Abstract: A technique for transferring data in a radio communication is described. As to one method aspect of the technique, the data is received in at least two hybrid automatic repeat request (HARQ) processes (580, 582). For each of the at least two HARQ processes (580, 582), an error detection scheme is performed for the received data. For each of the at least two HARQ processes (580, 582), a feedback (596, 598) is sent based on a logical combination (589) of results (585, 587) of the error detection scheme for the at least two HARQ processes (580, 582).

Abstract: An apparatus for handling resets corresponding to multiple reset domains comprises a transport network interconnecting elements to enable data to be transferred from one element to another, ingress circuitry to couple elements to the transport network, and egress circuitry to couple the transport network to the elements. The ingress circuitry couples source elements to the transport network, and is responsive to receiving data from a source element to generate at least one transport packet in order to send that data over the transport network. Each transport packet comprises a reset domain indicator indicative of the reset domain in which the source element operates. The egress circuitry couples the transport network to destination elements and, whilst a reset of a particular reset domain is asserted, discards transport packets for which the reset domain indicator indicates the particular reset domain.

Abstract: Techniques for implementing resilient hashing with compression are provided. In some embodiments, a network device can maintain a compressed partition and an uncompressed partition for a logical hash table, where the logical hash table comprises a first set of mappings between bucket identifiers and active next-hop destinations, the compressed partition comprises a second set of mappings between compressed indices and the active next-hop destinations, and the uncompressed partition comprises a third set of mappings between uncompressed indices and the active next-hop destinations. The network device can compute a hash value using a portion of a packet. When the hash value is addressed by a compressed index, the packet is sent to a next-hop destination in the compressed partition. When the hash value is addressed by an uncompressed index, the packet is sent to a next-hop destination in the uncompressed partition.

Abstract: A method is provided including determining, for each of a plurality of user equipments, a null cyclic prefix length for communication in a wireless network using null cyclic prefix single-carrier modulation; and communicating with at least one of the user equipments based at least partially on the determined null cyclic prefix length of the at least one user equipment.

Abstract: A wireless network is configured to utilize a multi-user multiple-input multiple-output (MU-MIMO) operating mode. a first subset of wireless devices in a sector that are configured as relay nodes are identified. A second subset of wireless devices in the sector that are not configured as relay nodes are also identified. One or more wireless device in the first subset of wireless devices are instructed, allocated resources, or otherwise controlled to not utilize the MU-MIMO operating mode.

Abstract: Techniques for implementing resilient hashing with multiple hashes are provided. In one set of embodiments, a network device can maintain a first hash table comprising mappings between a first set of hash indices and a set of bit values. The network device can also maintain a second hash table comprising mappings between a second set of hash indices and active next-hop destinations. Upon receiving a network packet, the network device can compute a first hash and can match the first hash value to a first mapping in the first hash table based on the first mapping's hash index. When the first mapping's bit value indicates that the first mapping's hash index corresponds to an active next-hop destination, the network device can further match the first hash value to a second mapping in the second hash table and send the network packet to the second mapping's active next-hop destination.

Abstract: A source network device can inject a probe into any one of multiple pipelines by supplying control bits for controlling a demultiplexer through which the probe passes. The control bits of the probe are coupled to the demultiplexer select lines so as to couple an input port of the demultiplexer to one of multiple output ports. As a result, an agent operating on the source network device can test any desired pipeline. In a one-hop embodiment, the source network device redirects the probe back to the agent without transmission to a neighbor. A two-hop embodiment uses a neighbor device to reflect the probe back to the source device in order to test forwarding states of the source network device.

Abstract: A method for wireless communications is provided. The method includes receiving, by a User Equipment (UE), a first Physical Downlink Control Channel (PDCCH) on a first cell, wherein the first PDCCH comprises first scheduling information of a first Physical Downlink Shared Channel (PDSCH) of a second cell cross-carrier scheduled by the first cell; and receiving, by the UE, the first PDSCH on the second cell only when a first time offset between the first PDCCH and the first PDSCH is larger than or equal to a predefined threshold.

Abstract: A mobile terminal according to the present invention includes a transceiver to operate in a first communication system and a second communication system, a first antenna to transmit or receive a first signal of the first communication system, a second antenna to transmit or receive a second signal of the second communication system, and a signal attenuator module to perform signal attenuation for the first signal on a path between the second antenna and a low noise amplifier (LNA) of the second communication system, whereby system damage in a non-synchronized state between the first and second communication systems can be avoided.

Abstract: Aspects of the subject disclosure may include, for example, a device including a processing system including a processor, and a memory that stores executable instructions that, when executed by the processing system, facilitate performance of operations, where the operations include receiving an advertisement identifier; hashing the advertisement identifier, thereby creating a Bluetooth service identifier; transmitting device data including the Bluetooth service identifier in a Bluetooth transmission; and receiving content in a push notification, wherein a system associates the device data with the advertisement identifier to determine whether to create the push notification. Other embodiments are disclosed.

Abstract: The invention describes a method for handling of cell identities, performed by a first radio node of a wireless communication network providing radio coverage to a first cell. The first radio node is connected to at least one second radio node providing radio coverage to a second cell. The first cell has been assigned a first cell identity, and each of the second cells has been assigned an individual cell identity. The method comprises: determining that the first cell identity is the same as the cell identity assigned to one of the second cells; triggering change of cell identity for the first cell from the first cell identity to a second cell identity that is not used for any of the second cells, and sending, to the at least one second radio node, information on the change of cell identity from the first cell identity to the second cell identity.

Abstract: A method for discontinuous reception (DRX) is disclosed. The method includes receiving, by receiving circuitry of a User Equipment (UE), a Radio Resource Control (RRC) message having a DRX Start Offset (drx-StartOffset) and a DRX Slot Offset (drx-SlotOffset), determining, by processing circuitry of the UE, a start subframe based on the drx-StartOffset, and determining, by the processing circuitry, a starting time of a DRX On-Duration Timer (drx-onDurationTimer) in the start subframe based on the drx-SlotOffset.

Abstract: A vehicle to vehicle (V2V) communication method and an apparatus using the same, for changing a communication method with a surrounding vehicle in consideration of an event type, may include: when an event occurs, determining whether the event is an important event, when the event is the important event, broadcasting data of the event, when the event is not the important event, determining a transmission method depending a communication situation with a surrounding vehicle, and multicasting or broadcasting the data of the event depending on the determined transmission method.

Abstract: In a communication system including multiple ring networks, each ring network comprises: a host node serving as an upper controller for the other nodes in the own ring network, the host node being configured to be capable of communicating with another ring network; and a switch provided in the ring network and having multiple regular ports and multiple redundant ports, wherein the redundant communication ports of the switch in each ring network are connected to the redundant communication ports of the switch in the other ring network via redundant communication lines. When a communication error is detected in one ring network, the host node of the one ring network controls the switch of the own ring network and the switch of another ring network such that at least one node of the own ring network is incorporated in the other ring network via the switches and the redundant communication lines.