90results about "Network traffic/resource management" patented technology

An apparatus and method are provided for performing scheduling in a Node B for data transmission of a user equipment (UE) in a mobile communication system supporting an enhanced uplink dedicated channel (E-DCH). The Node B receives, from a radio network controller (RNC), scheduling assistance information for an uplink service to be provided from the UE. The Node B estimates a data amount for the uplink service on the basis of the scheduling assistance information in each scheduling period. The Node B schedules data transmission for the uplink service according to the estimated data amount.

The invention discloses a method and a device for transmitting control information, and provides a diversity transmission model-based control information transmitting mode. The method for transmitting the control information comprises the following steps of: ensuring that each enhanced-control channel elements E-CCE for transmitting an enhanced-physical downlink control channel (E-PDCCH) comprises a plurality of enhanced-resource element groups (E-REGs) with the same quantity, and the E-REGs of each E-CCE are respectively assigned to different frequency RB (resource blocks); and bearing each downlink control information (DCI) transmitted on the E-PDCCH into at least one E-CCE to be transmitted. Each part in one DCI is respectively borne on a plurality of different frequency bands which correspond to the E-PDCCH to be transmitted, so that the transmitting stability and reliability of the DCI can be improved.

An embodiment of the invention relates to a local area sensor network including a central unit configured to receive a resource allocation request from a priority network sensor in a reserved timeslot and in response to designate a shared timeslot allocation. The priority network sensor transmits a resource allocation request in a reserved timeslot, and the sensor transmits data in the allocated shared timeslot. A sensor network can be formed with multiple gateways that each communicate over wired and wireless portions of the network. The central unit communicates with the gateways over the wired portion of the network. Wireless nodes communicate wirelessly with the gateways. The central unit receives a plurality of link quality indicators from the gateways for respective wireless paths to the wireless sensors, and selects a gateway for relaying a message from the central unit to a wireless sensor based on the link quality indicators.

RLC processing section 106 supplies packet data requested for retransmission from a mobile terminal and new packet data not requested for retransmission to buffer 107 corresponding to data amounts controlled in HS-DSCH/FP processing section 108. Buffer 107 temporarily stores the packet data requested for retransmission and the new packet data not requested for retransmission to output at predetermined timing. HS-DSCH/FP processing section 108 detects a receivable data amount of the mobile terminal using CQI, and controls RLC processing section 106 so that the amount of data stored of packet data in buffer 107 does not exceed the receivable data amount of the mobile terminal. It is thereby possible to decrease the number of retransmissions to improve the throughput, and prevent suspension of the communication and disconnection of the channel.

The present invention provides a method for handling scheduling information report in a user equipment (UE) of a wireless communication system. The method includes steps of triggering a Buffer Status Report (BSR), which is a Regular BSR, and a Power Headroom Report (PHR); and performing resource allocation when having uplink resource allocated for new transmission, wherein resource allocation priority of a MAC control element of the BSR is higher than that of the PHR.

A network node, a wireless device and a respective method performed by the same in a wireless communication network employing heterogeneous frequency band types, the network node being operative to serve wireless devices in a non-licensed frequency band and in a licensed frequency band, the network node serving a wireless device in a non-licensed frequency band are provided. The method in the network node comprises configuring (110) a fallback carrier in the licensed frequency band to the wireless device, wherein if the network node determines that the wireless device should switch to the licensed frequency hand, the method comprises handing over (130) the wireless device to the fallback carrier.

A method for dynamically allocating signal processing resources in a wireless multichannel broadband base station (BBS) for a cellular communications network including determining a number of available channel processor (CP) resources which are unused in a BBS. In response to notification of a subscriber call to be processed by a cell of the BBS, a determination is made as to whether the number of available CP resources is at least one. If so, then the call is assigned to any available CP resource in the BBS. Each of the CPs in the BBS process any of a plurality of traffic channels contained on any frequency channel assigned to the BBS. In addition, an apparatus for practicing the method is disclosed.

Apparatus and method for communication are provided. The apparatus includes a controller for controlling the transmission and reception of data on one or more carriers utilizing Time Division Duplexing and frames including sub frames, where multiple carriers utilized by different apparatuses are synchronized with each other and a predetermined number of sub frames of each frame are reserved for predetermined transmission directions and a scheduler for allocating the rest of the sub frames carrier specifically either in downlink or uplink direction.

CSIT error considerate delay-sensitive user access systems are provided in a multi-user OFDMA environment comprises a user delay sensitivity tracking component, a CSIT estimating component, a system queue state tracking component and a cross layer scheduling component. The techniques assume heterogeneous users with respect to delay and assume that CSIT information includes error, and optimally allocates broadcast resources, e.g., power, subcarriers and data rate, based on such assumptions.

