Abstract: A user equipment includes a processor configured to generate a random access (RA) message comprising a preamble portion including one or more repeated preambles constructed using a same sequence, and a CP that precedes repeated preamble sequences, and a data portion including one or more data segments with each data segment including a number of repeated data symbols and a CP that precedes the repeated data symbols, wherein a UE-ID is included in the data portion, and perform an LBT operation for the RA message in an unlicensed spectrum. A transceiver is configured to transmit, when a result of the LBT operation for the RA message allows, the RA message to a base station (BS). BS includes a transceiver configured to receive an RA message in an unlicensed spectrum from a UE, and to transmit a responded RA message in response to the RA message within a RAR window.

Abstract: A network device may forward fragments of an IPv4 network packet to an IPv6 network without reassembling the IPv4 network packet. The network device may receive and buffer one or more fragments of a fragment flow associated with the IPv4 network packet until it receives a fragment of the fragment flow that includes an indication of the destination port of the IPv4 network packet. When the network device receives the fragment that includes the indication of the destination port of the IPv4 network packet, the network device may encapsulate each fragment of the fragment flow that it has received into respective IPv6 network packets to the IPv6 network.

Abstract: Examples described herein include systems and methods which include wireless devices and systems with examples of mixing input data with coefficient data specific to a processing mode selection. For example, a computing system with processing units may mix the input data for a transmission in a radio frequency (RF) wireless domain with the coefficient data to generate output data that is representative of the transmission being processed according to a specific processing mode selection. The input data is mixed with coefficient data at layers of multiplication/accumulation processing units (MAC units). The processing mode selection may be associated with an aspect of a wireless protocol. Examples of systems and methods described herein may facilitate the processing of data for 5G wireless communications in a power-efficient and time-efficient manner.

Abstract: A wireless backhaul network for bridging a neighboring network and a network device includes: a plurality of access points; a root node utilized for communicating with the neighboring network and at least a portion of the access points; a bridge node utilized for communicating with the network device and at least a portion of the access points; and a controller node utilized for communicating with the root node, the bridge node, and at least a portion of the access points. The controller node selects a first subset of the access points as backhaul nodes to form a first wireless backhaul path in a first period, and dynamically selects a different second subset of the access points as new backhaul nodes to form a second wireless backhaul path in a second period, so as to replace the first wireless backhaul path.

Abstract: Systems and methods of offloading multicast virtual network packet processing to a network interface card are provided. In an example implementation, a network interface card can route packets in a virtual network. The network interface card can be configured to receive a data packet having a multicast header for transmission to a plurality of destination virtual machines. The network interface card can retrieve a list of next hop destinations for the data packet. The network interface card can replicate the packet for each next hop destination. The network interface card can encapsulate each replicated packet with a unicast header that includes a next hop destination virtual IP address indicating the next hop destination and a source virtual IP address, and transmit the encapsulated packets.

Abstract: The present disclosure relates to a pre-5th-Generation (5G) or 5G communication system for supporting higher data rates Beyond 4th-Generation (4G) communication system such as Long Term Evolution (LTE). A method of operating a receiving terminal in a wireless communication system may include: transmitting, to a transmitting terminal, information on capabilities of the receiving terminal in relation to an independent component analysis (ICA) technique; receiving, from the transmitting terminal, a signal generated based on the capabilities; and decoding the signal using the ICA technique in consideration of the amount of change in the channel for the signal.

Abstract: In a method of generating a field of a physical layer (PHY) preamble of a data unit, information bits to be included in the field are generated. Respective sets of tail bits are appended after respective sets of information bits corresponding to respective ones of a plurality of groups of subfields of the field, each group including one or more of the subfields of the field, to generate an encoder input bit stream. One or more padding bits are added to the encoder input stream to generate a padded encoder input bit stream, the one or more padding bits to ensure an integer number of puncturing blocks in an encoded output bit stream. The padded encoder input bit stream is encoded to generate the encoded output bit stream. The field is generated to include at least some bits from the encoded output bit stream.

Abstract: An FC fabric login/logout system includes an FC switch device coupled to an endpoint device by an intermediate FC fabric device. The intermediate FC fabric device receives a first FC fabric login from the endpoint device and, in response, performs FC fabric login operations to create an FC fabric session between the endpoint device and the FC switch device, and stores FC fabric session information in hardware table(s). When the intermediate FC fabric device determines that an FC fabric session time period has passed, it ends the FC fabric session by clearing the FC fabric session information from the hardware table(s), and stores the FC fabric session information in software table(s). If the intermediate FC fabric device then receives a second FC fabric login from the endpoint device, it recreates the FC fabric session by transferring the FC fabric session information from the software table(s) to the hardware table(s).

Abstract: Systems, methods, and computer-readable mediums for federating an enterprise and a SaaS provider across one or more network slices of a network service provider. A SaaS provided by a SaaS provider for provisioning to an enterprise can be recognized. One or more network slices within a network of a network service provider between the enterprise and the SaaS provider can be identified. The one or more network slices can be used to provision the SaaS to the enterprise. As follows, the SaaS provider can be federated with the enterprise across one or more network service providers, including the network service provider. Specifically, the SaaS provider can be federated with the enterprise by uniquely associating the one or more network slices provided by the network service provider with the SaaS provisioned by the SaaS provider to the enterprise.

