Abstract: Techniques for interference-based beam selection are discussed. One example embodiment employable in a UE (User Equipment) can comprise a processor configured to: determine one or more parameters based on configuration signaling, wherein each of the one or more parameters is associated with at least one of channel measurements, interference measurements, or a beam information report; perform the interference measurements for each of one or more distinct UE beams; calculate a measurement metric for each beam pair of one or more beam pairs based on the interference measurements, wherein each beam pair comprises one of the one or more distinct UE beams and an associated NW (Network) beam; and generate the beam information report comprising the measurement metric for at least one beam pair of the one or more beam pairs.

Abstract: A method for transmitting packet data units Packet Data Units (PDUs) at a PDU transmitter in a communication system is provided. The method includes transmitting a first PDU comprising a PDU header and a data portion, receiving Negative Acknowledgement NACK information for the first PDU, segmenting the first PDU to form one or more PDU segments if a size of a second PDU for retransmission is smaller than a size of the first PDU, wherein each of the one or more PDU segment comprises a PDU segment header and a data portion, and transmitting the one or more PDU segment to a PDU receiver.

Abstract: Provided is a method of performing HARQ by a UE in a wireless communication system that supports carrier aggregation (CA). The method includes: receiving, from an evolved nodeB (eNB), a downlink grant on a first Physical Downlink Control Channel (PDCCH), the downlink grant including an accumulated downlink assignment indicator (A-DAI) field and a total DAI (T-DAI) field; receiving a first PDSCH indicated by the first PDCCH, the first PDSCH being transmitted from the eNB; receiving, from the eNB, an uplink grant on a second PDCCH, the uplink grant indicating a transmission of a Physical Uplink Shared Channel (PUSCH); determining a size of a HARQ-ACK codebook to which a HARQ-ACK with respect to the first PDSCH is to be mapped, based on the A-DAI and the T-DAI; and transmitting, to the eNB, the HARQ-ACK with respect to the first PDSCH on the PUSCH.

Abstract: A method and an apparatus are provided for allocating a resource by a first base station using a plurality of beams in a wireless communication system. The method includes determining a plurality of zones within a cell coverage of the first base station; receiving channel state information (CSI) from a user equipment (UE), wherein resources of the UE are allocated by the first base station; identifying a first zone in which the UE has entered from the plurality of zones based on the CSI at a time domain; estimating if the UE might enter a second zone among the plurality of zones based on a status of the second zone and a moving direction of the UE; and transmitting, to a second base station, a message requesting allocation of additional resources for the second zone to the UE, if the UE might enter the second zone.

Abstract: A terminal apparatus for a device-to-device (D2D) terminal in a wireless communication system, according to an embodiment of the present invention, comprises a transmission device and a reception device; and a processor, wherein the processor generates and transmits a primary sidelink synchronization signal (PSSS) and a secondary sidelink synchronization signal (SSSS), wherein, if a PSBCH is transmitted in a subframe in which the PSSS and the SSSS are being transmitted and is normal CP, the PSSS and a PSBCH on power is the average power of a period, in the subframe in which the PSSS and the SSSS are being transmitted, not including a transient period, wherein the transient period of a starting part of the period for the PSSS and PSBCH ON power is not overlapped with an OFDM symbol on which the PSSS is transmitted.

Abstract: A wireless communication device (alternatively, device) includes a processing circuitry configured to support communications with other wireless communication device(s) and to generate and process signals for such communications. In some examples, the device includes a communication interface and a processing circuitry, among other possible circuitries, components, elements, etc. to support communications with other wireless communication device(s) and to generate and process signals for such communications. A device receives a request to send (RTS) from another device and replies with a clear to send (CTS) when the RTS includes a non-zero-valued network allocation vector (NAV) if one or more conditions make such a response permissible. The device processes other parameter(s) associated with other communications between other devices to determine if a CTS response is permissible even during the other communications between the other devices.

