Abstract: A method and a device for network traffic control comprising the following steps: detecting actual downlink traffic of a network device; calculating an error e between the actual downlink traffic and predetermined downlink traffic; performing a calculation on the error to obtain PID output according to a PID control formula; calculating scaling of upstream traffic according to the calculated PID output and the downlink traffic; and regulating an upstream traffic threshold according to the scaling. The upstream traffic is increased or reduced in accordance with the actual downlink traffic be means of the correlated regulation and dynamic control of the upstream traffic and the downlink traffic of the network device. As such, traffic control is realized in those applications (e.g. UDP traffic such as P2P streaming media) which themselves lack the traffic control mechanism, and it is possible to make the best of network bandwidth as well.

Abstract: A system and a method for handover of a terminal in a wireless communication system are provided. The method includes transmitting, by a serving BS, measurement control information and DRX control information to a terminal; measuring, by the terminal, a channel, based on the measurement control information; operating, by the terminal, in connected DRX, based on the DRX control information; reporting, by the terminal, channel measurement information to the serving BS; determining, by the serving BS, the handover of the terminal based on the channel measurement information provided from the terminal; resetting, by the serving BS, the DRX control information of the terminal; transmitting, by the serving BS, the reset DRX control information to the terminal; operating, by the terminal, in the connected DRX, based on the reset DRX control information provided from the serving BS; and transmitting, by the serving BS, handover indication information to the terminal.

Abstract: A method for determining a proper preamble allocation mode is provided. The method is applicable to a base station communication with a number of human to human UEs and machine to machine UEs. The base station collects information from different types of UEs to figure out arrival rates for human to human type random access attempts and machine to machine type random access attempts. The base station selects one allocation mode out of two different allocation modes. In one mode, random access preambles are dedicatedly allocated to machine to machine type UES. In the other mode, preambles are commonly allocated to different types of UEs. The base station indicates the selected allocation mode by using system information block such as SIB2.

Abstract: A method in a mobile device is provided. The method includes storing the number of IP (Internet protocol) sessions available to the mobile device for each of a number of network areas; and when the mobile device is in a location where two of the network areas overlap, performing cell selection based on the stored number of IP sessions for each of the overlapping network areas.

Abstract: A communication device transmits a plurality of measurement packets for identifying an available bandwidth to another communication device connected via a network, using bandwidths in the measurement bandwidth range. The communication device then determines whether the available bandwidth is included in the measurement bandwidth range. In a case where the available bandwidth is not included in the measurement bandwidth range, the communication device determines whether the available bandwidth is located on a narrowband side or on a wideband side with respect to the measurement bandwidth range, and determines a bandwidth shift amount based on an amount of change. The communication device updates the measurement bandwidth range by shifting one of the lower bandwidth and the upper bandwidth based on the bandwidth shift amount.

Abstract: Provided is a large range management device (LRMD) of managing a communication between a plurality of small range devices (SRDs) and a plurality of large range devices (LRDs), the SRDs and the LRDs being located in a single cell and having different transmission coverage, the LRMD including an access slot allocation unit to allocate an SRD access slot to a radio resource for a downlink, to enable a first SRD to request an association from a network, a selection unit to select a communication relay device for relaying relay data of the first SRD, a relay slot allocation unit to allocate at least one SRD relay slot to a radio resource for an uplink, to enable the communication relay device to relay the relay data to a second SRD or another LRD, and a receiving unit to receive the relay data based on the at least one SRD relay slot.

Abstract: A radio frequency (RF) transceiver includes an RF section including an RF receiver operable to convert a received RF signal into inbound data and an RF transmitter to convert outbound data into a transmit signal in accordance with a local area network protocol. A processing module configures the RF section for communication with a first remote device via a first frequency channel of the local area network protocol and configures the RF section for communication with a second remote device via a second frequency channel of the local area network protocol to maintain simultaneous association with both the first remote device and the second remote device.

Abstract: A crossbar may be coupled between a plurality of PHY devices configured to provide physical layer functions according to an Open Systems Interconnection, OSI, model and a plurality of MAC devices configured to provide data link layer functions according to the OSI model. First data couplings may be provided through the crossbar between the plurality of PHY devices and the plurality of MAC devices during a first time period. Second data couplings may be provided through the crossbar between the plurality of PHY devices and the plurality of MAC devices during a second time period, with the first and second data couplings being different. Related network elements, interfaces, and networks are also discussed.

Abstract: A networking system comprises a data communication network, an entertainment device operable to communicate over the network and to run a first application, a social networking server operable to supply a second application to a social networking client over the network, the client being operable to run the second application once received from the server. In response to a first predetermined event during operation of the first application, the entertainment device can communicate an alert message to the server identifying a user of the client to receive the second application. The social networking server is arranged to supply the second application to the client in response to the alert message. In response to a second predetermined event during operation of the second application, the client is arranged to communicate an acknowledgement message to the entertainment device. In response, the entertainment device is arranged to modify operation of the first application.

Abstract: A fabric login (FLOGI) in a Fiber Channel (FC) adapter is throttled. The system includes a first tracking mechanism, a second tracking mechanism, a switch, and an FC adapter. The FC adapter comprises three or more FLOGIs and a controller. First and second FLOGI requests are transmitted to the switch and indicate, via a first tracking mechanism, that a first FLOGI associated with the first FLOGI request and a second FLOGI associated with the second FLOGI request are active. A third FLOGI request is queued until the first FLOGI request or the second FLOGI request is processed by the switch and indicates, via a second tracking mechanism, that a third FLOGI associated with a third FLOGI request is queued.

