Abstract: A method performed by a core network node for handling a data service session in a packet communication network is provided. The packet communication network is configured to support fixed access between a User Equipment (UE) and an access network node. The core network node obtains a decision whether a monitored bandwidth over the fixed access is below a bandwidth requirement authorized to the UE. The bandwidth over the fixed access is monitored for a data service session between the UE and the Data Network via the fixed access. The core network node obtains a decision of how to handle the data service session based on the decision whether the monitored bandwidth over the fixed access is below the bandwidth requirement.

Abstract: Methods, systems, and devices for wireless communications are described. A base station may configure an outer coded block which a user equipment (UE) may implement to recover an unsuccessfully decoded transmission. The base station may send, to the UE, downlink control information (DCI) indicating an outer coding scheme for the group of data blocks (e.g., a first data block and a second data block). The UE may monitor for the data blocks and the outer coded block. The UE may decode the data blocks based on the outer coded block and the outer coding scheme. In some examples, the outer code block may be made up of a combination of the first and second data blocks. The UE may use the combination of the outer coded block and one of the data blocks to decode an unsuccessfully decode data block.

Abstract: Disclosed are an HMC controller and a controlling method on a CPU side and an HMC side for a low power mode, and a recording medium related thereto. The CPU side HMC controller includes a plurality of link units, each of which includes a link master for storing request packets of a CPU in a request buffer and transmitting the request packets to an HMC side HMC controller in the order that they are stored; and a link slave for storing the request packets received from the HMC side HMC controller in a response buffer and transmitting the request packets to the CPU in the order that they are stored.

Abstract: A system includes a satellite communications gateway including a first receiver. The first receiver is programmed to receive a first signal including a time-division multiplexed (TDM) return and a time-division multiple access (TDMA) return overlapped in an allocated frequency range. The receiver is further programmed to recover the time-division multiplexed return from the first signal; and output the time-division multiplexed return.

Abstract: Methods, systems, and apparatuses are described for a base station initiated control mechanism for supporting supplemental a link. In some aspects, control information associated with a directional, first radio access technology (RAT) for a user equipment (UE) may be identified at a first base station, the first base station configured to communicate with the UE using the directional, first RAT, and the control information associated with the directional, first RAT may be transmitted to a second base station to forward to the UE using a second RAT.

Abstract: Biometric authentication, decentralized learning frameworks, and adaptive security protocols and services for a distributed operator terminals network are described. In some embodiments, the terminals may be hardware terminals, kiosks, or clients. In some embodiments, a security analysis may be performed, and security scores may be determined, for visitors requesting operations at terminals. Security scores may be determined by a vendor, in communication with the operator terminals, based on aggregation of a plurality of factors, wherein each factor may be weighted. The factors may incorporate operator settings or preferences. In one embodiment, the factors include one or more facial recognition factors. The one or more facial recognition factors may be used for biometric authentication. The vendor may use the security scores to determine user privileges or permissions for the operations. The vendor may deliver instructions or messages to the terminals based on the determinations.

Abstract: A data distribution system, that includes a source router; destination routers; and a gateway; wherein the source router is arranged to receive multiple data streams and wirelessly transmit the multiple data streams over multiple source router output wireless communication links towards the destination routers; wherein the destination routers are arranged to wirelessly receive the multiple data streams over destination routers input wireless links and to transmit the multiple data streams to the gateway; and wherein the gateway is arranged to reconstruct the multiple data streams and output the multiple data streams over one or more gateway output links.

Abstract: Systems, methods, and computer-readable storage media for dynamically adjusting nodes in a mesh network embedded in objects. The nodes, which are individually capable of sensing and/or transmitting data, are paired together such that when one node is active, the other node is collecting energy via solar, wind, or other energy collecting means. When a node reaches a certain energy level, the nodes can switch status, such that the passive node becomes active and vice versa. Exemplary objects in which the systems can be embedded include benches, receptacles, and light fixtures.

Abstract: Embodiments herein relate to a method performed by a radio-network node (110) for handling Beam Reference Signals, BRS, of a beam transmitted by the radio-network node (110) in a wireless communications network. The radio-network node creates BRS blocks, wherein each BRS block comprises a respective group of adjacent subcarriers for the BRS belonging to a port of the beam, wherein the BRS belonging to the port is carried over each subcarrier in the respective group of adjacent subcarriers of each BRS block. Furthermore, the radio-network node transmits the BRS blocks spread over a bandwidth in a same Orthogonal Frequency Division Multiplexing, OFDM, symbol.