Abstract: A design tool for network interconnection includes a processor coupled to an input device and to an output device. The processor receives via the input device design parameters including: (i) a number G of groups of network elements, (ii) a number S of spines associated with each group, and (iii) a number P of ports that each spine has for connecting to other spines, using short-cable connections or long-cable connections. The processor determines an interconnection plan by specifying connections among spines belonging to different groups, in a clique or a bipartite scheme, so that for given values of G, S and P, (i) a number of the long-cable connections among the spines is minimized, and (ii) a number of inter-group connections is balanced among the G groups up to a deviation of a single connection. The processor outputs to the output device instructions for applying the interconnection plan.

Abstract: Systems and methods for managing aircraft messages are provided. In one embodiment, the method can include receiving a message from an onboard system of an aircraft. The method can include determining a priority associated with the message based, at least in part, on data associated with the message. The data can be indicative of at least a content of the message. The method can include determining data indicative of availability for each of a plurality of communications networks based, at least in part, on one or more first parameters associated with the aircraft. The method can include selecting a network based, at least in part, on message priority, the data indicative of availability, and one or more second parameters associated with each of the networks. The method can include sending the message via the selected network when the network is available, or storing the message when the network is unavailable.

Abstract: Disclosed herein are a method for transmitting and receiving a signal based on a channel aggregation transmission in a wireless local access network system and devices supporting the same. Particularly, disclosed herein are a method for transmitting and receiving a signal comprising a training field based on a channel aggregation transmission in a wireless local access network system and operation of devices supporting the same.

Abstract: Example methods are provided for a first endpoint to communicate with a second endpoint over a public network, the second endpoint being in a private network. The method may comprise detecting a chunk of data directly from an application executing on the first endpoint. The virtual adapter may emulate a transport protocol task offload to bypass transport protocol processing by a protocol stack of the first endpoint. The method may comprise processing the chunk of data to generate a chunk of processed data for transfer through a tunnel connecting the virtual adapter over the public network with a gateway associated with the private network and sending the chunk of processed data through a tunnel in a plurality of tunnel segments, wherein the gateway is configured to perform transport protocol processing to generate a plurality of transport protocol segments from the chunk of processed data for transfer to the second endpoint.

Abstract: Methods, systems, and devices for wireless communication are described. Some wireless communications systems may support communication between a base station and a user equipment (UE) during transmission time intervals (TTIs) having different lengths. The techniques described herein allow a UE to utilize appropriate configurations for communicating during a shortened TTI (sTTI) allocated for uplink communication (e.g., uplink control information transmissions). In one example, the UE may adjust a transmit power to use for transmitting uplink control information during an sTTI based on the length of the sTTI or based on the number of symbols allocated for transmitting the uplink control information in the sTTI. In another example, the UE may determine a frequency hopping pattern to use for transmitting uplink control information during an sTTI based on whether a portion of the sTTI is allocated for another transmission (e.g., a sounding reference signal (SRS) transmission).

Abstract: Systems and methods presented herein provide for altering communications of a LTE wireless communication system operating in an RF band with a conflicting WiFi system. In one embodiment, an LTE system includes a wireless base station operable to transmit downlink communications to a UE in the RF band and to receive uplink communications from the UE in the RF band. The LTE system also includes a processor operable to detect the uplink communications from the UE, to estimate a location of the UE based on the detected uplink communications, to determine a communication capability between the UE and the wireless base station based on the location of the UE, and to downgrade the downlink communications from the wireless base station to the UE based on the determined communication capability to avoid interference with the WiFi communication system.

Abstract: A base station for handling communication operations with a communication device comprising a storage unit for storing instructions and a processing means coupled to the storage unit. The processing means is configured to execute the instructions stored in the storage unit. The instructions comprise transmitting at least one configuration of a first type for configuring 32 measurement objects (MeasObjects) to the communication device; transmitting at least one configuration of a second type for configuring at least one MeasObject in addition to the 32 MeasObjects to the communication device, wherein the second type is different from the first type; receiving a measurement result corresponding to one of the 32 MeasObjects from the communication device; and receiving a measurement result corresponding to one of the at least one MeasObject from the communication device.

