Abstract:
A method and a device for adaptive channel access are disclosed. In an embodiment includes adaptively adjusting, by a small base station (SBS), access parameters for small cells to ensure quality of service (QoS) to cellular users while minimizing collision probability for WiFi users.
Abstract:
A system and method for multiplexing traffic. A wireless device such as a user equipment (UE) may receive a first signal over first resources assigned to carry a first downlink transmission from a base station, and receive a first downlink control indication (DCI) message from the base station. The first DCI message may include a pre-emption region (PR) indication and a PR bitmap, and the PR indication may indicate a location of a time-frequency region. The PR bitmap may include bits associated with different portions of the time-frequency region, and each of the bits in the PR bitmap may indicate whether a preemptive downlink transmission is present in the corresponding portion of the time-frequency region.
Abstract:
A system and method of operating a device in a wireless communication network including a plurality of user equipment UEs and a BS, including a first device generating a signaling message defining resource elements (REs) as an encoded time slot (TS) and subcarrier pairing. A subset of the REs is encoded, such as to create a discovery signal configured to enable discovery of the first UE by a second UE or the BS. The UE is configured to engage in device-to-device communications, including device centric UEs operable in 5G networks.
Abstract:
Virtualized group-wise communications between a wireless network and a plurality of user equipments (UEs) are supported using UE cooperation. UE cooperation includes receiving, at a cooperating UE (CUE), downlink information from the wireless network destined for a target UE (TUE) and associated with a group identifier (ID). The group ID indicates a virtual multi-point (ViMP) node that includes the TUE and the CUE. The UE cooperation also includes sending the downlink information to the TUE. The UE or UE component can have a processor configured to forward between the wireless network and a TUE at least some information that is associated with a group ID indicating a ViMP node that groups the TUE and the UE.
Abstract:
System and method embodiments are provided to support network communications with groups of UEs. The embodiments include a two-level group-based hybrid-automatic repeat request (HARQ) mechanism and acknowledgement (ACK)/negative ACK (NACK) feedback. An embodiment method includes receiving, at a UE within a virtual multi-point (ViMP) comprising UEs, a data packet for a target UE (TUE) that is broadcasted from a base station (BS) to the ViMP node, decode the data packet, and upon successfully decoding the data packet, broadcasting the data packet to the UEs within the ViMP node until a timer pre-established by the BS expires or an ACK message is received from the TUE or the ViMP node. In an embodiment, broadcasted data received in the ViMP node is re-broadcasted upon receiving a negative acknowledgment (NACK) message from the TUE, a beacon UE, or any of the UEs within the ViMP node.
Abstract:
Dynamically varying transmission rates of a traffic flow over respective portions of a primary band and a complementary band may allow a transmit point to satisfy quality of service (QoS) requirements over a unified air interface. The QoS requirement may stipulate that an overall transmission rate of the traffic flow over the unified air interface exceeds a threshold. Transmission rates may be varied based on a contention level of the complementary band. For instance, during periods of high contention, the transmission rate on the primary band may be ramped up to compensate for a lower effective transmission rate over the complementary band. Likewise, during periods of low contention, the transmission rate on the primary band may be stepped down to compensate for a higher effective transmission rate over the complementary band.
Abstract:
A method for uplink transmission by a UE includes obtaining information regarding a plurality of power control sets each having a plurality of power control parameters, wherein a value of at least one parameter in a first power control set is different from a value of the at least one parameter in a second power control set; obtaining information associating at least one of the power control sets with at least one operational property of the UE; and when at least one of the operational properties is in effect on the UE, transmitting a PUSCH using the parameters of the power control set associated with the at least one operational property in effect.
Abstract:
Carrier aggregation and dual connectivity leverage multiple component carriers to increase the effective bandwidth available to a given UE. Embodiments of this disclosure extend the concept of carrier aggregation and dual connectivity by using a physical component carrier and one or more virtual component carriers from one physical component carrier group and/or one virtual component carrier group, which have the same carrier frequency and carrier bandwidth as the physical component carrier, to transmit data streams to a user equipment. Data streams communicated over the physical component carrier and the virtual component carrier(s) may be orthogonal in the time domain or code domain. Alternatively, data streams communicated over the physical component carrier and the virtual component carrier(s) may be non-orthogonal, in which case the UE may need to decode the respective data streams using non-orthogonal signal processing techniques.
Abstract:
Some embodiments of the present disclosure provide initial access procedures that allow a UE to become connected to a non-terrestrial transmit-receive point, such as a device in a high altitude platform system. Through receipt of a positioning reference signal, a UE may determine its own location coordinates. Then, using the location coordinates, the UE may select a beam using a set of parameters associated, in a table, with the location coordinates. The UE may then use the selected beam to carry out an initial access procedure with the non-terrestrial transmit-receive point.
Abstract:
Cross-link switching between terrestrial and non-terrestrial links in integrated wireless communication networks involves interactions between a user equipment (UE), a terrestrial network device, and a non-terrestrial network device. Signaling is sent by one of the network devices and received by the UE, to schedule a transmission between the other network device and the UE. The scheduled transmission, which is cross-scheduled by one network device for the other network device, is communicated between the UE and the other network device according to the signaling. Communicating a transmission may involve sending the transmission by the UE and receiving the transmission by the other network device, or sending the transmission by the other network device and receiving the transmission by the UE.