Abstract: The present invention provides a method for receiving multimedia broadcast single frequency network (MBSFN) configuration information in a wireless communication system, which is performed by a terminal for which a time division duplex (TDD) cell is configured, the method comprising: receiving the MBSFN configuration information including a bitmap; determining an MBSFN subframe on the basis of the MBSFN configuration information; and performing wireless communication on the basis of the determined MBSFN subframe, wherein the MBSFN configuration information is MBSFN configuration information for a TDD cell comprising only downlink subframes.

Abstract: A system, method, and computer program product are provided for probabilistic estimation and prevention of muting occurrence in VoLTE. In operation, a system estimates a muting probability associated with a current state of a newly initiated call between calling user equipment (UE) and called UE by computing a muting contribution per interface between the calling UE and the called UE utilizing a muting probability estimation algorithm. Further, the system determines possible corrective actions to be performed specific to the current call state utilizing a correlation algorithm for prevention of muting occurrences.

Abstract: An electronic device, a method applied to an electronic device, and a data processing device. The electronic device includes: a processing circuit configured to allow a cell to implement data transmission by using at least a portion of a time resource corresponding to an unused channel state information reference signal (CSI-RS) port, wherein the CSI-RS port is from a CSR-RS configuration different from a CSI-RS configuration of the cell.

Abstract: Aspects of the present disclosure provide a suitable architecture for a router controller which configures forwarding rules in a packet router of a network visibility system. In an embodiment, the router controller contains multiple controller blocks, with each controller block to examine a corresponding set of packets and to generate a respective set of forwarding rules for configuring the packet router. The router controller may also contain a switch to receive multiple packets and to forward to each controller block the corresponding set of packets. Each controller block may forward the respective set of forwarding rules to the switch, with the switch in turn configuring the packet router with the respective set of forwarding rules.

Abstract: A method for generating a channel quality indicator (CQI) in a mobile communication system is presented. The method includes grouping a number of subcarriers to form at least one channel quality indicator subband for generating a channel quality indicator, and generating a channel quality indicator in each channel quality indicator subband, wherein a size of each channel quality indicator subband is dependent on a system bandwidth value and is an integer multiple of a downlink frequency resource unit size, wherein the downlink frequency resource unit size is prescribed according to the system bandwidth value.

Abstract: Aspects of the subject disclosure may include, for example, a method comprising receiving first media content from first equipment of a first source, transmitting the first media content to a first base station having a first coverage area for transmission from the first base station to a user device through multi-cast while the user device is within the first coverage area, and transmitting the first media content to a second base station having a second coverage area for transmission from the second base station to the user device through unicast while the user device is within the second coverage area. Other embodiments are disclosed.

Abstract: Techniques for exchanging control and configuration information in a network visibility system are provided. In one embodiment, a control plane component of the network visibility system can receive one or more first messages from a data plane component of the network visibility system, where the one or more first messages define one or more forwarding resources available on the data plane component. The control plane component can further retrieve configuration information stored on the control plane component that comprises one or more network prefixes to be monitored by the network visibility system, and can determine one or more mappings between the network prefixes and the forwarding resources. Upon determining the one or more mappings, the control plane component can generate one or more packet forwarding rules based on the mappings.

Abstract: Various aspects described herein relate to communicating a scheduling request (SR) in a wireless network. A frame structure that allows dynamic switching of transmission time intervals (TTI) between uplink and downlink communications may be used to communicate with a network entity. At least one SR mode can be selected for SR transmission to the network entity in one or more of the TTIs configured for uplink communications based at least in part on the frame structure. The SR can be transmitted to the network entity in at least one uplink TTI of the one or more TTIs configured for uplink communications based at least in part on the at least one SR mode.

Abstract: A communication method for a terminal is disclosed, including creating a radio link failure (rlf)-report including information associated with an rlf with a first base station; connecting to one base station from among base stations including the first base station; and transmitting the rlf-report to the one base station. Furthermore, a communication method for a base station is also disclosed, including connecting to the terminal; and receiving an rlf-report including information associated with a previous rlf between the terminal and another base station. In an aspect, information including channel information is transmitted to a base station to which a terminal is initially connected even when the terminal has failed in performing random access thereto, to thus enable the efficient transmission of information, and the base station may control scheduling or the like in accordance with the information reported by the terminal, thereby enabling efficient communication.

Abstract: The present disclosure includes systems and techniques relating to broadcast and multicast in a wireless communication system. In some implementations, an announcement frame indicating a broadcast or multicast service period to multiple second wireless devices is transmitted by a first wireless device. The announcement frame indicates (i) an end time of the broadcast or multicast service period and (ii) an order of a sequence of frames to be directed to the multiple second wireless devices. Each of the sequence of frames is transmitted at the first wireless device using a directional antenna pattern to a respective one of the multiple second wireless devices, according to the order of the sequence of frames indicated in the announcement frame. An acknowledgement frame in response to the each of the sequence of frames is received at the first wireless device from the respective one of the multiple second wireless devices.