Abstract: A wireless communication device (16) is configured for use in a wireless communication system. The device (16) in this regard is configured to receive a command (22) that commands the device (16) to perform a link switch (24) from a source link (20A) to a target link (20B) responsive to fulfillment of a condition. The command (22) may indicate a target link configuration (26) relative to a source link configuration. The device (16) is also configured to store information (30) from which the target link configuration (26) indicated by the command (22) is determinable irrespective of any change to the source link configuration occurring after receipt of the command (22). In some embodiments, the device (16) is configured to, responsive to fulfillment of the condition, perform a link switch (24) from the source link (20A) to the target link (20B) using the target link configuration (26) as determined from the stored information (30).

Abstract: A radio communication method includes a step in which a MeNB (210) transmits a bearer setup instruction to establish a bearer including a first tunnel and a second tunnel based on a setup request, and a step in which a CN-UP (300) establishes the first tunnel and the second tunnel based on the bearer setup instruction. The CN-UP (300) sets the same identifiers to a TEID on the CN-UP (300) side of the first tunnel and a TEID on the CN-UP (300) side of the second tunnel.

Abstract: A method, apparatus and computer program product are provided for facilitating efficient device discovery. In regards to a method implemented by a master device, a first identifier is received and stored. The method also receives a data packet comprising a second identifier from a particular device and determines whether at least a portion of the first identifier matches at least a portion of the second identifier. The method then, in an instant in which there is a match, causes a connection procedure to be initiated with the particular device. According to one example embodiment, the first identifier may be received from via a cloud service. According to another example embodiment, the first identifier may be received during an active data connection with another device. Corresponding apparatus and computer program products as employed by both master and slave devices are also provided.

Abstract: An apparatus, system and method are provided for transmitting data from logical channel queues over a telecommunications link, each of the logical channel queues capable of being associated with quality of service attributes, the method including determining available resources for transmission over the telecommunications link in a frame; selecting one of the logical channel queues based on a first one of the quality of service attributes; packaging data from the selected one of the logical channel queues until one of: a second one of the quality of service attributes for the selected one of the logical channel queues is satisfied, the available resources are used, or the selected one of the logical channel queues is empty; and repeating the selecting step and the packaging step for remaining ones of the logical channel queues.

Abstract: A central communication unit of a motor vehicle and to a method for controlling the communication between a plurality of applications by way of such a central communication unit are provided. The central communication unit has a communication organization module, which can actively distribute the available external radio connection capacities between the central communication unit and at least one transmitting/receiving device to individual active data connections of the applications in accordance with predetermined criteria. In the central communication unit, the available external radio connection capacities are distributed among the individual data connections of the individual applications in a specific, controlled manner. The criteria for this are the demand for connection capacity and/or the priorities of the different data connections.

Abstract: Certain features relate to operating a distributed antenna system or repeater system communicating frequency-division duplexing (“FDD”) signals in a time-division duplexing (“TDD”) mode. A TDD mode scheduler is configured for monitoring a downlink communications channel for the start of a downlink frame, sub-frame, or resource slot. Based on the start of a downlink frame, sub-frame, or resource slot, the TDD mode scheduler can identify a TDD transmission time-slot. The TDD mode scheduler can schedule high-powered downlink sub-frames during the TDD transmission time-slots where higher power output may be desirable. Based on the indication of the TDD transmission time-slot, a transmit/receive controller can increase the gain of the downlink communication and reduce the gain of the uplink communication.

Abstract: A system for controlling a contention state for a communication link between a base station controller and customer premises equipment in point-to-multipoint communication. The contention state is controlled using a state machine, which includes a grant pending absent state in which a unicast request slot is maintained open for use by the customer premises equipment. During the grant pending absent state, the customer premises equipment sends no upstream data to the base station controller but can use the unicast request slot to request a data slot for sending upstream data to the base station controller. In the grant pending state, the customer premises equipment preferably uses piggybacking to request grant of a next data slot while sending upstream data to the base station controller.

