Abstract: Systems and methods for ordering candidates for wireless network association are provided. In certain embodiments, a wireless device, includes a processor that controls data received and data to be transmitted by the wireless device; and a memory, wherein the memory stores a short list that stores network device responses, wherein a network device response is associated with a network device in an environment of the wireless device. In certain implementations, instructions direct the processor to perform a short list search, wherein the wireless device attempts to connect to networks associated with network devices identified in the short list; and when the wireless device fails to connect with the networks associated with the network devices identified in the short list, perform an exhaustive search, wherein the wireless device attempts to connect to additional networks associated with additional network devices based on an ordered arrangement of network identifiers.

Abstract: In one embodiment, a node in a shared-media communication network may determine a first directed acyclic graph (DAG) topology, wherein the first DAG topology has a particular direction. The node may determine a second DAG topology in the shared-media communication network based on the first DAG topology. The second DAG topology may share the particular direction of the first DAG topology, to prevent loops between the first and the second DAG topologies.

Abstract: A network system has a computer device, and a plurality of node devices communicatively connected to the computer device via network with one or more sensor devices allowed to be connected to each of the plurality of node devices via wireless communication. Each of the node devices obtains sensor data from the sensor device which is connected to the node device itself via the wireless communication and saves the sensor data in a sensor data storage section incorporated in the node device itself. The computer device specifies and requests via the network sensor data that any one or more of the one or more sensor devices obtained, and obtains via the network the specified sensor data from the node device which has saved the specified sensor data in the sensor data storage section among the plurality of node devices.

Abstract: Some embodiments provide an elastic architecture for providing a service in a computing system. To perform a service on the data messages, the service architecture uses a service node (SN) group that includes one primary service node (PSN) and zero or more secondary service nodes (SSNs). The service can be performed on a data message by either the PSN or one of the SSN. However, in addition to performing the service, the PSN also performs a load balancing operation that assesses the load on each service node (i.e., on the PSN or each SSN), and based on this assessment, has the data messages distributed to the service node(s) in its SN group. Based on the assessed load, the PSN in some embodiments also has one or more SSNs added to or removed from its SN group. To add or remove an SSN to or from the service node group, the PSN in some embodiments directs a set of controllers to add (e.g., instantiate or allocate) or remove the SSN to or from the SN group.

Abstract: The present disclosure relates to a cell selection scheme. In one embodiment, there provides a method for performing a cell selection for a UE at a primary serving cell of the UE in a CoMP cluster including the primary serving cell and one or more candidate cells, the method comprising the steps of: receiving PRACH measurements for the UE from the candidate cells; and selecting from the candidate cells one or more cells for the UE as its secondary serving cells based on the received PRACH measurements.

Abstract: An enhanced bypass mode simulcast radio communication system (200) includes a plurality of transmit/receive (T/R) sites (2101, 2102, 2103) configured to participate in a simulcasting communication session responsive to a control point system (201). A site controller (211) is responsive to determination of a timing malfunction at a first one of the T/R sites. In response, the site controller is configured to automatically terminate participation of the malfunctioning T/R site in the simulcasting communication session and perform further actions to cause the malfunctioning site to transition to a multisite mode of operation involving a network switching center (202). The simulcast system automatically adjusts its site timing to compensate for the loss of the T/R site in bypass.

Abstract: Provided are a method and a wireless device for transmitting a data packet in a wireless communication system. The wireless device engages in peer discovery with a receiver and monitors whether transmission (TX) scheduling information from a base station is received. A data packet is transmitted to the receiver on the basis of the TX scheduling information. The TX scheduling information comprises resource allocation information indicating resource allocation for transmitting the data packet, identification information indicating an identifier for the receiver; and information indicating whether the TX scheduling information is for TX scheduling or reception (RX) scheduling.

Abstract: A transmitting apparatus includes a group processing unit configured to divide plurally data of one block, control processing units configured to perform predetermined control processing for each of the divided data, a combination processing unit configured to combine the data subjected to the control processing into one signal, a transmission processing unit configured to apply predetermined transmission processing to the combined signal to convert the signal into a transmission signal, and a control-signal generating unit configured to retain a predetermined number of control value candidates, one set of which includes M control values used in the control processing carried out by the control processing units, and select, as a selected candidate, one of the control value candidates based on power information of the transmission signal, and generate M control signals corresponding to the selected candidate and input the control signals to the control processing units.

Abstract: A packet transmission method includes receiving a packet having a first service class; determining a maximum transfer band of the first service class, based on maximum transfer band information for each of a plurality of service classes of each of a plurality of computers; determining a transfer band of the first service class, based on traffic amount information for each of the plurality of service classes; transferring the received packet in the first service class, when the transfer band is smaller than the maximum transfer band of the first service class; determining whether a second service class includes a free band, based on the maximum transfer band information, when the transfer band of the first service class is not smaller than the maximum transfer band; and transferring the received packet in the second service class, when it is determined that the second service class includes the free band.

Abstract: A system and method for subscriber aware network monitoring is provided. The method includes: determining subscriber and session data, wherein the subscriber has a non-unique IP (Internet Protocol) address; retrieving identifying data from a packet; and comparing the identifying data with the determined subscriber and session data to determine the subscriber associated with the packet. The system includes: at least one network probe configured to determine subscriber and session data, wherein the subscriber has a non-unique Internet Protocol (IP) address; at least one traffic probe configured to retrieve identifying data from a packet; and a processing module configured to compare the identifying data with the stored subscriber and session data to determine the subscriber associated with the packet.