A method and apparatus is disclosed herein for scheduling, load balancing and/or pilot assignment in MIMD cellular deployments (e.g., reciprority-based MIMO cellular deployments). In one embodiment, the method comprises receiving, by the central controller from at least one AP, for at least one user terminal, a size of a user set and user rate information indicative of a rate that can be provided to the user terminal when served in a group of one or more user terminals; and determining, by the central controller, based on user rate information and the user set size, an allocation of AP resources among the user terminals for the at least one

The present invention relates to a method and apparatus for determining radio link failure between the UE and the eNB in a wireless communication system. Particularly, the present invention provides a method and apparatus for determining radio link failure efficiently in such a way that the UE measures the radio link quality of the anchor carrier, the radio link qualities of the aggregated carriers, and the radio link quality of neighbor cells in order, and determines whether the radio link quality fulfills a predetermined condition.

In a network that roughly comprises a temporary master station and a plurality of slave stations and is an adhoc network, which can be immediately constructed in situ, and is a temporary master station interposition-type network in which a temporary master station is present, the temporary master station receives and judges an interference detection packet sent from the slave station. By virtue of this construction, an asynchronous interference avoiding method and an asynchronous interference avoiding system can be realized which can reliably avoid interference.

A method provides differentiated quality of service (QoS) by providing adaptive updates to media access control (MAC) layer parameters on a distributed basis. The method includes calculating a failure probability for a transmission over the network, determining a target value for determining a contention window according to a mapped function of the failure probability, and altering the contention window according to a scaling function of the target value. The mapped function and the scaling can provide QoS differentiation. A wireless device ensures fairness in a wireless time slotted network and includes a network interface card (NIC), a network driver interface, a network monitor, a statistics engine, and an adaptive parameter engine for determining a target value for determining a contention window according to a mapped function of the one or more probabilities to enable an alteration of the contention window and provide new parameters for the MAC layer.

A method of determining a radio link failure associated with a handover of a user equipment from a source access node to a target access node includes acquiring a first information about a time associated with the user equipment communicating with an access node for establishing a connection associated with the handover and a second information indicating the access node with which the user equipment communicates for establishing a connection subsequent to the radio link failure, and determining the radio link failure based on the acquired first and/or second information.

Relay station (200) in a communication system using PCells and Scells for backhaul communication, and configuring DL BHSFs of the PCell, and UL BHSFs of the PCell located after a prescribed number of subframes after a DL BHSF includes: ACK/NACK generator (203) generating a response signal for a downlink signal received in PCell and SCells from base station (100); transmitter (205) transmitting a response signal in response to a downlink signal received in an SCell in a DL BHSF configured at a timing different from that of the DL BHSF of the PCell, the response signal in UL BHSFs of the SCell a prescribed number of subframes after the DL BHSF, and a response signal for a downlink signal received in an SCell in a DL BHSF having the same timing as that of the DL BHSF of the PCell, and the response in a UL BHSF of the PCell.

The invention discloses a method for sharing bandwidth among wireless devices and the wireless devices, relates to the fields of communication technique and communication, and aims to solve the problems of low internetworking flexibility, low usability and low network utilization ratio in the prior art. The method comprises the following steps that: a wireless device A issues a connection request to a wireless device B, and consults with the wireless device B to share bandwidth information and establish connection; the wireless device A judges whether local data needs to be forwarded or not; and when the local data needs to be forwarded, the wireless device A transmits a data packet to a network through the wireless device B. Each wireless device comprises a link control module, a load balancing module and a data forwarding module, wherein the link control module is used for initiating the connection request to other wireless devices and consulting with other wireless devices to share the bandwidth information and establish connection; the load balancing module is used for transmitting a forwarding signal when the wireless device judges that the local data needs to be forwarded; and the data forwarding module is used for receiving the forwarding signal and transmitting the data packet to the network through other wireless devices which are connected with the wireless device.

The invention discloses a data distribution method and equipment. The data distribution method comprises the following steps of: receiving messages; extracting flow labels in the messages; and distributing the messages with the same flow label to a same physical port. A same session can be guaranteed to be distributed to the same one physical port by using the data distribution method and equipment disclosed by the invention; besides, the integrity and accuracy of the CDR (Call Data Record) synthesis of a monitoring system can be guaranteed; and thus, a terminal user can use the business more conveniently on the premise of maintaining the benefit of an operator.

