Abstract: Methods (100) and apparatuses (12, 24, 38) taught herein advantageously facilitate use of timing measurements in wireless communication networks (10) where radio signal timing measurements involve signals at different carrier frequencies. The methods and apparatuses in particular compensate such timing measurements for expected discrepancies in the measurements that arise from frequency-dependent differences in the propagation behavior of the radio signals being measured. In a non-limiting example, measurements at two or more frequencies may be compensated for the frequency distance between those frequencies, or with respect to a reference frequency. In such cases, timing measurements determined for one or more other radio signals are compensated as a function of the frequency distance between the reference frequency and the frequencies of such other radio signals.

Abstract: An embodiment method for communicating data within a lighting sensory network may include configuring a first plurality of lighting nodes to operate as sensor nodes, configuring a second plurality of lighting nodes to operate as listening nodes, generating, by a sensor node using an encryption key, a sensor message associated with sensor data and including at least a timestamp, calculating an interval for transmitting the sensor message, wherein the interval is randomized and exponentially increasing, determining whether to transmit the sensor message based on the calculated interval, transmitting the sensor message in response to determining to transmit the sensor message based on the calculated interval, receiving, by a listening node, the sensor message at a listening node, determining whether the received sensor message is useful based on the timestamp and a predefined age threshold, and performing a lighting action in response to determining the received sensor message is useful.

Abstract: An operating system adds an application signature as a tag in a packet header. In one embodiment the tag is inserted as a Q-tag in an Ethernet header. When a network element receives the tagged packet, it uses the tag alone or in combination with one or more additional header fields to map the packet to a network virtualization identifier segregating the application traffic on the network. Services are applied to packets according to network virtualization identifier to enable distributed application of services without requiring network elements to maintain state associated with packet flows.

Abstract: Techniques are disclosed relating to reception of beacon frames. In one embodiment, an apparatus is disclosed that includes a radio circuit. The radio circuit is configured to determine an estimated time period during which the radio circuit will receive a next beacon frame from a wireless access point associated with a wireless channel. The estimated time period is determined relative to a clock of the radio circuit. The radio circuit is further configured to begin monitoring the wireless channel for the next beacon frame during the estimated time period.

Abstract: Provided are an electronic patch device, network system, and operation method in the network system. The network system includes n (n is a natural number equal to or greater than 1) network equipments, a backup network equipment used for backing up one of the n network equipments, n terminals connected to the n network equipments respectively, and a distributor connecting respective lines between the n network equipments and the n terminals and replacing one of the n network equipments with the backup network equipment according to necessity. Here, a plurality of the distributors are connected in parallel.

Abstract: The present invention relates to an access method for solving ambiguity between an initial access mobile station and a base station, wherein the ambiguity occurs in a carrier aggregation environment. When a base station transmits a downlink message including different downlink ID information through plural downlink carriers, a base station obtains the corresponding downlink ID information through a downlink carrier used by the mobile station. The mobile station transmits an uplink message using the obtained downlink ID information, and the base station extracts the downlink ID information from the uplink message in order to confirm which downlink carrier the mobile station uses.

Abstract: A system, associated with a service provider network, is configured to monitor traffic being transported via one or more cells, within a radio access network (RAN), that serve a group user devices; obtain traffic information, associated with a cell, based on the traffic monitoring, where the traffic information includes information associated with each of the user devices, a quantity of bandwidth that corresponds to traffic flows within the cell, or one or more traffic types being served by the cell; determine that a condition exists within the cell when the quantity of bandwidth is greater than a bandwidth threshold associated with the cell; and transmit a notification that indicates that the condition exists, where the notification enables an operation to be performed on all or a portion of the traffic flows, based on a particular traffic type, to remedy the condition.

Abstract: A method includes assigning a flow identifier to a flow that includes a plurality of packets. The method also includes generating a head packet of the plurality of packets. The head packet includes one or more header information fields that are associated with the flow identifier. The method further includes generating at least one data packet of the plurality of packets. The at least one data packet includes packet specific information and the flow identifier instead of the one or more header information fields. The method further includes transmitting the head packet. The method further includes, in response to detecting a successful receipt of the head packet, transmitting the at least one data packet.

Abstract: A gateway router apparatus sends a first multicast SOLICIT message with a prefix length hint based on a number of network segments associated with the apparatus. The apparatus receives a second multicast SOLICIT message with a prefix length hint, from a downstream router in a premises network. At the apparatus, the following are recorded: (i) an estimated prefix length associated with the second multicast SOLICIT message; and (ii) an interface associated with the second multicast SOLICIT message. At the apparatus, a first ADVERTISE message is received, and a REQUEST message is sent, both over the internet. The REQUEST message specifies a prefix length based on the number of network segments associated with the apparatus and the recorded estimated prefix length associated with the second multicast SOLICIT message. The apparatus sends a second ADVERTISE message advertising ability of the apparatus to delegate prefixes in accordance with the REQUEST message.

Abstract: A method for accurately measuring, recording and reporting latency of an Ethernet switch is disclosed. Various packet queues in the switch are monitored at any given time and forwarding latency is calculated. Latency data from multiple switching elements in a network is collected to provide end-to-end forwarding latency of a system.