Abstract: Systems and methods of performing rate limiting traffic shaping with a time-indexed data structure in a network device are provided. A network interface driver of the network device can received packets at the packet layer of a network host from a plurality of applications. The network interface driver can prevent one of the applications from sending additional packets for transmission until the application received a transmission completion notification indicating a packet previously forwarded to the packet layer of the network host has been transmitted. The network interface driver can process the received packets to determine a transmission time for each packet based on at least on rate limit policy. The network interface driver can store an identifier associated with the respective packet in a time-indexed data structure at a position associated with the transmission time determined for the packet.

Abstract: A network node in a service function chaining system receives a media stream from an endpoint device. The media stream is associated with a media session between the endpoint and at least one other endpoint. The network node determines a path for the media stream. The path includes an ordered list of functions to process the media stream. The network node determines a session identifier for the media stream and encapsulates the media stream with a header. The header includes an indication of the path and the session identifier.

Abstract: A wireless communication device and an antenna control method thereof are disclosed. The wireless communication device has a plurality of antennas, a received signal strength indicator detecting module and a control module. The wireless communication device signally communicates with an AP-router via the plurality of antennas. The received signal strength indicator detecting module individually detects a received signal strength indicator of each antenna and the AP-router. The control module assigns the antenna with the strongest received signal strength indicator among the plurality of antennas to be the main data transmission antenna and switches off at least one of the others of the plurality of antennas.

Abstract: A method and an apparatus of cooperating with a plurality of base stations in a wireless communication system. A cloud cell is configured with a plurality of base stations that cooperate with each other for a mobile station and synchronizes user contexts for serving the mobile station among the plurality of base stations included in the cloud cell, and the plurality of base stations cooperate with each other to provide a communication service to the mobile station. The present disclosure reduces generation of a handover when the mobile station moves between base stations, and increases the data yield of the mobile station by transmitting and receiving data in cooperation with base stations in a cloud cell at a shaded area or a cell border.

Abstract: A method including: receiving network performance parameters of a plurality of data networks, the network performance parameters being collected by individual client devices of a plurality of client devices; receiving location data indicating a geographic location of the individual client devices when the network performance parameters were collected, the received location data being associated with respective network performance parameters; selecting, from the received location data, a subset of the received location data associated with network performance parameters of a first data network of the plurality of data networks; calculating a geographic location of a first access point of the first data network based on at least one geographic location indicated by the subset of the received location data; and building a database entry indicating the calculated geographic location of the first access point.

Abstract: A method of allocating resources in a multi-hop wireless sensor network includes (A) when two arbitrary adjacent links among links connecting all nodes have a violation relationship where the two arbitrary adjacent links occupy the same time slot, by a network coordinator node, allocating different time slots to the two arbitrary adjacent links according to a resource allocation request command message from each of nodes configuring the multi-hop wireless sensor network, (B) when two arbitrary links which are not adjacent to each other among the links are within a communication distance, by the network coordinator node, allocating different frequency channels to the two arbitrary links, and (C) when resource allocation for all of the links is completed according to steps (A) and (B), checking whether an end-to-end maximum allowable time required by each of paths established by the links is satisfied.

Abstract: A method of wirelessly connecting at least two devices for data communication and a device that is wirelessly connectable by using the method, the method including: generating and wirelessly sending service set identifier (SSID) information of the at least two devices, the at least two devices performing the generating and the wireless sending, collecting and analyzing the wirelessly sent SSID information, the collecting and the analyzing to be performed by the at least two devices, setting one of the at least two devices as a server based on a result of the analyzing, and wirelessly connecting the at least two devices, the wirelessly connecting to be performed by the device set as the server.

Abstract: Disclosed are methods for allowing a wireless communication device (or “user equipment” or “UE”) to receive signaling information when there is a power imbalance between a primary cell (“Pcell”) and a New Carrier Type (“NCT”) secondary cell (“Scell”). In one aspect, the UE reduces its downlink bandwidth to cover only a carrier of the Pcell, receives control signaling information, if present, and then increases its bandwidth to cover carriers of both the Pcell and Scell.

