes information required for receiving the updated system information; waking up, by the WUR interface of the user equipment, the main radio interface of the user equipment; and receiving, by the user equipment according to the SI update transmission control information through the woken-up main radio interface, the updated system information sent by the base station.

Abstract: The disclosed technology is directed towards dynamic spread spectrum (DSS) deployments, in which two cells such as an LTE cell and a new radio (NR) cell share available physical resource blocks during a given transmission time interval. The LTE cell and NR cell determine priority values for their user equipments to be scheduled, and both cells provide requested scheduling information including the priority values and requested resource blocks for user equipments in the upcoming transmission time interval. Based on the priority values, a real-time joint scheduler processes the combined scheduling information from both cells to determine how many physical resource blocks of the total available to allocate to the LTE cell and how many to allocate to the NR cell for the next transmission time interval. To avoid collisions, the LTE cell and NR cell modify their respective UE schedules based on their respective number of allocated physical resource blocks.

Abstract: An apparatus (e.g., receive chain) for wireless communications may perform de-interleaving, de-rate matching, and hybrid automatic repeat request (HARQ) combining in a single step. The apparatus may include a data pool configured to store HARQ log likelihood ratio (LLR) data from previous transmissions. The apparatus may include a HARQ onload controller configured to load HARQ LLR data from the HARQ data pool into a HARQ buffer. The apparatus may include an LLR buffer configured to store received demodulated, interleaved, and rate matched LLR data. The apparatus may include a plurality of processing engines configured to, starting at different locations of the LLR buffer: receive new input data from the LLR buffer; combine the HARQ LLR data from the HARQ buffer with the new input data to generate de-interleaved, de-rate matched, and HARQ combined data; and write the de-interleaved, de-rate matched, and HARQ combined data into the HARQ buffer.

Abstract: Embodiments for handling multidestination traffic in a network are described. The multidestination traffic includes packets that are in transit to a multihomed destination in the network. Upon determining the destination is multihomed, a network switch determines a hash value from a selection of header values in the network traffic and uses the hash value to determine if the network switch is a designated forwarder for the multihomed destination. The network switch handles the network traffic according a designated forwarder status.

Abstract: A device receives network data associated with a network that includes network devices interconnected by links, wherein the network devices utilize segment routing. The device receives segment routing data associated with the network, wherein the segment routing data at least includes a list of segments associated with paths provided through the network by two or more of the network devices and corresponding links. The device merges the network data and the segment routing data to generate merged data, and processes the merged data, with an optimization model, to determine potential network plans within a particular time period. The device identifies a potential network plan, of the potential network plans, that maximizes throughput associated with operating the network, and performs one or more actions based on the potential network plan.

Abstract: Systems, apparatuses, and methods are described for wireless communications. Third party charging may be performed to provide services for a wireless device. One or more policies may be determined for the wireless device based on charging information.

Abstract: Aspects provide for autonomous adjustment of the uplink and downlink transmission timing in wireless communication networks. A scheduled entity (e.g., a user equipment (UE) or child integrated access backhaul (IAB) node) may observe a change in the downlink reception timing of downlink signals transmitted from a scheduling entity (e.g., a base station or parent IAB node). The scheduled entity may then autonomously adjust its uplink transmission timing to compensate for the change in downlink reception timing. In addition, the scheduled entity may further maintain the same downlink transmission timing irrespective of the change in downlink reception timing.

Abstract: A method of managing traffic flow through a multi-node network, the multi-node network interlinking a first mobile network and a second mobile network, the method including, when a subscriber user equipment entity that has as a home network the first mobile network and that is operating in the second mobile network attempts to establish a connection to a correspondent user equipment entity: communicating a connection request message from the second network to the first network over a first route via a set of nodes of the multi-node network; at least one of the nodes of the set: identifying a candidate alternative route between nodes of the multi-node network for at least part of a connection between the subscriber user equipment entity and the correspondent user equipment entity; and transmitting an indication of the candidate alternative route to a controller; and the controller selecting, in accordance with predetermined criteria, one of the first route and the at least one candidate alternative route and c