Abstract: Applications of CI processing to ad-hoc and peer-to-peer networking significantly improve throughput, network capacity, range, power efficiency, and spectral efficiency. CI-based subscriber units perform network-control functions to optimize network performance relative to channel conditions, network loads, and subscriber services. CI codes are used to identify and address network transmissions. Channel characteristics of communication links are employed to encode, address, and authenticate network transmissions. CI transceivers used as relays and routers employ unique characteristics of transmission paths to code and decode network transmissions. A central processor is adapted to perform array processing with signals received from, and transmitted by, a plurality of subscriber units in a wireless network.

Abstract: The present invention relates to a system and method for integrating useful data while measuring available bandwidth between a cloud computing client device and a server farm. More specifically the present invention relates to the method for integrating useful application data carried inside probe packets, by tools that estimate available bandwidth between two nodes connected through the internet (cloud). Importantly, the present invention relates to the method to overcome application data loss that typically happens during the available bandwidth estimation process. Advantageously, the Cloud Computing Environment (CCE) user's internet usage billing reduces significantly and also Available Bandwidth Measurement Tools (ABMT) could be run more frequently without significant increase in billing.

Abstract: A fast send method may be selectively implemented for certain data packets received from an application for transmission through a network interface. When the fast send method is triggered for a data packet, the application requesting transmission of the data packet may be provided a completion notice nearly immediately after the data packet is received. The fast send method may be used for data packets similar to previously-transmitted data packets for which the information in the data packet is already vetted. For example, a data packet with a similar source address, destination address, source port, destination port, application identifier, and/or activity identifier may have already been vetted. A socket table may be maintained listing previously-transmitted data packets and an instruction for handling additional data packets similar to the data packet entered in the socket table.

Abstract: A method is provided for reducing the peak power level in a combination of orthogonal frequency division multiplexed (OFDM) tones. The method is particularly effective when the information to be communicated is digital data consisting of long patterns of “1”s or “0”s. The digital data of the message is combined with a scrambling vector before the data is modulated. The randomization of data patterns, in turn, leads to a more random combination of OFDM tone amplitude being transmitted. The message is recovered at the receiver by removing the scrambling vector. An OFDM communication system using the above-described method is also provided.

Abstract: In a communication system, activity of a transmitter (10), e.g., a UE, is controlled in response to a deactivation command (401). The transmitter (10) receives data on at least one transmission carrier and, if a received transmission of data is found to be defective, may send a repeat request to trigger a retransmission (404) of the data. In response to receiving the deactivation command (401), the transmitter (10) performs a check whether a retransmission (404) is expected on the at least one transmission carrier. If a retransmission (404) is expected, execution of the deactivation command (401) to deactivate the transmission carrier is delayed until the retransmission (404) is received or a timer has expired.

Abstract: Systems and methods for controlling data traffic offload to a WLAN (e.g., a Wi-Fi network) from a WWAN (e.g., a 4G LTE network) are generally disclosed herein. One embodiment includes data traffic offload techniques managed by a Radio Resource Control (RRC) in a networked device including offloading data at the IP, PDCP, RLC, or MAC layers; another embodiment includes data traffic offload techniques managed by a MAC Scheduler with RRC control. Configurations for multimode user equipment (UE) and multimode base stations are also described herein, including configurations for implementing a Multiple Radio Access Technology (Multi-RAT) aggregation function to offload data from a WWAN to a WLAN and transmit the data via the WLAN using a Layer 2 transport.

Abstract: A method for efficient connection between a telecommunications network and a Customer Premises Equipment (CPE) via an access node includes: establishing a physical communication channel between the access node of the telecommunications network and the CPE; providing, by the telecommunications network, a public or private Internet Protocol address to the CPE for use by the CPE to communicate with an Internet Protocol Edge node of the telecommunications network; initially assigning, by the telecommunications network, a first functionality level to the public or private Internet Protocol address; and assigning, by the telecommunications network, a second functionality level to the public or private Internet Protocol address when the telecommunications network is able to federate the network access related identification information to a contract related identification information.

Abstract: The disclosed techniques provide for eliminating real-time transport protocol, RTP, extension bit X, marker bit M, time stamp and sequence number information and/or user data protocol, UDP, checksum information from the header of a packet for transmission.

Abstract: A base station (BS) which communicates with a plurality of mobile stations (MSs) is configured so as to comprise a control signal generation unit which generates control signals showing information on the allocation of resources for each of the plurality of mobile stations (MSs), and a transmission unit which transmits the control signals to the plurality of mobile stations (MSs). A control signal for a given mobile station (MS) includes information relating to another mobile station (MS).

Abstract: Provided are a radio communication terminal apparatus and a radio transmission method by which intersymbol interference of DM-RS of a CoMP terminal and a Non-CoMP terminal can be reduced. A CoMP set setting unit (102) sets the cell IDs of all cells in the CoMP set in a cell selection unit (104), and a serving cell setting unit (103) sets the cell ID of the serving cell in the cell selection unit (104). The cell selection unit (104) selects the cell ID having a number closest to the cell ID of the serving cell from the cells in the CoMP set. A sequence information calculation unit (106) derives a sequence group number from the selected cell ID, and the sequence information calculation unit (106) calculates a sequence number from the derived sequence group number and a transmission bandwidth of the DM-RS.

