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: A hardware architecture for a universal testing system used for performing tests on cable modem devices (DUT) is disclosed. According to certain embodiments, a CMTS test harness enables the DUT to respond to test phone calls from the MOCA interface and which test phone calls terminate at the DUT's phone port.

Abstract: Provided is a data transmission method, comprising: a terminal device receiving a first DCI and a second DCI; said first DCI being used for scheduling said terminal device to receive a first PDSCH which the first TTI is used to transmit on a target carrier, and said second DCI being used for scheduling said terminal device to receive a second PDSCH which the second TTI is used to transmit on a target carrier, the first TTI being smaller than the second TTI and the time resources of the first PDSCH and the second PDSCH at least partially overlapping; determining the priority relationship between the first DCI and the second DCI; according to said priority relationship, receiving the first PDSCH or the second PDSCH on the target carrier.

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: The present invention relates to communications methods, apparatus and systems for collecting metrics and/or traffic routing using SDN principles. In an exemplary method embodiment, the method includes the steps of: operating a SBC to: (i) receive a session initiation signal used to initiate a first media session; (ii) send to an SDN controller session identification information identifying a first RTCP packet stream corresponding to the first media session and causing said SDN controller to control a first open flow switch to establish an entry in a table to cause the first open flow switch to send a copy of the RTCP packets corresponding to the first RTCP packet stream to the SBC while also communicating the RTCP packets corresponding to the first RTCP packet stream towards the intended first RTCP packet stream destination.

Abstract: A terminal device is configured to establish a communication link with communication equipment through a base station device such that, upon establishing the communication link, part of the communication link is left for a certain base station while another part of the communication link is established with the terminal device through the other base station device according to a plurality of architectures, wherein the terminal device includes a wireless communication part configured to transmit support architecture information representing an architecture supported by the terminal device among a plurality of architectures to the base station device.

Abstract: A mobile information handling system may comprise a plurality of transceiving antennas transmitting N×N WLAN signals and M×M WWAN signals according to a preset antenna configuration, mounted in a case for the mobile information handling system and a processor executing machine readable executable code instructions of the dynamic wireless antenna co-existence control system to receive an indication of co-location interference and an identification of the M×M WWAN signals as a victim signal negatively impacted by the co-location interference, instruct a first interference controller operably connected to the processor and a first tunable impedance matching circuit to route the victim signal from a first one of the plurality of transceiving antennas to a WWAN radio modem via the first tunable impedance matching circuit, and instruct the first tunable impedance matching circuit to apply an impedance adjustment that maximizes the port isolation of an antenna port for the first WWAN transceiving antenna.

Abstract: Provided is a data transmission method, comprising: a terminal device receiving a first DCI and a second DCI; said first DCI being used for scheduling said terminal device to receive a first PDSCH which the first TTI is used to transmit on a target carrier, and said second DCI being used for scheduling said terminal device to receive a second PDSCH which the second TTI is used to transmit on a target carrier, the first TTI being smaller than the second TTI and the time resources of the first PDSCH and the second PDSCH at least partially overlapping; determining the priority relationship between the first DCI and the second DCI; according to said priority relationship, receiving the first PDSCH or the second PDSCH on the target carrier.

Abstract: A method for receiving a downlink control channel by a user equipment (UE) in a wireless communication system is disclosed. The method includes receiving downlink control information (DCI) indicating an aggregation level being a reference for allocating a downlink data channel to a control region, determining a last control channel element (CCE) index to which the downlink control channel is allocated, based on the received DCI, configuring a downlink control channel transmission region in consideration of the last CCE index and a resource region for one or more downlink control channel candidates corresponding to the aggregation level, and configuring a remaining control region except for the downlink control channel transmission region as a downlink data channel transmission region, and receiving the downlink control channel and the downlink data channel in the control region, based on the configured downlink control channel transmission region and the configured downlink data channel transmission region.

Abstract: A method can include receiving measurement configurations for measuring serving/neighboring cells at a user equipment (UE) in a wireless communication system. The measurement configurations can indicate multiple measurement objects (MOs) each with a SSB measurement timing configuration (SMTC) specifying a sequence of SMTC window durations (i.e. SMTC occasions), and a sequence of gap occasions. The MOs can be measured within the SMTC occasions that overlap the gap occasions. The method can further include determining a carrier-specific scaling factor for a target MO in the multiple MOs based on candidate MOs to be measured in each of the gap occasions.

Abstract: Certain embodiments disclose a method for use in a first network node. The method comprises establishing a first Stream Control Transmission Protocol (SCTP) association and a second SCTP association for an S1 Application Protocol (S1AP) connection between the first network node and a second network node.

