Abstract: It is presented a method performed in a wireless device of a cellular network also comprising a radio base station, the wireless device being in a discontinuous reception mode comprising receiving periods and idle periods. The method comprises the steps of: determining that a control signal is expected to be received from a radio base station during a primary receiving period; when a control signal fails to be correctly received from the radio base station during the primary receiving period, adding a secondary receiving period covering a first time interval when a new control signal is expected to be received; and when a control signal is correctly received from the radio base station during the primary receiving period refraining from adding a secondary receiving period. Corresponding wireless devices computer program and computer program products are also presented.

Abstract: A system for generating by an Access Network Discovery and Selection Function, ANDSF, access network discovery information, ANDI, for transmission to a User Equipment, UE, of a network subscriber. The system includes an ANDI repository storing, for each of a plurality of access networks, an ANDI data entry having ANDI for the respective access network. An ANDI generating policy repository stores a plurality of ANDI generating policies. An association component is configured to associate each of a plurality of network subscriber identifiers with at least one of the ANDI generating policies. An identification component is configured to identify the at least one ANDI generating policy corresponding to a network subscriber identifier associated with the UE. An ANDSF component is configured to apply the at least one identified policy to the ANDI data entries stored in the ANDI repository to generate the ANDI for transmission to the UE.

Abstract: The present solution is related to a method for distributing flows of network traffic across a plurality of packet processing engines executing on a corresponding core of a multi-core device. The method includes receiving, by a multi-core device intermediary to clients and servers, a packet of a first flow of network traffic between a client and server. The method also includes assigning, by a flow distributor of the multi-core device, the first flow of network traffic to a first core executing a packet processing engine and distributing the packet to this core. The flow distributor may distribute packets of another or second flow of traffic between another client and server to a second core executing a second packet processing engine. When a packet for the flow of traffic assigned to the first core is received, such as a third packet, the flow distributor distributes this packet to the first core.

Abstract: A Secure Location Session Manager (SLSM) is an intelligent router for open mobile alliance (OMA) Secure User Plane Location (SUPL) Version 1.0 (and later) messages best implemented when multiple, geo-diverse SUPL servers are deployed in a distributed environment, such as an active-active redundant configuration within a wireless carrier's network. In a standalone option, the SLSM acts as a “middleman” for all SUPL positioning messages between a mobile device and a responsible SUPL server. In an embedded option, the SLSM resides within an existing server. The SLSM manages and stores session information for all pending and ongoing SUPL positioning sessions in internal tables for routing and load balancing purposes. The external interfaces of the SLSM consist of OMA ULP messages.

Abstract: A physical network address of one of a set of wireless customer-premise monitoring devices is translated to a shared logical device physical network address in response to receipt from an application server of a first data packet addressed to the physical network address. The shared logical device physical network address forms a logical device group and physically addresses each of the set of wireless customer-premise monitoring devices over a single wireless communication channel. The physical network address of the one of the set of wireless customer-premise monitoring devices is embedded within the first data packet addressed to the shared logical device physical network address. The first data packet is sent to the shared logical device physical network address.

Abstract: A node (115, 210) for a mobile network (100), arranged to forward control plane signaling to and from an end user (140, 216) in the system (100) to other nodes in the system (100) and also being arranged to keep track of a state of the end user (140, 216). The node (115, 210) is arranged to use a so called VRRP protocol, Virtual Router Redundancy Protocol to monitor the function of a second node (120, 212) in the system, a so called “peer node” to the node (115, 210) itself and to have its own function be monitored by a VRRP of the peer node (120, 212). The node (115, 210) is also arranged to use a second protocol for transferring information on a state of the end user (140, 216) to the peer node. A node (120, 212) for receiving such information is also disclosed.

Abstract: Techniques for reporting channel state information (CSI) in a multi-carrier wireless communication system are disclosed. In some examples, a user equipment determines a configuration for reporting CSI for each component carrier (CC) in a plurality of component carriers. For a first subframe, the user equipment determines a priority for transmitting CSI associated with the plurality of CCs based at least in part on the configuration. The user equipment sends, in the first subframe, a CSI report including the prioritized CSI. The CSI report can include CSI for a single CC, or CSI for multiple CCs. For multi-CC reporting of CSI, the user equipment can multiplex CSI reports or CSI elements for the plurality of CCs up to an available payload size.

Abstract: The present invention relates to a wireless communication system, and more particularly, a method and device for performing network connection are disclosed herein. The method of a user equipment for performing network connection in a wireless communication system according to an embodiment of the present invention may include the steps of receiving information on a network connection for a second type service from a first base station providing a first type service in the user equipment; based upon information on the network connection, deciding whether or not the network connection is permitted and deciding a target of the network connection; and, when the network connection is authorized, transmitting a network connection request message to the target of the network connection.

Abstract: A method and apparatus for transmitting and receiving a Relay Physical Downlink Control Channel (R-PDCCH) being a control channel for a relay node (RN) in a wireless communication system are disclosed. To transmit an R-PDCCH to a RN, a BS includes a processor for interleaving a predetermined number of Control Channel Elements (CCEs), mapping the interleaved CCEs to at least one Virtual Resource Block (VRB) configured for R-PDCCH transmission, mapping the at least one VRB to at least one Physical Resource Block (PRB), and a transmitter for transmitting the R-PDCCH to the RN through the at least one PRB.

