Abstract: A method for operating a data processing system to decode a data packet and computer readable medium that causes a data processor to perform that method when the media read by the data processing system is disclosed. The method provides a model of the possible data packet formats and an iterative process for moving through the model to decode a data packet. The model includes a plurality of nodes connected by arcs. The program iteratively examines the data packet by proceeding to a next node from a current node. The current node examines a portion of the data packet by matching each of a plurality of candidate matches to that portion of the data packet. The candidate matches include a pattern to be matched against the portion, a priority that determines the order in which the candidates matches are matched, and the identity of the next node.

Abstract: A frequency assignment method in a communication system is provided. The method includes transmitting, by a base station, a pilot signal to the plurality of terminals; receiving, by the base station, channel information and a Signal to Interference Ratio (SIR) from the plurality of terminals as feedback information; determining, by the base station, a number of subcarriers to be used for interference alignment and a terminal to which interference alignment is to be applied, using the feedback information; selecting, by the base station, a frequency set to be used for interference alignment among preset frequency sets for interference alignment, and generating a transmit precoding matrix using a maximum of Degrees of Freedom (DoF) that can be obtained for each frequency; and transmitting, by the base station, an index of the selected frequency set to the determined terminal using the generated transmit precoding matrix.

Abstract: In some embodiments, a network segment within a switch fabric system includes a layer-2 flood route database and a layer-3 switch interface operatively coupled to the flood route database. The flood route database is configured to store layer-2 flood route information associated with the network segment and contains information such as a set of port identifiers and a set of status indicators. Each port identifier identifies a particular port within the network segment and each status indicator is uniquely associated with a particular port identifier. The layer-3 switch interface associated with the network segment is automatically activated when the flood route database contains at least one valid port identifier and the status indicator associated with at least one port identifier is active. This can allow data traffic to flow between separate network segments within the switch fabric system.

Abstract: Systems and methods are operable for monitoring the transmission of media content events. An exemplary embodiment receives a media content stream at a media device from a media content transmission device at a first transmission rate, wherein the media content stream comprises at least one media content event selected for presentation on a media presentation device; stores at least a portion of the media content stream in a media device buffer; calculates a buffer metric; transmitting the buffer metric to the media content transmission device; and receives the media content stream from the media content transmission device at a second transmission rate based on the transmitted buffer metric.

Abstract: Systems and techniques relating to beamforming testing for wireless communication are described. A described technique includes controlling a first wireless device to deactivate or activate a beamforming mode, the first device being configured to selectively use the beamforming mode to transmit data over multiple antennas; causing the first device to send a first portion of data traffic to a second wireless device via a wireless channel while the beamforming mode is deactivated; measuring first throughput values of the first portion of data traffic while the beamforming mode is deactivated; causing the first device to send a second portion of data traffic to the second device via the wireless channel while the beamforming mode is activated; measuring second throughput values of the second portion of the data traffic while the beamforming mode is activated; and producing a test result based on a comparison of the first and second throughput values, and predetermined criteria.

Abstract: A method and an apparatus of receiving data, the method carried in a user equipment (UE) configured to communicate with a first cell and a second cell, are provided. The method includes: receiving a first downlink data through a first downlink channel from the first cell, receiving a second downlink data through a second downlink channel from the second cell, and transmitting a data on a third channel, wherein the data transmitted on the third channel is related to a HARQ operation, and wherein the third channel is used to transmit the data related to the HARQ operation with respect to both the first data and the second data which have been received from the first and second cells, respectively.

Abstract: A wireless communicator includes network processors transmitting data to and receiving data from respective different networks; a media access control (MAC) setter receiving pieces of information on a MAC layer from the plurality of network processors and storing the pieces of information on the MAC layer; and a MAC processor performing operations on media access control on the basis of the pieces of information stored in the MAC setter. In the wireless communicator, the network processors supply a frame signal containing network identification information corresponding to the respective network processors to the MAC processor. Thus, it is possible to provide a wireless communicator which can give a notice to every network processor even when broadcast frames are received and which can make a reply even when beacon request command frames are received.