Abstract: A communication apparatus 1 includes a number-of-units determination unit 2 which determines the number of resource units to be allocated respectively to plural physical control channels by proportionally dividing the total number of resource units included in wireless resource which is designated for mapping of physical control channels among the plural physical control channels in accordance with a predetermined rule; a channel encoding unit 3 which channel-encodes the control information to be transmitted on the plural physical control channels respectively into data which can be transmitted by the number of resource units determined by said number-of-units determination unit; a modulation unit 4 which modulates the channel-encoded control information; and a transmission unit 5 which transmits the signal modulated by the modulation unit.

Abstract: A system and method are provided for dynamically reconfiguring an optical circuit between a first node and a second node of a communication network. The system and method may include establishing a scheduling window for receiving a plurality of optical traffic demands, classifying the plurality of optical traffic demands into at least a set of bandwidth adjustable demands and a set of fixed bandwidth demands, provisioning a first set of provisioned wavelengths from the plurality of wavelengths to carry the set of fixed bandwidth demands during the scheduling window, allocating the bandwidth remaining on the first set of provisioned wavelengths to the set of bandwidth adjustable demands, and if necessary, provisioning a second set of provisioned wavelengths from the plurality of wavelengths to carry the bandwidth required by the set of bandwidth adjustable demands that could not be allocated to the first set of provisioned wavelengths.

Abstract: In a system including a plurality of node devices that form an ad hoc network (5), a node device (N06) receives, from another node device (N08; N04), first frame data including identification information of a source node device and a destination node device. If node related information of only the node device can be additionally stored in the received first frame data, the node device generates second frame data including the identification information of the source node device (N01; N11) or the destination node device (N11; N01) as destination identification information, node related information within the first frame data, and the node related information of the node device, also generates third frame data that does not include the node related information within the first frame data, and transfers the generated second and third frame data to another node device (N02, N04; N08).

Abstract: An interface detection device in electronic communication with a network tester to receive network packets includes a plurality of local area network (LAN) interfaces, a signal control unit and a path distribution unit. The LAN interfaces are in electronic communication with the network tester and are electrically connected in pairs. The signal control unit provides preset test data for the LAN interfaces and controls the LAN interfaces to generate corresponding verification data. The signal control unit compares the verification data with the test data, and controls the path distribution unit to automatically figure out corresponding transmission paths. The LAN interfaces are electronically communicating with each other through the connected LAN interfaces and the transmission paths to transfer the network packets.

Abstract: The present invention relates to an uplink/downlink scheduling in a mobile communication system and signal transmitting/receiving scheme using the same, and more particularly a method and apparatus for a user equipment to transmit and receive signals. Each user equipment manages an interferential base station list to meet the process rate requirements. If a specific user equipment receives a first step scheduling signal including contention number information, base stations in a base station list managed by the corresponding user equipment are regarded as having real inter-cell interference links. Hence, in order for a base station having a highest priority to enable a resource assignment in a corresponding scheduling stage, a silencing signal for requesting a resource assignment prohibition is transmitted to the rest of the base stations.

Abstract: A ring-based network and a construction method thereof, comprising a plurality of nodes and a plurality of links. In an initial status, each node compares each first link-up packet and fills a priority value in the first link-up packet with the higher priority value to form a second link-up packet. The priority value of each node and the highest priority value of each adjacent node recorded in each node are compared with each second link-up packet. When the priority value of the node and the highest priority values of adjacent nodes recorded in the node are smaller than the second link-up packet, the ring port of the node is situated at a forward status. According to the forward status or a blocked status of the ring port, these links form a plurality of forward links and a blocked link respectively.

Abstract: When a mobile device moves from a first QoS-aware system to a second QoS-aware system, QoS flows may or may not be moved properly. To deal with this, the mobile device requests de-allocation of flows in the second QoS-aware system, and then initiates reservation of flows in the second QoS-aware system. After this, the mobile device will know for certain which QoS flows exist in the second QoS-aware system and can behave accordingly.

Abstract: A fabric login (FLOGI) in a Fibre Channel (FC) adapter is throttled by a system. The system includes a first tracking mechanism, a second tracking mechanism, a switch, and an FC adapter. The FC adapter comprises three or more FLOGIs and a controller.

Abstract: In a cloud computing environment customers of the cloud believe they have instantaneous access to unlimited resources however to satisfy this with finite resources there are times when resources could have to be acquired from an external cloud with potentially different security capabilities and performance capabilities. A method and system are therefore disclosed to reduce cost incurred while scaling to an external cloud to meet short term demand and to take into account security and performance requirements of customers. The proposed method and system provide automation and prediction capabilities to help with the decision of growing cloud resources or temporarily becoming a hybrid cloud. By “pre-bursting” the cloud in anticipation of a cloud burst the growth in resources can be predicted and performed (with security and load balancing in mind) prior to actual cloud consumer requests.

Abstract: System, method and program product, the system comprising: return network element along a return path for network flows for network sessions for a client; a controller computer; network elements along a forward path for the network flow for network sessions; with the return network element, configured to: receive packets for a return path network flow; determine whether there is an existing ruleset entry for quality-of-service marking packet data combination; sending the packet to the controller computer when the return network element deter mines no existing ruleset entry for the quality-of-service marking packet data combination. The return network element and/or controller computer configured to determine if the source network node is trusted. The controller computer configured to identify one or more network elements in a forward path, and initiate installation of a ruleset entry for the client along the forward path.