Abstract: In one embodiment, a device receives observed access point (AP) features of one or more APs in a monitored network. The device clusters the observed AP features within a latent space to form AP feature clusters. The device applies labels to the AP feature clusters within the latent space. The device uses the applied labels to the AP feature clusters to describe future behaviors of the one or more APs in the monitored network.

Abstract: Mobile devices, network nodes and methods of operating the same According to one aspect, there is provided a method of operating a mobile device that is configured for use in a first radio access network that uses a first radio access technology and a second radio access network that uses a second, different, radio access technology, the mobile device aggregating a plurality of carriers in the first radio access network, the method comprising obtaining information for, or pertaining to, one or more of the plurality of carriers in the first radio access network (101); and processing the obtained information for a single carrier to determine an action for the mobile device to take with respect to the second radio access network (103).

Abstract: Methods and systems for probing General Packet Radio System (GPRS) Tunneling Protocol (GTP) links in a communication network are disclosed. According to principles described herein, originator and responder nodes (endpoints) are configured to use a probing interval that can be changed dynamically to adapt the probing frequency to the prevailing conditions measured and/or capabilities available at the originator and/or the responder. According to a broad aspect, a method for a network node includes receiving a probing request message originating from a first peer node via a GTP link, the probing request message containing a request indication for a probing interval recommendation for probing the GTP link, in response to the probing request message received, determining a probing interval recommendation for probing the GTP link and sending a probing response message to the first peer node via the GTP link, the probing response message containing the probing interval recommendation determined.

Abstract: Techniques are described herein to improve a link budget of physical random access channel (PRACH) transmissions used during a random access (RACH) procedure. The link budget of a PRACH transmission associated with the RACH procedure may be improved by transmitting multiple PRACH transmissions. The multiple PRACH transmissions may be combined to achieve some combining gain. Each retransmission of a PRACH transmission may be done at a higher power level than the previous PRACH transmission. If UE receives an indication that a target base station failed to successfully decode the PRACH transmission, the UE may retransmit the PRACH transmission but at a higher power level than the initial PRACH transmission. PRACH transmissions may be distributed across multiple slots. PRACH transmissions may be distributed across multiple frequency sub-bands in the same slot or across frequency sub-bands in the different slots.

Abstract: A method for programming a MAC address table by a first leaf node in a network comprising a plurality of leaf nodes is provided. Each leaf node comprises one or more Virtual Tunnel End Points (“VTEPs”) and instantiates a plurality of Virtual Routing and Forwarding elements (“VRFs”), with a corresponding Bridge Domain (“BD”) assigned to each VRF. The method includes obtaining information indicating one or more VTEP Affinity Groups (VAGs), each VAG comprising an identification of one VTEP per leaf node, obtaining information indicating assignment of each VRF to one of the VAGs, assigning each VAG to a unique Filtering Identifier (“FID”), thereby generating one or more FIDs, and programming the MAC address table, using FIDs instead of BDs, by populating the MAC address table with a plurality of entries, each entry comprising a unique combination of a FID and a MAC address of a leaf node.

Abstract: A method of anchoring a packet switched session of a subscriber comprises receiving a packet switched request for a session setup, and anchoring the packet switched session in a control node (MSC-S) of a visited network of the subscriber.

Abstract: An apparatus is configured to perform a method for user equipment (UE) offloading. The method includes receiving, at a network controller, a measurement report from a UE, the measurement report radio link measurement quantities of a serving cell and one or more candidate serving cells, the measurement quantities measured after interference cancellation or suppression. The method also includes, based in part on the measurement report from the UE, determining whether to offload the UE to a second cell among the one or more candidate serving cells.