Abstract: It is presented a method for selecting downlink mode for a UE. The method is executed in a radio network controller, RNC, and comprises the steps of: estimating geometry for the UE; selecting a mode for the UE based on the estimated geometry, the mode being either a multi cell switching mode or a multi cell aggregation mode; and configuring the selected mode for the UE. By using the geometry of the UE for selecting mode, the most appropriate mode in terms of performance, such as capacity. Corresponding methods for an RBS, a UE, along with corresponding RNC, RBS and UE are also presented.

Abstract: An access point including a transceiver having first and second physical layers to communicate at first and second data rates, respectively. The transceiver receives a request from a first client station to reserve first or second sub-channel of a channel for transmitting data at the first or second data rate. In response to receiving the request from the first client station, the transceiver transmits a response to allow the first client station to transmit data and prevent a second client station from transmitting data while the first client station transmits data to the access point. In response to the first client station receiving the response, the first physical layer receives data from the first client station without interference from the second client station.

Abstract: A linear wireless sensor network includes network nodes having monotonically varying network node identifiers along each branch of the network. The network identifiers enable the nodes to forward network packets without use of routing tables. Low duty cycle wireless communication protocols enable network packets to be routed to all nodes of very large networks while consuming very little electrical power. Broadcast, rather than unicast, transmissions between nodes take advantage of favorable signal propagation conditions to forward messages using largest possible hops, skipping over nodes when possible, as well as automatically adapting to time- or spatially-varying conditions. A group of network packets is broadcast and forwarded by a most distant receiving node that received all packets of the group. A receiving node's clock is automatically adjusted, based on which packet(s) of a group of packets was received. A sending node synchronizes near-by receiving nodes.

Abstract: A multiple multicast network system and method for ensuring reliability in such a network are provided. A multiple multicast method in a multiple multicast network system may include grouping terminals having data to be transmitted to each other in a group. The method transmits, by each of the terminals in the group, data of each of the terminals to the other terminals in the group. In response to receiving the data, the method provides, to the terminals in the group, as feedback, missing packet information, and generates, by a terminal among the terminals in the group, a secondary network-coded packet by performing network coding based on a successfully received packet and data of each of the terminal, and transmits the secondary network-coded packet to the other terminals in the group based on the missing packet information.

Abstract: A medical network service can replace or supplement some or all of an expensive internally staffed clinical facility network with a cloud-based networking service. The medical network service in certain embodiments can provide networking services via software as a service technologies, platform as a service technologies, and/or infrastructure as a service technologies. The medical network service can provide these services to large existing clinical facilities such as metropolitan hospitals as well as to smaller clinical facilities such as specialized surgical centers. The medical network service can replace and/or supplement existing IT networks in hospitals and other clinical facilities and can therefore reduce costs and increase security and reliability of those networks. In addition, the medical network service can provide synergistic benefits that can improve patient outcomes and patient care.

Abstract: A method, a computer program product, and an apparatus are provided. The apparatus determines a degree of a link based on interference observed from at least one other link, determines a priority of the link based on the determined degree, and decides whether to yield based on the determined priority. The priority of the link may further be based on a determined data rate of the link. The apparatus may transmit the priority to another device via a request to send (RTS) signal and/or a clear to send (CTS) signal. The apparatus may also determine a priority associated with an active link and decide whether to yield to the active link by comparing the determined priority of the link with the priority of the active link.

Abstract: Methods and apparatuses are provided for avoiding membership verification for a non-closed subscriber group (CSG) user equipment (UE) communicating with a femto node advertising restricted access. A femto node or femto gateway can receive configuration information specifying to refrain from performing membership verification for UEs communicating with a femto node. Based on such information, the femto node or femto gateway can communicate registration information for a registration request received from a non-CSG UE without performing membership verification. Additionally or alternatively, femto nodes can register non-CSG UEs as CSG UEs to mitigate membership verification at femto gateways, request that femto gateways refrain from performing membership verification, and/or the like. In this regard, the femto node can use restricted access parameters for purposes other than restricting access.

