Abstract: The present invention relates to a wireless communication system. More specifically, the present invention relates to a method and a device for configuring SPS resources in wireless communication system, the method comprising: configuring a plurality of cells; receiving information for semi-persistent scheduling (SPS) resource configuration with an indication indicating at least one cell among the plurality of cells on which the SPS resource configuration is to be configured; and configuring a set of SPS resources based on the SPS resource configuration on the at least one cell indicated by the indication.

Abstract: The present invention relates to a wireless communication system, and specifically, to a method and a device for the method which comprises the steps of: aggregating a LCell and a UCell in order to communicate with a base station; and transmitting a slotted uplink physical channel via only one slot among a plurality of slots of a subframe #m of the UCell, wherein the transmission of the slotted uplink physical channel includes performing a first CCA procedure X-time prior to a reference time point of the first slot of the subframe #m, and if the first CCA procedure fails, performing a second CCA procedure Y-time (Y>X) prior to a reference time point of the second slot of the subframe #m.

Abstract: At an application executing in conjunction with a vSwitch a determination is made that a first flow from a first VM is experiencing congestion. The first flow is selected for throttling. a second flow is also selected for throttling, the second flow using a portion of a network path used by the first flow in a data network. At the application, a total CWND adjustment is distributed between the first flow and the second flow. A first CWND value associated with the first flow is adjusted by a first portion of the total CWND window, and a second CWND value associated with the second flow is adjusted by a second portion of the total CWND window.

Abstract: Provided is a transmission apparatus including a transmission signal generator which, in operation, generates a transmission signal that includes a legacy preamble, a non-legacy preamble and a data field. The non-legacy preamble comprises a first signal field and a second signal field. The first signal field comprises a second signal field compression subfield and a number of second signal field symbols subfield. The second signal field symbols subfield indicates a number of second signal field symbols when the second signal field compression subfield indicates that a full bandwidth containing first and second frequency subbands is not allocated for multi-user (MU) MIMO transmission. The number of second signal field symbols indicates a number of MU MIMO users when the second signal field compression subfield indicates that the full bandwidth is allocated for MU MIMO transmission. The transmission apparatus includes a transmitter which, in operation, transmits the generated transmission signal.

Abstract: Embodiments of the present invention provide a protocol conversion method and apparatus. The method includes: implementing frequency synchronization and time synchronization with a baseband unit (BBU) using an Ethernet protocol; obtaining frequency synchronization information and time synchronization information in a first format from an Ethernet interface; converting the frequency synchronization information and the time synchronization information in the first format into frequency synchronization information and time synchronization information that are in a second format, where the second format is a common public radio interface CPRI protocol format; and sending the frequency synchronization information and time synchronization information in the second format to a remote radio unit (RRU) using a CPRI interface, where the RRU supports a CPRI protocol.

Abstract: Systems, methods, and devices schedule requests associated with wireless communications devices. Methods include receiving a plurality of requests from a plurality of wireless communications devices that is compatible with an 802.11 transmission protocol, where each request of the plurality of requests includes a proposed service period and proposed service interval. Methods further include generating, using a processing device, a plurality of quantization factors by quantizing the proposed service interval included in each of the plurality of requests, determining, using the processing device, a common service interval based, at least in part, on the plurality of quantization factors and a basic service unit, and generating, using the processing device, an allocation pattern to allocate the proposed service periods within the common service interval.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. A first service processor of the computer system emulates a first storage device to a composed machine of a computing pod. The first service processor exposes a bootable utility image to the composed machine through the first storage device. The bootable utility image is configured to boot a program that collects hardware inventory information from the composed machine. The first service processor emulates a second storage device to the composed machine. The first service processor receives the hardware inventory information from the composed machine through the second storage device.

Abstract: Some embodiments provide a network forwarding integrated circuit (IC) including multiple configurable ingress pipelines, multiple configurable egress pipelines, a traffic management unit, and a statistics bus. The configurable ingress pipelines are for processing packets received from ports of the network forwarding IC. The configurable egress pipelines are for processing packets to be transmitted out the ports of the network forwarding IC. The traffic management unit includes multiple queues, each of which corresponds to one of the egress pipelines, and is for receiving a packet from an ingress pipeline and enqueuing the packet into one of the queues. The statistics bus connects the traffic management unit to at least a subset of the ingress pipelines, and is for providing the ingress pipelines with state information regarding the queues.

Abstract: A method for establishing an interaction session on the second communication bearer between an Interaction Gateway (IGW) of a RAN and the service client for controlling the service level communication. The method obtains an initialization message addressed to the RAN by means of default IGW address information on the first bearer, for initiating the interaction session, determines dedicated IGW address information for the interaction session, and initiates sending of a confirmation message comprising the determined dedicated IGW address information to the service client. The method ensures that the interaction session is associated with the second communication bearer used for the service level communication, and obtains an interaction session message addressed to the RAN by means of the determined dedicated IGW address information on the second communication bearer, and further initiates sending a response to the interaction session message, to the service client in the radio device on the second bearer.