Allocation of a wireless communications system channel resource is managed by utilizing traffic segment allocation. This is realized by partitioning the channel resource into an assignment channel and a traffic channel in a fixed manner. The assignment channel includes assignment segments and the traffic channel includes traffic segments. The traffic segment is the basic traffic channel resource unit used to transport traffic data and has a prescribed finite time interval and bandwidth. Each traffic segment is associated with a so-called assignment segment in a prescribed manner. One or more traffic segments may be associated with a particular assignment segment. A base station broadcasts via an assignment segment which wireless terminal is to use a particular traffic segment. This is realized by transmitting a simply identifier for the particular wireless terminal assigned to the particular traffic segment in the assignment segment. Then, each active wireless terminal monitors all of the received assignment segments to detect any traffic channel assignments. Once a wireless terminal detects its identifier in an assignment segment, it proceeds to receive/transmit the traffic data in the traffic segment associated with the assignment segment including the detected identifier.

A data transmission method is disclosed in the present invention, which includes: switching from a Device to Device (D2D) communication mode to a cell communication mode; packaging a data package failed to be transmitted in the D2D communication to a cell communication package; the packaged data packet includes indication information; said indication information is used to indicate that said packaged data packet is the one failed to be transmitted in the D2D communication, and is the divided data packet of an origin D2D communication data packet, and the sequence of the divided data packet in the origin D2D communication data packet; sending the packaged data packet to a data receiving device, wherein, said indication information is used by said data receiving device to perform identification process for the data packet. A data sending device, a data receiving device and a data transmission system are also disclosed in the present invention. By applying the embodiments of the present invention, the lossless switching from the D2D communication mode to the cell communication mode is enabled, and the correct receiving of data is implemented.

A device (110) receives a radio link control (RLC) protocol data unit (PDU) (740) or service data unit (SDU) (760) to be segmented, defines a padding threshold (840) for a segmentation mechanism, and determines a padding ratio (850) after enhanced dedicated channel transport format combination (ETFC) selection (730). The device selects a first transport block (960) and a second transport block (970) associated with the RLC PDU/SDU (740/760) when the padding ratio (850) is greater than or equal to the padding threshold (840), and generates a modified segmentation of the RLC PDU/SDU (740/760) based on the first and second transport blocks (960/970) when a padding ratio (RTB) associated with the first and second transport blocks (960/970) is less than the padding threshold (840) and a size ratio (STB) associated with the first and second transport blocks (960/970) is within a size threshold (980).

A method of calculating a bandwidth for a mobile terminal including requesting, by the mobile terminal, a description of a streaming content from a network and receiving a response from the network, requesting, by the mobile terminal, a Quality of Service (QoS) value corresponding to a required amount of bandwidth resources of the network for receiving a streaming service of the contents from information about the content included in the received response, and receiving, by the mobile terminal, allocated bandwidth resources of the network according to the QoS value.

A mobile communication system includes a first base station configured to be controlled by a first radio network controller, and provide an address of an extension transmission/reception device to user data received from a first mobile station, and the extension transmission/reception device configured to be controlled by the first radio network controller or a different second radio network controller, and provide an address of a second base station, which is controlled by the second radio network controller, to user data received from the first base station.

The invention provides a method and a device for transmitting application data. The method comprises the following steps that: an always online infrastructure (AOI) platform receives the application data from an application server; and the AOI platform compresses the application data, and transmits the compressed application data to a terminal. By using the technical scheme, a technical means for compressing the application data transmitted to the terminal by the AOI platform is adopted, so that the problems of low data transmission efficiency of the conventional AOI platform, influence of a great data traffic generated by the application of a mobile terminal on voice quality, and the like in related technologies are solved, and the effects of improving the data transmission efficiency of the AOI platform and reducing the volume of the data transmitted through mobile Internet are further achieved.

A system includes a gateway node that contains modular cards that separately implement control and data planes of a network protocol. The separate data and control cards provide for improved system reliability and improved flexibility in managing bandwidth. Control or data cards can be added to the gateway node as needed based on system load.

One embodiment of the present invention discloses a user equipment (UE) for performing carrier aggregation, comprising: a processor; memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: determine a duplex method of each serving cell for frequency-division duplexing (FDD) and time-division duplexing (TDD) carrier aggregation, wherein at least one serving cell is a TDD cell and at least one serving cell is a FDD cell; determine a subframe offset; determine physical downlink shared channel (PDSCH) Hybrid Automatic Repeat Request Acknowledgement/Negative Acknowledgement (HARQ-ACK) transmission timing for a serving cell, wherein when a primary cell is a TDD cell, the PDSCH HARQ-ACK transmission timing for the serving cell is determined based on a downlink (DL) association set with the subframe offset for the serving cell; and send PDSCH HARQ-ACK information based on the PDSCH HARQ-ACK transmission timing.