Abstract: Various implementations are directed to providing inter-layer dependency information. In one implementation, syntax elements are generated that indicate an inter-layer dependency structure among three-dimensional video (3DV) layers. Based on the inter-layer dependency structure, an inter-layer reference is identified for a picture from a layer of the 3DV layers. The picture is encoded based, at least in part, on the inter-layer reference. Corresponding decoding implementations are also provided. Additionally, in another implementation, a transmission priority and an indication of network congestion are used to determine whether to transmit data for a particular 3DV layer. The transmission priority is based on an inter-layer dependency structure among multiple 3DV layers. Another implementation is directed to a network abstraction layer unit that can explicitly identify and convey inter-layer references and corresponding dependencies.

Abstract: A method and apparatus for transmitting/receiving a status report in a mobile communication system where Automatic Repeat reQuest (ARQ) and Hybrid Automatic Repeat reQuest (HARQ) operate together. An ARQ receiving (Rx) entity determines whether transmission of the status report is permitted, if a predetermined status report generation condition is satisfied. If the transmission of the status report is permitted, the ARQ Rx entity generates a status report depending on a reception status of ARQ packets received up to the time the transmission of the status report is permitted, and transmits the generated status report to an ARQ transmitting (Tx) entity through an allocated transmission resource. The ARQ Tx entity determines an initial reception time of an HARQ packet including the status report as a generation time of the status report, and performs retransmission according to the status report.

Abstract: A time slave station includes a synchronization error detecting unit that includes: a CW synchronization error detecting counter that counts a synchronization correction cycle of a transmission path in which a frame is transmitted in a first direction; a CCW synchronization error detecting counter that counts a synchronization correction cycle of a transmission path in which a frame is transmitted in a second direction; a CW synchronization-enabled time period timer that counts a CW synchronization frame reception-enabled time period; a CCW synchronization-enabled time period timer that counts a CCW synchronization frame reception-enabled time period; a CW-based synchronization error determining unit that determines whether the CW synchronization frame is received in the CW synchronization frame reception-enabled time period; and a CCW-based synchronization error determining unit that determines whether the CCW synchronization frame is received during the CCW synchronization frame reception-enabled time perio

Abstract: Provided is a method and apparatus for discontinuously transmitting/receiving packets for low-power consumption of a terminal in a cellular system for packet transmission. The present research provides a method and apparatus that can perform a low-power consuming operation when a terminal is in active state in a cellular system. The method for discontinuously transmitting/receiving packet data to reduce power consumption of a terminal in a cellular system, including the steps of: a) establishing discontinuous reception/transmission (DRX/DTX) parameters including discontinuous DRX/DTX cycle information for terminals operating in a transmission suspension mode, which is a sub-state of an active state; and b) performing DRX/DTX based on the DRX/DTX parameters in the terminals operating in the transmission suspension mode.

Abstract: A wireless communication system and method for use with radio access network with a plurality of client devices are disclosed. The system includes a scheduling controller including a processor configured to receive session information from the radio access network for each client device. The session information includes a utility associated with each session. The scheduling controller is configured to generate a schedule for a spectrum valley based on the session information.

Abstract: To enable a user terminal that receives a discovery signal of another user terminal for performing Type 1 discovery to synthesize and receive the discovery signal, a user terminal capable of executing inter-terminal direct signal transmission/reception has a selecting section that selects a discovery signal transmission resource at the next period for each period, and a transmission section that transmits information on the discovery signal transmission resource at the next period, together with the discovery signal.

Abstract: A multi-nodal wireless communication system comprises a system controller configured to create a link layer communication network. The system controller comprises a set of hardware finite state machines configured to receive a frame from a device associated with the link layer communication network as a request for data transmission, identify that the frame includes a unique ID value, transmit the unique ID value to an associated hardware queue, the hardware queue configured to construct at least one frame header associated with a base station to facilitate data transmission between the base station and the first device or between the first device and the network using one frame header, and process the frame in the link layer communication network by facilitating communication between the first device and the base station using the at least one frame header or between the first device and the network using one frame header.

Abstract: An apparatus and method for collecting the radio frequency (RF) feature of a wireless device in a wireless communication apparatus are disclosed herein. The RF feature extraction unit adds a tag having a unique value to a received radio signal, and extracts RF feature information from the radio signal. The MAC information extraction unit extracts the source MAC address and tag information of a MAC protocol frame from the received radio signal, and then removes the added tag. The tag comparison unit selects an source MAC address and RF feature information, when the tags have the same value, from the RF feature information and tag information from the RF feature extraction unit and the source MAC address and tag information from the MAC information extraction unit. The RF feature storage unit stores the selected source MAC address and RF feature information.