Abstract: This disclosure is directed to an apparatus for intelligent matching of disparate input signals received from disparate input signal systems in a complex computing network for establishing targeted communication to a computing device associated with the intelligently matched disparate input signals.

Abstract: Certain aspects of the present disclosure provide techniques for uplink power control (ULPC) that may help achieve frequency domain interference mitigation. Aspects generally directed to frequency domain interference mitigation. A user equipment (UE) may be configured with multiple subband sets. Each subband set may include one or more bandwidth parts. The UE may apply different ULPC for different subband sets. According to aspects, the UE may combine subband-dependent ULPC with subframe-dependent ULPC.

Abstract: A wireless network system and a connection method for the wireless network are provided. A network device in the wireless network obtains the connecting route weights of a network base station and other network devices, the received signal strength indictor (RSSI) between the network device and the network base station, and the RSSIs between the network device and each of the other network devices. The network device obtains the routing decision values corresponding to the network base station and the other network devices and chooses the network base station or one of the other network devices corresponding to the highest routing decision value as the connection target. The network device can re-select its connection target according to environmental changes in the wireless network.

Abstract: A network node, a communication device and methods therein, for handling dynamic uplink/downlink, UL/DL, subframe configurations when operating in Time Division Duplex, TDD. The network node obtains capability information indicating whether the communication device supports carrier aggregation and/or frequency band combination, and also indicating whether the communication device supports simultaneous reception and transmission of signals on different carriers or frequency bands. The network node then determines UL/DL subframe configurations for the communication device based on the obtained capability information such that the communication device is to use different UL/DL subframe configurations for different carriers or frequency bands, when certain conditions are fulfilled.

Abstract: A base station indicates, to a user equipment (UE) configured for operation with carrier aggregation, a resource for a transmission of a physical uplink control channel (PUCCH) format that conveys acknowledgement information from the UE, and the UE determines the resource and a transmission power for the PUCCH format.

Abstract: In order to perform efficient communications, provided is a terminal device configured to communicate with a base station device. The terminal device includes: a reception unit configured to receive a higher layer signal including a configuration relating to a physical uplink shared channel (PUSCH); a scrambling sequence generator configured to, if the terminal device supports a capability relating to low complexity and/or coverage enhancement, apply the same scrambling sequence to the PUSCH during a certain period; and a transmission unit configured to transmit the PUSCH, on the basis of the number of repetitions in the configuration relating to the PUSCH.

Abstract: A wireless device receives configuration parameters of a physical uplink control channel (PUCCH) secondary cell with a secondary PUCCH. The PUCCH secondary cell is in a timing advance group (TAG) of TAGs. During a first transmission time interval, a command indicating activation of the PUCCH secondary cell is received. A timing advance command for the TAG is received. Transmission of valid channel state information via the PUCCH secondary cell during a second transmission time interval occurring a first quantity of transmission time intervals after the first transmission time interval are started. The first quantity is based on a delay from receiving the command until the wireless device applies the timing advance command to uplink transmissions via the TAG. Acknowledgements for downlink shared channel transport blocks are transmitted via the PUCCH secondary cell.

Abstract: A load balancing method for cellular communication systems and communication systems in general is described where beam steering antenna systems on the client or user side of the communication link are used to optimize load balancing among the base stations or nodes. A system controller containing an algorithm is implemented to control the radiation modes from the client or user devices to assign the client or user devices to the various base stations or nodes and to dynamically vary the network load across the cellular or communication system.

Abstract: Some embodiments provide a method and system for configuring a plurality of managed forwarding elements (MFEs) in a plurality of cloud-provider virtual networks (CPVNs) to make routing decisions that efficiently use a peered transit CPVN and peering with other CPVNs in the plurality of CPVNs. In some embodiments, a controller set receives an identification of peering relationships between CPVNs in the plurality of CPVNs and generates configuration data for configuring each MFE. The configuration data is used to configure the MFE to forward data messages received at the MFE using a peering between a source CPVN and a destination CPVN when possible and to forward data messages received at the MFE to a transit gateway device in a transit CPVN when it is not possible to use a peering between the source and destination CPVNs.

Abstract: This application discloses a control information sending method, a data block transmission method, and a related apparatus. The control information sending method in this application is used to schedule multiple transmission time intervals TTIs for data transmission, and the multiple TTIs include at least a first TTI and a second TTI.

Abstract: A method for processing a signal at a user equipment (UE) in a wireless communication system is disclosed. The method includes steps of receiving information on multiple first threshold values for a neighbor cell measurement from a serving cell; measuring the signal from the signal of the serving cell; comparing the measured signal with the multiple first threshold values and multiple second threshold values of a cell enhancement (CE) mode; and performing the neighbor cell measurement for a cell reselection or a change of the CE mode according to a result of comparing.