Abstract: A base station able to maintain backward compatibility with an LTE mobile station while minimizing the amount of increase in uplink scheduling information reception and demodulation/decoding processing in independent uplink/downlink cell data transmission. A wireless communication system includes a cell #1, a cell #2, and an LTE-A mobile station, and supports independent uplink/downlink cell data transmission. The base station of the cell #2 arranges a PDCCH+, which includes uplink scheduling information from the LTE-A mobile station to the base station of the cell #2, in a downlink data region in the downlink connection of the base station of the cell #1.

Abstract: A method for assisting the adaptation of a signal from a first node to a second node is provided. The first node communicates with the second node in a wireless communication system over a radio link. The second node has a codebook comprising a set of possible information alternatives for assisting the adaptation of a signal received from the first node. The second node may select an information alternative from the codebook and send it to the first node to assist the first node in adapting the signal. The first node is configured with a number of subsets, each comprising a part of the possible information alternatives. The first node requests that the second node restrict the selection of information alternatives to one of the subsets, and in response, receives an information alternative from the second node that is selected from among the subsets configured according to the configuration request.

Abstract: Embodiments of a high-efficiency Wi-Fi (HEW) device and method for HEW communicating are generally described herein. In some embodiments, an HEW frame is configured with a reduced signal field. The HEW frame may include a HEW signal field (HEW SIG-A1) which may include a single bit to indicate whether the HEW frame is a single user (SU) HEW frame or a multi-user (MU) HEW frame. A legacy signal field (L-SIG) is not included in the HEW frame. Rate information may be included in one or more signal fields that follow the HEW SIG-A1 and length information may be included in either the HEW SIG-A1 or the one or more signal fields that follow the HEW SIG-A1. The HEW frame may improve overall system efficiency, particularly in high-density deployment situations.

Abstract: Methods and user equipment (UE) apparatuses are provided to transmit an acknowledgement/negative acknowledgement (ack/nack) signal. A method includes receiving configuration information through higher layer signaling; determining a first resource or a second resource based on the received configuration information; transmitting the ack/nack signal using a first sequence on the first resource, if the first resource is determined; and transmitting the ack/nack signal using a second sequence on the second resource, if the second resource is determined.

Abstract: Provided is a terminal apparatus that, when two terminals having mutually different subframe structure patterns are coexistent, can suppress DCI scheduling constraints of those terminals in a base station. In a terminal (200), a signal separation unit (203) separates, from a received signal, both a response signal assigned to a first resource determined on the basis of a number of resources associated with the first subframes in which the signal was received and downstream control information assigned to a second resource. It should be noted that at a timing when both a first structure pattern that has been set in the terminal (200) and a second structure pattern that has been set in another terminal that cannot change the setting of the structure pattern are the first subframes, the signal separation unit (203) uses a number of resources associated with the first subframes of the second structure pattern.

Abstract: An apparatus obtains information for radio channel modeling by checking at least one measurement based value of at least one set of measurement based values of a plurality of sets of measurement based values based on at least one timing measurement value, wherein each set of measurement based values originates from a respective mobile terminal in a communication network (111). The same or another apparatus may perform a radio channel modeling based on the obtained information (112).

Abstract: A method and an apparatus for providing channel sharing are disclosed. For example, the method receives a request for a white space channel assignment, and identifies one or more white space channels in accordance with the request. The method sends a response to the request comprising a white space channel assignment, wherein the white space channel assignment assigns one of the identified one or more white space channels.

Abstract: A communication apparatus 101 having a plurality of antennas includes a controller that, in radio communication with another communication apparatus 103 on a plurality of channels by applying SDMA (Space Division Multiple Access), acquires information on communication performance of the another communication apparatus 103 and, based on the information, controls the radio communication that employs the SDMA.

Abstract: One disclosure of the present specification provides a method for determining whether to activate an idle mode signaling reduction (ISR) capability in a network entity for managing mobility of user equipment. The method for determining whether to activate the ISR capability comprises the steps of: obtaining information related to a proximity service of the user equipment; receiving from the user equipment a location refresh request message; determining whether to activate the ISR based on ISR capability information of a network node that had been just previously in charge of the user equipment, ISR capability information of the network entity, and information related to the proximity service of the user equipment; and transmitting a location refresh acceptance message to the user equipment after the determination.

Abstract: A terminal device includes: a setting unit that sets resources used to calculate a channel quality indicator; a reception unit that monitors a physical downlink control channel accompanied with information indicating an uplink-downlink configuration; a measurement unit that performs interference measurement to calculate the channel quality indicator based on the resource excluding at least the resource in an uplink subframe which is based on the uplink-downlink configuration; and transmission unit that transmits the channel quality indicator via a physical uplink shared channel. The transmission unit adjusts transmission with the physical uplink shared channel to which a physical downlink control channel accompanied with an uplink grant corresponds in subframe n+k based on detection of the physical downlink control channel accompanied with the uplink grant in subframe n. The setting unit sets a second uplink-downlink configuration. Here, k is given based on the second uplink-downlink configuration.