Abstract: A method for providing management of measurement reports after a cell handover may include receiving, at a source cell, an indication that a handover of a mobile terminal is to be conducted from the source cell to a target cell, causing provision of information indicative of a measurement configuration employed by the mobile terminal with respect to the source cell to the target cell in which the measurement configuration is descriptive of reports for communication parameters measured at the mobile terminal based on transmissions associated with the source cell, and directing communication of a continuity indicator to the mobile terminal to indicate to the mobile terminal whether to continue providing measurement information to the target cell based on the measurement configuration. A corresponding apparatus and computer program product are also provided.

Abstract: A method and system for dynamic bandwidth re-allocation is provided. The method includes the steps of monitoring a video streams delivered by a server to a first client and a second client that have a same service level agreement and determining whether the first client is receiving a lower bitrate video stream compared to the second client. The method further includes the step of adjusting a parameter to allow the first client to receive a higher bitrate video stream. In an example, the monitoring, determining and adjusting steps are performed by a cable modem termination system (CMTS). In another example, the monitoring, determining and adjusting steps are performed by an optical line terminal (OLT).

Abstract: A method and system for applying a calibration procedure to match the peaks and nulls of the transmit and receive antenna patterns of a communication device are provided herein. The system may include: a plurality of antennas having tunable phases and configured for both transmitting and receiving; a plurality of radio circuits configured to transmit and receive via said antennas in a time division duplex (TDD) communication protocol; and a computer processor configured to calculate a weight setting difference between the transmit and the receive antenna pattern, wherein the antenna pattern is a peak-null pattern of the plurality of antennas operating together. The calibration value may enable the calibrated communication device to apply channel reciprocity to the beam-forming and/or nulling applications.

Abstract: A method may include: (i) in response to clearing of a fault on a working path of a protection switching group to which a first network element is interfaced: (a) transitioning, by the first network element, its state to a first state in which a protection path of the protection switching group is active; and (b) initiating, by the first network element, a wait to restore timer, the wait to restore timer having a duration such that upon expiration of the timer, the first network element is configured to switch the working path to active; and (ii) in response to receiving a message from a second network element interfaced to the protection switching group indicating that a failure has occurred on the working path: (a) maintaining, by the first network element, its state in the first state; and (b) continuing, by the first network element, the wait to restore timer.

Abstract: Examples are disclosed for coordinating transmission of one or more protocol data units to a wireless device from a coordinating set of base stations. In some examples, coordinating may include exchanging information via a backhaul communication channel coupling or interconnecting the base stations included in the coordinating set of base stations. For these examples, one or more protocol data units may be transmitted to the wireless device from the coordinating set of base stations via a plurality of separate communication links based on the exchanged information. Other examples are described and claimed.

Abstract: Automotive area networks (AAN) have a substantially fixed network topology, meaning that the physical media used for communications between devices included in the AAN is known. For example, the physical connections within an AAN, sometimes provided by wiring harnesses, can include fixed lengths of twisted pairs of wire (“twisted pairs”). Pre-compensation parameters related to characteristics of the twisted pairs can be determined at the factory, and loaded into the memory of devices connected to the AAN. These pre-compensation parameters are used to improve the fast wake up and link acquisition times of connected devices. Various characteristics of the physical communication channel are measured or estimated as a function of mechanical, ingress, climactic, and environmental variations (MICE), and used to update the pre-compensation parameters.

Abstract: An apparatus and a method for managing an access state of a terminal for a group communication service in a wireless communication system are provided. In a method for operating a terminal for a group communication service in a wireless communication system, a bandwidth ranging message is transmitted to a base station in an idle state. The terminal is allocated an uplink resource from the base station. A message for access state transfer including a multicast Connection IDentifier (CID) is generated. The message for access state transfer is transmitted to the base station via the allocated uplink resource.

Abstract: A method of transmitting a signal from a base station to a user equipment in a multi-node system comprises down-link-transmitting a signal at a first zone of a radio frame by using centralized antennas (CAs); and downlink-transmitting a signal at a second zone used for a backhaul link of a relay in the radio frame by using distributed nodes, wherein the first zone and the second zone are multiplexed by time division.

Abstract: A method of transmitting a signal from a base station to a user equipment in a distributed antenna system (DAS) comprises equally broadcasting DA common broadcast information, which includes information required for initial access, into a cell through a plurality of DA groups of the base station; and independently broadcasting DA specific broadcast information, which includes information on the number of antennas of each DA group, through each DA group of the base station, wherein the DA group includes one or more DAs.

Abstract: A system and method for efficiently handling mobility events includes detecting a mobility event associated with a movement of a mobile unit from a first subnet to a second subnet, forming one or more first flow control messages for updating routing information associated with the mobility event, transmitting the one or more first flow control messages to a core router, forming one or more second flow control messages for disabling layer 2 learning, transmitting the one or more second flow control messages to one or more network switching devices in the first subnet, forming one or more third flow control messages including layer 2 switching instructions for directing network traffic to the mobile unit in the second subnet, and transmitting the one or more third flow control messages.