Abstract: In one embodiment, an intermediary device situated along a communication path between two endpoint devices may receive communication packets sent along the communication path. If the intermediary device receives a connection-initiating packet having a customization indicator and a connection-acknowledgement packet having a customization indicator, then the intermediary device may install a bypass rule.

Abstract: The disclosure discloses a method for transmitting uplink control information. The method includes: receiving, by a user equipment, a carrier activation command or a carrier deactivation command in a downlink subframe n; updating a first downlink activated carrier set according to the received carrier activation command or the carrier deactivation command into a second downlink activated carrier set; taking the second downlink activated carrier set as a current downlink activated carrier set corresponding to a first uplink subframe which belongs to a subframe set of an uplink subframe n+k and uplink subframe(s) after the uplink subframe n+k; sorting X piece(s) of Uplink Control Information (UCI) corresponding to X downlink carrier(s) according to a sorting rule, and transmitting the sorted X pieces of UCI to a base station in the first uplink subframe.

Abstract: Embodiments of systems and methods for providing collision detection in a wider bandwidth are generally described herein. Other embodiments may be described and claimed.

Abstract: Provided an information processing apparatus including a communication unit, an acquisition unit that acquires an application from an external storage apparatus each time processing concerning execution is started, a determination unit that determines whether the external storage apparatus acting as an acquisition source is registered, a first determination unit that determines whether to execute the application based on a user's operation if it is determined that the external storage apparatus is not registered, a communication processing unit that performs communication with an authentication server if the first determination unit determines to execute the application, a second determination unit that determines whether to execute the application based on an authentication result transmitted from the authentication server, and an execution processing unit that selectively executes the acquired application if the determination unit determines that the external storage apparatus is registered or the second de

Abstract: A time-space switch in a ring architecture includes input circuitry including N links each receiving M timeslots, a two-dimensional matrix of a plurality of switching circuits, the two-dimensional matrix is configured to receive from the input circuitry each of the M timeslots from the N links in a pipelined manner, and output circuitry including N links configured to receive any of the M timeslots from any of the N links from the two-dimensional matrix. The input circuitry, the two-dimensional matrix, and the output circuitry are arranged in a ring architecture therebetween. A link encoding protocol method performed in electrical circuitry includes receiving a plurality of time slots, grouping the plurality of time slots into time slot groups, performing a cyclic redundancy check between adjacent time slot groups, 64/65B encoding the time slot groups, and forward error correction encoding a plurality of 65B codewords from the 64/65B encoding.

Abstract: In general, the subject matter described in this specification can be embodied in methods, systems, and program products for correlating status information generated in a computer network. A computing system receives, for each particular computer server or application program in a group of computer servers and application programs that are executing on the computer servers, information that identifies statuses of the particular computer server or application program at a plurality of times. The computing system generates, using the information received, network signatures that each represent statuses of the computer servers and application programs in the group for a particular time, the network signatures being for multiple times.

Abstract: A network analysis system invokes an application specific, or source-destination specific, path discovery process. The application specific path discovery process determines the path(s) used by the application, collects performance data from the nodes along the path, and communicates this performance data to the network analysis system for subsequent performance analysis. The system may also maintain a database of prior network configurations to facilitate the identification of nodes that are off the path that may affect the current performance of the application. The system may also be specifically controlled so as to identify the path between any pair of specified nodes, and to optionally collect performance data associated with the path.

Abstract: A load test method for a network system in which a plurality of node devices exchange packets via a first switch device by way of a second switch device, includes transmitting a plurality of first packets to the first switch device by a first node device, the plurality of first packets being addressed to the first node device via the second switch device, transmitting a plurality of second packets to the first switch device by a second node device, the plurality of second packets being addressed to the first node device via the first switch device, storing the first packets and the second packets in a queue buffer and thereafter transferring the first packets and the second packets to the first node device by the first switch device, and monitoring state information based on the number of packets waiting to be exchanged in the second switch device.

Abstract: The disclosure discloses a method for transmitting uplink control information. The method includes: receiving, by a user equipment, a carrier activation command or a carrier deactivation command in a downlink subframe n; updating a first downlink activated carrier set according to the received carrier activation command or the carrier deactivation command into a second downlink activated carrier set; taking the second downlink activated carrier set as a current downlink activated carrier set corresponding to a first uplink subframe which belongs to a subframe set of an uplink subframe n+k and uplink subframe(s) after the uplink subframe n+k; sorting X piece(s) of Uplink Control Information (UCI) corresponding to X downlink carrier(s) according to a sorting rule, and transmitting the sorted X pieces of UCI to a base station in the first uplink subframe.

Abstract: An attribute propagation method and a switch system based on a fiber channel network are disclosed. According to the present invention, after an attribute is registered on one of its ports, each switch can automatically use its port on the other side to propagate this attribute, and a next adjacent switch can register this attribute on its port on the same side, so that ports on one side of all switches can have this attribute registered automatically. Hereafter, after the attribute is registered its port on the other side, each switch can automatically use its port on said one side that has been registered to propagate this attribute reversely and a next adjacent can register this attribute on its port on the other side, so that ports on the other side of all switches can automatically have this attribute registered. In this way, there is no need to manually configure each port.