Abstract: A method for selecting signal channel for a wireless networking device is provided. The method collects WLAN and non-WLAN interference information on the candidate channels. The method then determines a weighted grade for each of the candidate channels based on the collected WLAN and non-WLAN interference information. A channel is selected among the candidate channels based on the weighted grades. The method further adjusts WLAN transmit parameter of the wireless networking device based on the collected WLAN and non-WLAN interference information.

Abstract: A manner of managing data transmission and operating-mode transitions in a communication network. A network node having a transmitter and receiver is selectively transitioned into a Transmit state, where the Transmit state is a condition wherein the transmitter is turned on for data transmission only during timeslots provided for by a PBW (pre-allocation bandwidth) and remains off otherwise. The PBW and clock drift allowance permits the receiver to remain off during all or most of the Transmit state.

Abstract: A subset of mobile device candidates in a multi-input multi-output (MIMO) channel of network devices is selected for having a feedback priority among a set of mobile device candidates. The selection is based on a set of queue state information of a plurality of mobile device queues for transmitter and receiver devices of the MIMO channel in a multi-user MIMO network. A portion of the subset of mobile device candidates can be selected by a scheduling component of the system. Communications on the MIMO channels can be scheduled to the portion of the subset of mobile device candidates based on the feedback comprising channel state information and on the queue state information of the plurality of mobile device queues.

Abstract: The present invention provides a network coverage planning method and apparatus of an evolution communication system, wherein the method includes: obtaining the theoretical coverage parameter of a single base station of the evolution communication system by link budget; obtaining the theoretical coverage parameter of an entire network of the evolution communication system by network stimulation; calculating a reception level value of the evolution communication system under the wireless environment of a current network communication system in the same planning area to estimate a simulative measured coverage parameter of the evolution communication system; and planning the coverage parameter of the entire network of the evolution communication system according to the theoretical coverage parameter of the single base station, the theoretical coverage parameter of the entire network and the simulative measured coverage parameter.

Abstract: A method in a node is disclosed. The method comprises determining a beam forming quality indicator for the network node, the beam forming quality indicator indicating a beam forming performance gain from the network node having beam forming capability, wherein the beam forming quality indicator comprises at least or is a function of at least a reference signal quality and an achievable signal quality. The method further comprises performing one or more radio operations using the determined beam forming quality indicator.

Abstract: The teachings present a method performed in a network node for configuring a device for radio communication in uplink and downlink between the network node and the device. The method comprises: configuring the device with a primary cell on a first radio channel at a first carrier frequency f1 with a first frequency bandwidth B1 for time division duplexed communication in uplink and downlink; configuring the device with a secondary cell on a second radio channel at a second carrier frequency f3 with a second frequency bandwidth B3, wherein the secondary cell is adjacent to the primary cell and configured for downlink communication only; and configuring the device to support and to monitor the second radio channel, the configuration comprising a priority list according to which the device is to perform the monitoring. The teachings also disclose corresponding network node, methods in a device, and corresponding devices.

Abstract: A duplex communication system having gate-implemented noise management is contemplated. The system may include a gate or other device sufficiently operable to facilitate managing upstream and downstream signaling so as to ameliorate noise funneling between communicating endpoints by selectively controlling communication paths through which noise may be propagated. Optionally, the system may be operably configured to facilitate this type of gate-implemented noise management for time domain duplex (TDD) and frequency domain duplex (FDD) communications.

Abstract: The present disclosure relates to a system that uses a switch to convey wireless signals between a plurality of electronic devices interconnected by dielectric waveguides. In some embodiments, the system includes a plurality of electronic devices respectively having a transceiver element that generates a wireless signal that transmits a data packet. A switch receives the wireless signal from a first one of the plurality of electronic devices and re-transmits the wireless signal to a second one of the plurality of electronic devices. A plurality of dielectric waveguides convey the wireless signal between the plurality of electronic devices and the switch. Respective dielectric waveguides have a dielectric material disposed at a location between one of the plurality of electronic devices and the switch. Using the switch to convey wireless signals between the plurality of electronic devices provides a system that has a low wireless signal attenuation and reduced number of transceivers.

Abstract: This method whereby abase station in a first communication system updates base station information in a converged network supporting multiple communication systems may comprise the steps of: receiving a first message including changed information from a base station in a second communication system if information from and related to the base station in the second communication system has changed or if information related to the base station in the first communication system has changed; and updating with the changed information on the basis of the first message.

Abstract: This network comprising functional nodes connected in series by information transmission means, in which the information assumes the form of discrete messages propagating from node to node in the network, is characterized in that the information transmission means for transmitting information between the nodes are bidirectional so as to allow information to propagate in both directions of flow of the network, and each node includes at least one first and one second associated port, for information input/output, connected to adjacent nodes by corresponding information transmission means and the operation of which is controlled by communication automaton means, between an operating mode for the asynchronous reception of information from its adjacent nodes and an operating mode for the synchronous transmission of information to the nodes adjacent thereto, and in that the communication automaton means are suitable for triggering the activation of the communication of information from the node to its adjacent node