Abstract: A method, computer-readable storage device, and apparatus for allocating a plurality of timeslots of each channel of a plurality of channels in a wireless network are disclosed. For example, the method determines a location and a velocity for each user endpoint device of a plurality of user endpoint devices, estimates a future data rate for each user endpoint device at the location, estimates future timeslot allocations of each channel of the plurality of channels in the wireless network in accordance with the future data rate that is predicted for each user endpoint device, and allocates each timeslot of the plurality of timeslots of each channel of the plurality of channels in the wireless network to a user endpoint device of the plurality of user endpoint devices in accordance with the future timeslot allocations that are estimated for each channel.

Abstract: A method for allocating radio resources by a coordinating wireless communications device in a wireless communications network including a plurality of wireless communications devices includes: obtaining a plurality of supported narrow-band channels in the wireless communications network; selecting a primary channel from the supported narrow-band channels and using the primary channel to communicate with the plurality of wireless communications devices; organizing the plurality of wireless communications devices into one or more communication groups; and assigning one of the one or more communication group a non-overlapping operating channel for multi-user multiple-input multiple-output (MU MIMO) communication with the coordinating wireless communications device.

Abstract: The present invention relates to methods for efficiently performing device to device synchronization and device identification in a device to device communication system, and devices for supporting the methods. The method for supporting device to device synchronization and identification in a wireless access system that supports device to device communication according to one embodiment of the present invention comprises the steps of: allowing a first device to broadcast a RACH signal for device to device synchronization in a peer discovery section; allowing the first device to receive a first response message transmitted from a second device as a response to the RACH signal; and transmitting a message including device identification information for the first device to the second device.

Abstract: A method and system for virtualization of access points are disclosed. According to certain embodiments, in order to support L3 mobility in WLANS that use cloud-based controllers, methods including predicting client roaming range, and employing a roaming anchor AP are used.

Abstract: An access network for terminals of a digital telecommunications system includes base stations adapted for receiving radiofrequency signals emitted by the terminals, each terminal a physical layer processing module adapted to form a radiofrequency signal on the basis of binary data in accordance with a predefined physical layer protocol. Moreover, for at least one base station, termed the “partial station”, an inverse physical layer processing, making it possible to extract binary data from a radiofrequency signal, is distributed between the partial station and a processing server distinct from the partial station, an inverse physical layer processing module being made up of a first inverse processing module, integrated into the partial station, and a second inverse processing module, integrated into the processing server. The invention also relates to a method of digital telecommunications.

Abstract: In a message delivery system wherein messages having topic portion defining a topic and a body portion containing information relating to the defined topic are delivered to subscribers based on the topics associated with the messages, the messages are placed in a queue for delivery, and in the event of congestion one or more of the messages are replaced with discard indication messages containing the topics associated with the discarded messages without the corresponding body portions.

Abstract: Disclosed are methods for allowing a wireless communication device (or “user equipment” or “UE”) to receive signaling information when there is a power imbalance between a primary cell (“Pcell”) and a New Carrier Type (“NCT”) secondary cell (“Scell”). In one aspect, the UE reduces its downlink bandwidth to cover only a carrier of the Pcell, receives control signaling information, if present, and then increases its bandwidth to cover carriers of both the Pcell and Scell.

Abstract: A method for communicating over a radio frequency channel in a network including a primary node and multiple secondary nodes for telecommunications comprises receiving, by a secondary node on the radio frequency channel, beacon messages sent by nodes in its radio neighborhood, each indicating a number of radio hops separating the primary node from the node of the radio neighborhood having sent the message, selecting, by the secondary node, called child node, the node from the wireless neighborhood having sent the beacon message indicating a minimum number of hops as the parent node, and in order to send information to the primary node, transmitting the information over the radio frequency channel to the parent node thus selected.

Abstract: An apparatus for receiving information at a location and communicating at least a subset of said information to a second location comprising an energy module; a communications module; and a data module.