Abstract: A wireless communication system according to one aspect of the present invention includes a provisioning device, a gateway, and a management device. The provisioning device sets to a wireless device, provisioning information required for the wireless device to join a wireless communication network. The gateway determines, using the provisioning information set by the provisioning device, whether or not to allow the wireless device to join the wireless communication network. The management device manages join history information including the provisioning information set by the provisioning device and join information associated with the provisioning information, the join information indicating a result of the determination by the gateway, and provides the join history information to the provisioning device in response to a request from the setting device.

Abstract: A system may include a group of user devices; and one or more base stations configured to receive programming content from a content provider, and distribute the received programming content, via a broadcast or multicast technique, to the group of user devices. A particular user device, of the group of user devices, may receive distributed programming content, and output, to device that is external to the user device, the programming content received from the particular base station.

Abstract: A wireless access node to improve data transmission throughput comprises a wireless communication transceiver and a processing system. The wireless access node transmits a first data packet comprising a preamble for delivery to a wireless communication device during a first timeslot, monitors for a response transmitted from the wireless communication device during a predetermined number of timeslots, and if the response transmitted from the wireless communication device is not received during the predetermined number of timeslots, modify the preamble to generate a modified preamble, retransmit the first data packet with the modified preamble for delivery to the wireless communication device during a second timeslot, and if an acknowledgement of receipt of the first data packet with the modified preamble is received from the wireless communication device during the predetermined number of timeslots, transmit a second data packet for delivery to the wireless communication device during a third timeslot.

Abstract: A system and method for initiating communications between a first wireless device and a second wireless device. The method includes the steps of detecting the status of the first wireless device, notifying the second wireless device via a scrolling ticker message based on the detecting step and establishing a communication session between the first and second wireless devices. The detecting step includes generating an alert based on a predefined event. The system for establishing a communication path between a first mobile device and a second mobile device includes an IMS core, a presence server communicatively coupled to the IMS core and in communication with the first mobile device, a scrolling ticker server in communication with the presence server and with the second mobile device, wherein the presence server communicates availability of the first mobile device and the scrolling ticker notifies the second mobile device of the availability of the first mobile device.

Abstract: A method for load balancing traffic from controller to destination access point (AP) via switch across multiple physical ports starts with controller receiving a packet from a source client device that is destined for destination client device associated with destination AP. The controller may select, based on an identifier associated with source or destination client device, a first or a second controller IP address. Controller may encapsulate the packet to generate an encapsulated packet including an outer header that includes the selected controller IP address. Controller may transmit the encapsulated packet to the switch that may distribute traffic to destination AP across multiple physical ports based on the selected controller IP address. Controller may also select a destination port based on destination client device of a packet and may encapsulate the packet using CAPWAP to generate an encapsulated packet including the destination port in a header of the encapsulated packet.

Abstract: The present specification proposes a technique for controlling a deactivation timer of a cell. Specifically, the present specification proposes a method for controlling a deactivation timer of a cell in a mobile communication system. The method comprises the steps of: configuring a primary cell and at least one secondary cell on user equipment (UE); receiving, from the UE, an indicator related to a deactivation timer for one secondary cell from among one or more secondary cells; and disabling, on the UE, the deactivation timer of one secondary cell on the basis of the indicator.

Abstract: Systems and methods for determining primary channel availability are disclosed. One aspect is a method in a wireless communications system including a first primary channel having first and second frequency spectrum bandwidths. The second frequency spectrum bandwidth includes the first frequency spectrum bandwidth. The method includes determining whether a first preamble has been detected on the second primary channel during a first threshold period of time, determining whether a second preamble has been detected on the first primary channel during a second threshold period of time, determining whether a guard interval has been detected on the second primary channel during a third threshold period of time, determining whether the second primary channel is idle based at least in part on detection of the first preamble, the second preamble and the guard interval, and transmitting a wireless message based at least in part on whether the second primary channel is idle.

Abstract: Verifying the functionality of an integrated circuit, the integrated circuit being operable for processing a data packet thereby generating a data processing result. A data packet to be processed is evaluated to determine if the data packet is an erroneous data packet. If the data packet is identified as an erroneous data packet, a modified data packet is generated by modifying the erroneous data packet and providing the modified data packet to the integrated circuit. A determination is made as to whether the data processing result comprises the modification; and a malfunction of the integrated circuit is signaled, if the data processing result comprises the modification.

Abstract: Adaptive modulation and priority-based flow control in wireless communications are disclosed. Ingress communication traffic is modulated for transmission over a wireless communication link. A modulation rate of modulation to be applied to the ingress communication traffic is controlled by adaptive modulation. A rate at which the ingress communication traffic is received is controlled through Priority-based Flow Control (PFC), but the PFC is based on the adaptive modulation. Adaptive modulation and PFC are thus linked together. PFC messaging could be sent when a change in modulation rate due to the adaptive modulation would not meet the rate at which the ingress communication traffic is received. If a change in modulation rate due to the adaptive modulation would still meet the rate at which the ingress communication traffic is received, then PFC messaging might not be sent.

Abstract: Quality of service may be achieved in a network using time-bases queues that are associated with different maximum latency periods. A device may receive a request to allocate resources for a packet flow, the resources being allocated at a number of network devices. The device may select, in response to the request, a set of queues that includes a queue selected at each of the network devices, the selected queue, at each of the network devices, being associated with a maximum latency period. The device may transmit one or more messages, to the network devices, indicating that the selected set of queues are to be used for buffering of the packet flow during packet scheduling.