Abstract: The disclosure discloses a method of supporting arbitrary replacement of multiple data units, which includes: configuring patterns for arbitrary position replacement of N data units; and during a process of data unit replacement, performing a replacement operation on the N data units according to the configured patterns. The disclosure further discloses a device of supporting arbitrary replacement of multiple data units. By means of the method and device, an occupied area of a data unit replacement circuit in a chip can be decreased, and power consumption can be reduced.

Abstract: Some of the example embodiments are directed towards a base station for determining a control timing configuration in order to provide a subframe timing setting for configuring downlink HARQ-ACK control timing for a cell serving a user equipment in a multiple cell communications network. The user equipment is served a TDD based cell and a FDD based cell. Some example embodiments are directed towards the user equipment the control timing configuration as discussed above.

Abstract: A methodology is described for providing a dedicated interface-level oversubscription diagnostics queue that would store header data and timestamps for ingress frames which would otherwise be dropped due to the input FIFO queue being full. When the microburst is over, the data may be transmitted to the main CPU to analyze the cause of oversubscription as well as affected traffic.

Abstract: The present disclosure relates to the technical field of LTE-A, and discloses a method for air interface synchronization between base stations. A base station to be synchronized, which simultaneously monitors a plurality of neighboring base stations, can select one neighboring base station to perform time-service synchronization in accordance with different criteria in order, such as whether CoMP is necessary, the time-service hop count, time-service delay, and the CQI level (channel quality indicator) and the like. That is, the most suitable synchronization source is determined according to a certain priority order. Such solution both applies to a phase of initial establishment of air interface self-synchronization between base stations, and also to a phase of periodic synchronization maintenance. In addition, the technical effect of such solution is particularly prominent in the case of intensively arranged Small Cells.

Abstract: A radio measurement collection method using UE configured to perform a process of retaining a measurement log including a measurement result of a radio environment according to a measurement configuration set by a measurement configuration message received from a network includes a step S109 in which the network transmits a UEInformationRequest message to request a transmission of the measurement log to the UE, and a step S110 in which the UE transmits a UEInformationResponse message to transmit the measurement log to the network. In step S110, the UE transmits the UEInformationResponse message to the network even when the measurement log is not retained.

Abstract: Systems and methods can be operable to provide subscription service level based channel assignment for network devices. In some implementations, such systems and methods can operate to create service flow list for use in assigning channels to CPE devices (e.g., modems, eMTAs, STBs, etc.). Such systems and methods can assist in assigning CPE devices to channels that correspond to their subscribed service level, thereby facilitating delivery of the proper level of service.

Abstract: Embodiments of the disclosure relate to a method and system for enhancing management channels. The method comprises operating TDM (Time Division Multiplex) clock frequency at a predefined rate higher than operating frequency based on available management channels. Transmitting data on the management channels using the TDM slots of a TDM based controller at a higher frequency rate.

Abstract: In one embodiment, a method includes transmitting media from a source to a plurality of receivers in a first source-specific multicast (SSM) channel and transmitting from the source to said plurality of receivers, a channel change message in an in-band transport control protocol message identifying a second SSM channel, wherein the receivers are configured to join said second SSM channel in response to said channel change message.

Abstract: A method for controlling error resilience in network communication is described. The method includes: determining, by a receiver-side controller, a packet gap representing a packet loss of a packet being communicated over a network; projecting, by the receiver-side controller, a retransmission time-out for at least one missing packet of the packet loss; issuing, by the receiver-side controller, a retransmission request for the at least one missing packet; if the packet gap is not filled within a first time period of the retransmission time-out, then issuing, by the receiver-side controller, at least one synchronization frame request; and selecting, by a sender-side controller, to respond to at least one of either of the retransmission request or the at least one synchronization frame request and neither of the retransmission request nor the at least one synchronization frame request.

Abstract: A system, method and computer-readable medium for simulating intelligent network triggers in a network system are provided. A mobile terminal is configured with an intelligent network Simulator adapted to detect call events and originate simulated intelligent network triggers in response to the call events. Call progressions implemented according to the simulated intelligent network triggers may be managed or coordinated by at least one of a carrier-gateway server and an Enterprise-gateway server. Call progressions implemented by simulated intelligent network triggers may be specified according to Enterprise member policies or general Enterprise behaviors.

Abstract: An example network device includes a network interface and a control unit that receives a packet having header information. The control unit includes a forwarding structure having a plurality of entries that each refers to one of a plurality of logical interfaces, a forwarding engine configured to access the forwarding structure to select a first logical interface to which to forward the packet based on the header information, wherein the first logical interface comprises a pseudo-device interface (PDI). The control unit also includes a PDI module that tunnels the packet to an external service complex (ESC) by at least applying a set of metadata to the packet, encapsulating the packet with a header, and forwarding the packet to the ESC via the network interface, and wherein the metadata allows the ESC to determine a set of services to be applied to the packet based on the metadata.