Abstract: A system and method for communicating between a vehicle and a central facility includes initiating at a vehicle a request for turn-by-turn directions; establishing a packet-switched call between the vehicle and a central facility using a wireless carrier system and a mobile dialed number (MDN) associated with the vehicle; receiving determined route information at the vehicle from the central facility via the packet-switched call; offering a vehicle occupant a service option that uses a circuit-switched call; and if the vehicle occupant accepts the service option, directing the wireless carrier system to establish the circuit-switched call using the MDN while maintaining the packet-switched call in a dormant state.

Abstract: The present disclosure relates to a base station and a method for Operation and Maintenance, OaM, communication in a communication system. The base station comprises a first interface configured to communicate with a core network, including OaM communication, and a second interface configured for OaM communication. The second interface is arranged to communicate wirelessly with the core network via another base station. The base station and the method facilitates troubleshooting remote management problems in OaM communication.

Abstract: In a radio system where wireless nodes are in contact, the wireless nodes are enabled to exchange information with adjacent nodes. In addition, distant nodes out of range for direct communication can be communicated with by forwarding data over multiple hops. The wireless nodes are configured to perform sensing of at least one radio resource. A node can be adapted to combine the sensing measurement data into a sensing result, such as an estimate of the probability of whether the resource is free or not. The sensing performed in a node is distributed to at least one other wireless node. Each wireless node can, therefore, access sensing information from at least one other wireless node located in the vicinity of the wireless node. Based on the collective information from at least one other node, a wireless node can make an improved decision if a particular radio resource is free to use or not.

Abstract: A mobile station UE according to the present invention includes a notification reception unit 21 configured to receive an SIB2 in E-UTRAN and a barring processor unit 22 configured to perform predetermined barring processing in E-UTRAN based on information elements included in the SIB2. The barring processor unit 22 is configured to perform barring processing for origination of a CS call using a CSFB function based on “ac-BarringForCSFB-r10” and “ac-BarringForMO-Data” among the information elements.

Abstract: Techniques disclosed herein provide for enhanced LTE Positioning Protocol (LPP) Reliable Transport where the receiver of an LPP message sends a non-piggybacked acknowledgement.

Abstract: An IOP 14 includes a path-state determining unit 54 and a path selecting unit 55. The path-state determining unit 54 determines whether there is any path which is neither in process of data transmission nor in a prohibition period in which data transmission is prohibited for a predetermined time since the last data transmission has been completed out of multiple paths connecting a device to a communication partner device. When the path-state determining unit 54 determines that there is no path which is neither in process of data transmission nor in the prohibition period, the path selecting unit 55 selects a path which completes data transmission but does not pass through the prohibition period as a path for data transmission.

Abstract: Position based WPAN (Wireless Personal Area Network) management. Based on either the relative position or the specific location of devices within a WPAN, communication between the various devices is managed by grouping the devices into two or more groups. In addition, the communication between theses various devices may be governed by profiles assigned to the groups (or even the actual individual devices) that are assigned based on their locations within the WPAN. The relative locations of the devices may be made using ranging that is performed by transmitting UWB (Ultra Wide Band) pulses between the various devices within the WPAN. Alternatively, each device may include GPS (Global Positioning System) functionality and information corresponding to the specific locations of the devices may be communicated between the devices, and that information may be used to group devices user and/or assign profiles to govern the communication to and from the devices.

Abstract: Aspects of mobility management within a wireless communications network including a plurality of sectors are disclosed. In an example, the wireless communications network includes a first cluster of sectors with at least one target sector and at least one supporting sector. The multicast communication session is carried within both the target and supporting sectors. In another example, a second cluster can be included within the network for supporting the same multicast communication session that includes its own target and supporting sectors. In this example, the first cluster transmits multicast media on a first interlace-multiplex (IM) pair of a downlink broadcast channel (BCH) and the second cluster transmits multicast media on a second IM pair of the downlink BCH. If sectors of the first and second clusters are at least adjacent, the network controls a manner in which the first and second clusters carry the multicast media.

Abstract: A mobile telecommunications architecture is disclosed. A downlink mobile telecommunications signaling message is received via a first communication interface associated with a single shared network controller connection to a mobile switching center (MSC) server. The downlink mobile telecommunications signaling message is mapped to one of a plurality of small scale base stations each of which is configured to perform at least some network controller functions.