Abstract: A wireless relay manages Radio Frequency (RF) interference. A wireless access point in the relay wireless exchanges user data with wireless user devices using an amount of Carrier Aggregation Secondary Component Carriers (CA SCCs) in an RF band. A wireless network transceiver in the relay wireless exchanges the user data with a wireless communication network using a number of RF channels in the RF band. In response to excessive RF interference, the wireless access point wireless exchanges subsequent user data with the wireless user devices using a lower amount of the CA SCCs in the RF band. In response to the excessive RF interference, the wireless network transceiver wireless exchanges the subsequent user data with the wireless communication network using a lower number of RF channels in the RF band.

Abstract: A wireless device receives, in a first subframe, a first downlink control information (DCI) indicating first uplink resources in one or more subframes comprising a third subframe. The wireless device receives, in a second subframe different from the first subframe, a second DCI indicating second uplink resources of the third subframe. The wireless device transmits, in the third subframe, a transport block according to parameters of the most recently received first DCI or second DCI.

Abstract: A packet processing method for a virtual switch is carried out in a virtual switch under the SDN architecture. The method presets a signature pre-computation table including plural destination addresses and signatures corresponding to the destination addresses. With the installation of the signature pre-computation table, the destination addresses fall into packets of the signature pre-computation table without requiring computing the signature of the packet. The method simply obtains the corresponding signature according to the destination address of the packet destination address, and thus saves the time required for processing a packet and improves the throughput of the virtual switch.

Abstract: A wireless device receives a grant for one or more subframes. The grant comprises a hybrid automatic repeat request process number (HARQ ID). The wireless device transmits a transport block in a subframe of the one or more subframes employing a first HARQ ID being calculated based on the HARQ ID and a position of the subframe in the one or more subframes.

Abstract: A device may receive streaming information associated with one or more user devices, streaming content being provided to the one or more user devices, and a cell associated with the one or more user devices. The device may determine a quantity of user devices receiving the streaming content in the cell based on the streaming information. The device may determine whether the streaming content is being provided using a unicast stream or is being provided using a multicast stream. The device may determine to switch from the unicast stream to the multicast stream or from the multicast stream to the unicast stream based on the quantity of user devices. The device may switch from the unicast stream to the multicast stream, or the multicast stream to the unicast stream based on determining to switch.

Abstract: A wireless device receives a downlink control information (DCI) indicating uplink resources in a number of one or more consecutive uplink subframes of a licensed assisted access (LAA) cell. The DCI comprises the number of the one or more consecutive uplink subframes and an assignment of a plurality of resource blocks. The wireless device transmits one or more transport blocks in the one or more consecutive uplink subframes, via the plurality of resource blocks used across the one or more consecutive uplink subframes.

Abstract: A device can determine a congestion window (CWND) value, associated with a first transmission control protocol (TCP) state, for a TCP flow that involves one or more devices using active queue management (AQM). The first TCP state to cause the CWND value to be increased at a particular rate. The device can determine a round trip time (RTT) value, associated with the first TCP state, for the TCP flow. The device can determine that one or more TCP state conditions are satisfied. The device can classify the TCP flow into a different TCP state. The different TCP state to cause the CWND value to be maintained, decreased, or increased at a rate that is different than the particular rate. The device can transmit one or more packets, associated with the TCP flow, based on classifying the TCP flow into the different TCP state.

Abstract: A method for performing route optimization between two nodes in network based mobility management, wherein each of the two nodes is associated with an access network via attachment to an access router, the access routers having directly or indirectly assigned a Mobility Access Gateway (MAG) that signals the node's presence to a Mobility Anchor (MA) which maintains the current IP address information along with location information of the node, is characterized in that some specific control for setting up a route optimized path for data packet exchange between the two nodes is assigned to the Mobility Anchors (MA).

Abstract: A physical host executes a virtual machine monitor (VMM) that instantiates a source virtual machine (VM). In response to the VMM receiving from the source VM a packet specifying a first destination address of a destination VM and a second destination address of a default gateway, the VMM determines whether the packet can be communicated to the destination VM without the packet being routed by the default gateway. In response to the VMM determining that the packet can be communicated to the destination VM without the packet being routed by the default gateway, the VMM forwards the packet to the destination VM such that the packet bypasses routing by the default gateway.

Abstract: A physical host executes a virtual machine monitor (VMM) that instantiates a source virtual machine (VM). In response to the VMM receiving from the source VM a packet specifying a first destination address of a destination VM and a second destination address of a default gateway, the VMM determines whether the packet can be communicated to the destination VM without the packet being routed by the default gateway. In response to the VMM determining that the packet can be communicated to the destination VM without the packet being routed by the default gateway, the VMM forwards the packet to the destination VM such that the packet bypasses routing by the default gateway.