Abstract: The present invention relates to a donor radio access node (DeNB1) configured to wirelessly connect to, and to proxy operation of a source relay node (RN1), and further configured to forward upstream user traffic towards a serving gateway (S-GW1) during a handover of a particular mobile device (UE1) from a source cell (A) operated by the source relay node to a target cell (C) operated by a target radio access node (eNB2).

Abstract: A method and a system of multiplexing Machine Type Communication (MTC) data of MTC devices over a single radio block period are provided. The method includes providing, by a base station, resource information to a plurality of MTC devices, where the resource information includes a time slot allocated to the plurality of MTC devices in each frame of a radio block period, a temporary flow identifier, and the sub-block index information. The method further includes packing MTC data associated with each of the plurality of MTC devices in a data packet. Furthermore, the method includes multiplexing the data packet including the MTC data associated with the plurality of MTC devices in downlink over the time slot allocated in each frame of the radio block period.

Abstract: There are provided a first communication time ascertaining unit that ascertains with a ping command communication delay time in communication with a smartphone, a communication state determining unit that determines whether a communication state is satisfactory in the communication with the smartphone based on the ascertained communication delay time, and a communication switching unit that switches a communication channel used for the communication with the smartphone, from one communication channel to another communication channel when the communication state in the communication with the smartphone is determined to be unsatisfactory. Therefore, the switching of the communication channel is performed only when it is ascertained that the communication state with the smartphone is unsatisfactory.

Abstract: A network processor is described. This network processor determines a context for a message based on information in one or more fields in a payload of the message. For example, the context may be based on a message type and an identifier of the network connection on which the message was received. Then, the network processor calculates one or more trigger values based on one or more trigger expressions that perform checks on the information in the one or more fields. Moreover, the network processor determines one or more actions to be taken for the message based on the context and the one or more trigger values. In particular, the network processor determines whether the message is forwarded and one or more forwarding destinations.

Abstract: A station performs a random access (RA) communication by i) receiving a trigger frame, ii) determining, using information in one or more per-station information parts of the trigger frame, that one or more resource units (RUs) of a response transmission are allocated to RA, iii) selecting a selected RU from the one or more RUs allocated to RA, and iv) in response to receiving the trigger frame, performing the RA communication using the selected RU of the response transmission. In some cases, the station may transmit a data unit associated with an Access Category (AC) as part of the RA communication, receive an acknowledgement frame corresponding to the data unit, and in response to receiving the acknowledgement frame, resume a backoff counter countdown associated with the AC.

Abstract: A communication duration configuring method is used in a mobile communication system including a mobile relay station for relaying a wireless communication between a base station and a mobile station. The method includes: configuring at least any of a downlink communication duration where the relay station receives a transmission signal from the base station by restricting a transmission of a signal from the relay station to the mobile station and an uplink communication duration where the relay station transmits a transmission signal to the base station by restricting a transmission of a signal from the mobile station to the relay station; and restricting a transmission of a signal with the mobile station in a first period from detection of a handover until when the communication duration is configured between the relay station and a target base station, and using a desired duration within the first period.

Abstract: In one embodiment, a method includes transmitting a packet from a router located in a communication path between a source and a receiver, the packet having one or more values used to select a group designated router from a list of candidate group designated routers for multicast traffic streams, selecting the router as said group designated router for one or more of the multicast traffic streams, and forwarding traffic for the one or more multicast traffic streams to the receiver. The candidate group designated routers are last hop routers for transmitting the multicast traffic streams to a common link connected to the receiver. An apparatus is also disclosed herein.

Abstract: One feature pertains to an apparatus that includes a first communication interface, a second communication interface adapted to transmit and/or receive multimedia data signals to and/or from a device through a wired connection, and a memory circuit adapted to store instructions for conducting one or more wired connection integrity tests. The wired connection integrity tests determine at least whether the apparatus is able to communicate with the device. The apparatus further includes a processing circuit adapted to initiate the one or more wired connection integrity tests by executing the instructions stored in the memory circuit, determine whether each of the one or more wired connection integrity tests initiated passed or failed, and report whether the one or more wired connection integrity tests passed or failed. The wired connection integrity tests may include signal line communication tests, cable integrity and quality tests, and data or video test pattern tests.

Abstract: Disclosed example routing methods include accessing a control packet originating from a first internal router, translating the destination address of the control packet from a first value to a second value, and identifying a first one of a plurality of outgoing interfaces of a meta-router based on the second value of the destination address, the outgoing interfaces of the meta-router in communication with respective incoming interfaces of a splitter. Disclosed example methods also include forwarding the control packet to the first one of the outgoing interfaces of the meta-router after translating the destination address of the control packet from the second value back to the first value, and routing the control packet from the splitter to an external router based on which one of the incoming interfaces of the splitter receives the control packet from the meta-router.

Abstract: A method and a device for data processing in a communication network are provided, wherein a mobile terminal receives several input signals from at least one base station; and wherein the mobile terminal processes said several input signals into a feedback information that is conveyed to at least one base station.

Abstract: A message sequence regulator (MSR) system includes a message parser, a message extraction repository, a rules repository, a message definition repository, an interface to a resource monitor for monitoring system resources by single resource monitoring agents, and a notification component for identifying sequence regulation operations which cannot be executed. The MSR system receives copies of messages loaded into or retrieved from queues by a queue manager as well as event messages from the resource monitor. The message extracts parts of the message using message structures defined in the rules repository and stores the extracted parts in the message extraction repository. If a defined condition is found to exist, the MSR system initiates calculation of an appropriate message sequence number or message priority level. The queue manager updates the message record without removing the message from the queue.