Abstract: In a terminal connection control method for a system having a plurality of centers, the plurality of centers include a first center for initial connection and a plurality of second centers, the first center includes information of the plurality of second centers, destination information of the first center and information of a terminal are previously stored in the terminal, when the terminal requires the system for connection, the terminal requires the first center for connection based on the destination information of the first center, and sends the terminal information to the first center, the first center selects, from the plurality of second centers, a destination of the terminal which sends connection requirement based on information received from the terminal and based on information of the second centers, and the first center sends the destination information of the selected second center to the terminal which sends the connection requirement.

Abstract: In one embodiment, a plurality of first connections each couple a first distribution node of a first site to a respective access device. A second connection between the first distribution node and a first edge router is configured to not forward traffic associated with a first set of virtual local area networks (VLANs). It is determined whether the second distribution node is reachable from the first distribution node through the first edge router and a second edge router. The second distribution node is configured to forward traffic associated with the first set of VLANs to the second edge router. In response to a determination that the second distribution node is unreachable, the second connection is configured to forward traffic associated with the first set of VLANs. Traffic associated with the first set of one or more VLANs may be forwarded across the second connection to the first edge router.

Abstract: Provided is a method of transmitting and receiving personal broadcasting data in a peer-to-peer (P2P) based network. A terminal (client) that receives a personal broadcast requests a tracker server for a viewing reservation by using electronic program guide (EPG) information or a uniform resource locator (URL) of a personal broadcasting channel, a terminal (broadcaster) that transmits personal broadcasting data receives a list of clients that made a viewing reservation of the personal broadcast from the tracker server and notifies the clients about starting of the personal broadcast when it is time to start the personal broadcast. Accordingly, the client starts streaming when notified of the starting of the personal broadcast by connecting to the personal broadcasting channel after making the viewing reservation, without having to wait for the personal broadcast to start.

Abstract: A communication station includes a modulation circuit, a mapping circuit and a transmitting circuit. The modulation circuit is configured to operably modulate the master information block (MIB). The mapping circuit is configured to operably map the modulated MIBs to the new carrier type physical broadcast channel (PBCH). The PBCH is configured in a plurality of radio frames. The transmitting circuit is configured to operably transmit the radio frames. Moreover, the mapping circuit maps the modulated MIBs to only part of six central radio blocks of the predetermined subframes of the radio frames. The six central radio blocks are configured to locate around the DC subcarrier.

Abstract: The Invention proposes a method for a Control Node (MSC) of a Core Network (CN) for late activation of a User Plane between a Radio Station (eNodeB, NodeB, BTS) and a control node (RNC, BSC) of a Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) of a call to be set-up. Furthermore, a method for a control node of a Radio Access Network for late activation of a User Plane between a Radio Station and a control node of a Radio Access of a call to be set-up is proposed MSC receives an indication that a call involving said MSC and a BSC of a RAN shall be set-up. MSC gains knowledge that said BSC is adapted for a late User Plane Activation. MSC instructs said BSC that the User Plane between the Radio Station and the BSC/RNC shall be reserved. Upon detecting that the User Plane of said call shall be through connected, MSC instructs the BSC to activate the reserved User Plane between Radio Station and BSC. In addition corresponding nodes are proposed.

Abstract: An 802.11-compliant device for high throughput is disclosed. A plurality of TCP packets received in a buffer for transmission are stored. The plurality of TCP packets can be aggregated as A-MSDU sub-frames to form a A-MSDU frame in accordance with an IEEE 802.11 standard. Additionally, a plurality of A-MSDU frames can be aggregated as A-MPDU sub-frames to form a A-MPDU frame. The A-MPDU frame is compliant with a number of allowable sub-frames and a maximum size in accordance with an 802.11 standard. The A-MPDU frame is sent for transmission as an IEEE 802.11 packet.