Abstract: Disclosed is a wireless communication terminal. The wireless communication terminal includes a transceiver transmitting/receiving a wireless signal; and a processor controlling an operation of the wireless communication terminal. The transceiver receives a first frame including information on a manner for accessing, by a plurality of wireless communication terminals including the wireless communication terminal, a base wireless communication terminal. The processor acquires a manner for accessing the base wireless communication terminal on a basis of the first frame. The transceiver accesses the base communication terminal on a basis of the manner for accessing the base wireless communication terminal. The base wireless communication terminal is any one communication terminal different from the plurality of wireless communication terminals.

Abstract: Methods, computer readable media, and wireless apparatuses are disclosed for a TXOP duration field disable setting in a HE preamble, such as HE-SIG-A. An apparatus of a wireless device can include processing circuitry configured to decode a HE PPDU received from a second wireless device, the HE PPDU including a first TXOP duration field in a PHY portion of the HE PPDU. The processing circuitry can detect whether the TXOP duration field includes a disable flag based on bit values of the TXOP duration field. The disable flag can indicate absence of duration information in the TXOP duration field. Upon detecting the disable flag, a response HE PPDU can be encoded for transmission to the second wireless device. The response HE PPDU can include a second TXOP duration field with a disable flag within a PHY portion of the response HE PPDU.

Abstract: A wireless device in a wireless communication system is configured to perform measurements on a set of candidate links for supporting a network node in the system to make a decision as to which of the candidate links is to be a target link for a link switch. The wireless device reports (e.g., at the physical layer) measured candidate links one link subset at a time in order of the wireless device's preference for the target link, until the wireless device receives a target indication signal indicating which of the candidate links in the set is to be the target link. Any given link subset reports one or more candidate links which the wireless device has measured for the decision. Responsive to receiving the target indication signal, the wireless device performs the link switch to the indicated target link.

Abstract: Embodiments of an access point (AP) may comprise memory and processing circuitry coupled to the memory, and transceiver circuitry coupled to the processing circuitry. The processing circuitry of the AP may be configured to encode a trigger frame to allocate a center 26 tone RU of an 80 MHz channel for an HE-trigger-based PPDU, the center 26 tone RU having an adjacent upper 20 MHz subchannel and an adjacent lower 20 MHz subchannel. In an embodiment, the center 26 tone RU is for a station (STA) and wherein the trigger frame indicates to the STA to transmit a pre-HE-STF preamble on one of the adjacent upper 20 MHz subchannel, the adjacent lower 20 MHz subchannel, or both the adjacent upper and lower 20 MHz subchannels, and configure the wireless device to transmit the trigger frame to the station.

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: This disclosure relates to indicating capabilities of a user equipment to a base station while performing cellular communication. A user equipment (UE) may transmit capability information to a base station. The capability information may comprise a maximum transport block size (TBS) per transmission time interval (TTI) and an associated processing delay of the UE for a reference subcarrier spacing. Alternatively, the capability information may comprise a maximum throughput and associated processing delay of the UE. The base station may determine at least one of a maximum TBS per TTI or a number of parallel hybrid automatic repeat request (HARQ) processes to utilize in subsequent communications with the UE based on the capability information and a subcarrier spacing to be used for the subsequent communications.

Abstract: Disclosed is a network node and a method performed by a network node of a wireless communication network for wireless transmission of signals to wireless communication devices. The method comprises selecting adapted modulation and coding scheme, MCS, for a first signal to be transmitted to a first wireless communication device at first frequency bandwidth, the MCS being adapted to that second signal is to be transmitted to a second wireless communication device concurrently with the first signal, the second signal being transmitted at second frequency bandwidth that is subset of the first frequency bandwidth, the second frequency bandwidth being narrower than the first frequency bandwidth. The method comprises transmitting first signal to the first wireless communication device at first frequency bandwidth coded with adapted MCS, and transmitting the second signal to the second wireless communication device at second frequency bandwidth, the second signal being sent concurrently with the first signal.

Abstract: In one embodiment, a device in a network receives in-situ operations administration and management (iOAM) data regarding a plurality of traffic flows in the network. The iOAM data comprises entropy values for the plurality of traffic flows. The device receives network topology information indicative of network paths available in the network. The device generates a machine learning-based entropy topology model for the network based on the received iOAM data and the received network topology information. The entropy topology model maps path selection predictions for the network paths with entropy values. The device uses the entropy topology model to cause a particular traffic flow to use a particular network path.

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.