Abstract: In one embodiment, a method includes correlating, for each intermediate device associated with a Real-time Transport Protocol (RTP) application that connects endpoints through a plurality of intermediate devices across a network, one or more first RTP segments input into the intermediate device with one or more second RTP segments output from the intermediate device. The correlation results are then graphically displayed results of the correlating to obtain a full, end-to-end picture of RTP quality from a source endpoint to a destination endpoint of the RTP application. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure.

Abstract: A method and system for enabling management of a plurality of messages in a communication network is provided. The method includes measuring an in-load and an out-service corresponding to a plurality of switching-nodes in the communication network. The method further includes marking at least one message in a switching-node with an Explicit Congestion Notification (ECN) to form at least one Precise ECN (PECN)-message, if at least one predefined criterion corresponding to a switching-node evaluates to true. Each PECN-message is encoded with measurements of the in-load and the out-service corresponding to the switching-node. Thereafter, one or more management functions are performed to modify egress of the plurality of messages from a source-node. The source-node transmits the plurality of messages to a destination-node through the switching-node.

Abstract: A method and integrated hardware system for multicast transmission shaping in EPONs which employs a selective multicast algorithm that significantly reduces the complexity of traffic shaping for multicast traffic. Unlike prior art methods, my method exploits the broadcasting nature of the downstream point-to-multipoint access system including EPONs. Operationally, the method transforms a multicast traffic shaping problem into a unicast traffic shaping problem by selecting a multicast subscriber and subsequently treating packets addressed to that selected multicast subscriber as unicast. Advantageously, these packets are still available to other members of the multicast group. And since these packets are treated as unicast from the perspective of traffic shaping, my inventive method significantly reduces traffic shaping complexity in multicast environment.

Abstract: A method of presenting different virtual routers to different end users, classes of service, or packets is provided. An incoming packet is received having a VLAN field and at least one additional field. A key is formed from the VLAN field and at least one other packet field, and mapped into a virtual router identifier (VRID) using an indirection mapping process. The VRID identifies a particular virtual router configuration from a plurality of possible virtual router configurations. A networking device is configured to have the particular virtual router configuration identified by the VRID, and the packet is then forwarded by the configured device.

Abstract: In a packet processing system, where a packet processor normally performs a fixed number of processing cycles on a packet as it progresses through a processing pipeline, a method of extending the fixed number of processing cycles for a particular packet is provided. During the processing of a packet, an extension bit associated with the packet is set to an “on” state if extended processing of the packet is needed. While the extension bit is set to that state, updating of a count, indicating the number of processing cycles that has been undertaken for the packet, is inhibited. When the extended processing of the packet has been completed, the extension bit for the packet is set to an “off” state, and the updating of the count resumed. When that count indicates the number of processing cycles the packet has undergone equals or exceeds the fixed number, the packet is exited from the pipeline.

Abstract: A Signaling System 7 (SS7) tool for planning an SS7 network having a plurality of network elements is provided herein. The SS7 tool is configured to obtain current traffic data from the SS7 network and determine a current peak utilization of each of the network elements based upon the traffic data. The SS7 tool is further configured to obtain pending reconfiguration plan data and to determine a preliminary reconfiguration based upon the reconfiguration plan data. The SS7 tool also obtains subscriber load data to forecast future peak utilization of the SS7 network by determining for each of the network elements, the impact of at least one of the following: the subscriber load data, the reconfiguration plan data for that element, and an element status. The SS7 tool then automatically recommends a reconfiguration of the network based upon said forecasted peak utilization.

Abstract: A probabilistic method of determining a second vehicle in the VANET to which a packet is to be forwarded from a first vehicle is provided. The method includes determining the second vehicle to forward the packet from the first vehicle based on pre-calculated expected latency data corresponding to the second vehicle, and forwarding the packet from the first vehicle to the determined second vehicle. The expected latency data is indicative of the latency expected for communication of the packet from the first vehicle to the destination if the packet is forwarded from the first vehicle to the second vehicle, and is calculated in advance of the step of the determining the second vehicle to forward the packet. The second vehicle to forward the packet may also be determined based on pre-calculated communication probability data corresponding to the second vehicle in addition to the pre-calculated expected latency.

Abstract: An integrated circuit having a corresponding method comprises one or more ports to transmit and receive packets of first data; and a forwarding engine to transfer the packets of the first data between the ports; wherein at least one of the ports comprises a packet generator to originate a first packet of the first data comprising second data representing a time of transmission of the first packet of the first data, a network transmit interface to transmit the first packet of the first data, and a network receive interface to receive a second packet of the first data transmitted in reply to the first packet of the first data; and a controller to calculate a network delay based on the second data representing the time of transmission of the first packet of the first data and the second packet of the first data.

Abstract: To provide technology that makes communication possible using an NAT device that does not correspond to protocol even when protocol that stores the IP address in the payload section to carry out communication is used. The technology consists of a CL device 110 connected to a global network 160, an SE device 130 connected to a private network 161, an NAT device 120 and a auxiliary device 140 wherein the auxiliary device 140 verifies in what way the address information of the packet communicated to the CL device 110 from the SE device 130 has been converted and notifies the SE device 130 of the address information after the address information has been converted in the NAT device 120.