Abstract: The application relates to a frame structure for network communication, in particular for device-to-device (D2D) network communication, comprising a control channel, wherein the control channel comprises a first control channel portion associated with a network-assisted communication mode and a second control channel portion associated with an ad-hoc communication mode, and a data channel, wherein the frame structure is configured to communicate control data within the control channel over a first communication resource, the first communication resource being associated with the first control channel portion, wherein the frame structure is configured to communicate control data within the control channel over a second communication resource, the second communication resource being associated with the second control channel portion, and wherein the frame structure is configured to communicate payload data within the data channel over a further communication resource.

Abstract: A method for a wireless communications system is disclosed. In one example, a user equipment (UE) (e.g. a mobile phone), receives an indication from a network about one or more UE beams that the UE can use for transmission or reception. The UE uses the one or more UE beams for transmission or reception. If and when a certain condition is fulfilled, for example, there is a beam tracking failure, the UE transmits or receives a specific signal via a specific UE beam. The specific UE beam is different from the one or more UE beams that were indicated by the network, and is selected by the UE.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive control information for a communication of the UE; and determine whether the control information is associated with a slot-based control configuration or a non-slot-based control configuration based at least in part on the control information; or determine whether the communication is associated with a slot-based data configuration or a non-slot-based data configuration. Numerous other aspects are provided.

Abstract: The present disclosure relates to a method, in a mobility function (MF) node. The method comprises receiving (S1) information about a mapping to a property, of each of a plurality of radio bearers of a radio device for carrying data traffic between the radio device and a first radio access network (RAN). The method also comprises determining (S2) based on the received (S1) information, that at least one of the radio bearers can be handed over to a second RAN. The method also comprises initiating (S3) a handover command to the radio device instructing the radio device to hand over the at least one radio bearer to the second RAN.

Abstract: Certain aspects of the present disclosure relate to techniques and apparatus for efficient support of connected discontinuous reception (C-DRX) by using a wireless device (e.g., a user equipment (UE)) with a second receiver. A wireless device with two receivers may place one receiver in a low power mode and take the receiver out of the low power mode in response to a signal received from a serving base station (BS) of the wireless device. A BS may direct a wireless device to enter a low power DRX (LP-DRX) mode or enhanced DRX mode having longer low power cycles than a non-enhanced DRX mode, and the wireless device may place a primary receiver in a low power mode in response to the directive from the BS. Other aspects, embodiments, and features are also claimed and disclosed.

Abstract: An embodiment of the present invention relates to a method for transmitting a synchronization signal in a wireless communication system. The method comprises: a step of generating a secondary synchronization signal from a combination of two sequences; and a step of transmitting the synchronization signal. The manner of combination of the two sequences varies depending on the sub-frame number to which the secondary synchronization signal is transmitted, and if the generation of the secondary synchronization signal is performed by a terminal, then the sub-frame number which determines the manner of combination is considered to be the same.

Abstract: To assist roaming of a mobile terminal from a first wireless LAN to a second wireless LAN respectively managed by first and second access points, the first access point (AP) makes measurements of communication quality with the mobile terminal and/or of operational load. By comparing the measurements with thresholds, the first AP can trigger a selection procedure assisted by a server or trigger an autonomous selection procedure, at the end of which the first AP transmits to the mobile terminal a weighted list of access points that are candidates for the roaming. In the assisted selection procedure, the first AP, in constructing the weighted list, takes into account instantaneous measurements of operational load on the candidate access points supplied by the server, and, in the autonomous selection procedure, the first AP, in constructing the weighted list, takes into account long-term statistics of operational load on the candidate access points.

Abstract: A method for transmitting data by a user equipment (UE) over a plurality of Transmission Time Interval, TTI, bundles in a communication network is provided. The method comprises: receiving a single control message indicating a uplink scheduling grant for data transmissions; determining a number of TTI-bundles, scheduled for the data transmissions of the UE in accordance with the received control message; and sending the data to the communication network, using the determined number of TTI-bundles. A user equipment for implementing the method is also provided.

Abstract: Performing wireless transmissions over a unified air interface that span portions of both the primary band and the complementary band may provide improved throughput and spectral efficiency in next generation networks. Wireless transmissions spanning both the licensed and unlicensed spectrum carry data in different frame formats over the respective primary and complementary bands. For example, frames communicated over the primary band may have a different channel structure (e.g., different size, placement, orientation, etc.) than frames communicated over the complementary band. Wireless transmissions spanning the licensed and unlicensed spectrum may also utilize different access schemes and/or waveforms over the respective primary and complementary bands. Embodiment unified air interfaces may be dynamically configurable via software defined radio (SDR) signaling instructions.

Abstract: The present invention relates to a wireless communication system. More specifically, the present invention relates to a method and a device therefor, wherein the method comprises the steps of: receiving a PDCCH signal that contains scheduling information from a base station on a first subframe; receiving a PDSCH signal corresponding to said PDCCH signal from said base station on a second subframe; and decoding said PDSCH signal, wherein an interval between said first subframe and said second subframe is varied.

Abstract: The present invention employs a pilot scheme for frequency division multiple access (FDM) communication systems, such as single carrier FDM communication systems. A given transmit time interval will include numerous traffic symbols and two or more short pilot symbols, which are spaced apart from one another by at least one traffic symbol and will have a Fourier transform length that is less than the Fourier transform length of any given traffic symbol. Multiple transmitters will generate pilot information and modulate the pilot information onto sub-carriers of the short pilot symbols in an orthogonal manner. Each transmitter may use different sub-carriers within the time and frequency domain, which is encompassed by the short pilot symbols within the transmit time interval. Alternatively, each transmitter may uniquely encode the pilot information using a unique code division multiplexed code and modulate the encoded pilot information onto common sub-carriers of the short pilot symbols.