Abstract: A user equipment (UE) is configured to be connected to a 5G New Radio (NR) network that shares one or more frequency bands using dynamic spectrum sharing (DSS) with a Long Term Evolution (LTE) network that is transmitting LTE positioning reference signal (PRS). The UE may receive LTE PRS rate matching information from the NR network, such as the LTE PRS configuration data or an LTE PRS rate matching pattern. The UE may decode and process NR data signals and control signals transmitted by the NR network while LTE PRS is transmitted by rate matching around the LTE PRS in accordance with the LTE PRS rate matching information. The LTE PRS muting pattern may be adjusted based on NR data or control signals, and the UE may receive and process NR data and control signals transmitted while the LTE PRS is muted.

Abstract: Techniques to maximize connectivity to a preferred radio access technology (RAT) (e.g., 5G NR) over a less preferred RAT (e.g., 4G LTE) are disclosed. When a user equipment (UE) is camped on a preferred RAT connectivity capable cell (e.g., NR cell, EUTRA dual-connectivity (ENDC) cell), offsets or biases may be applied to delay triggering of a cell reselection. When UE is camped on a non-preferred RAT connectivity capable cell, offset(s) may be applied to accelerate triggering of the cell reselection. When cell reselection is triggered, offsets or biases may be applied to favor reselection to preferred RAT connectivity capable cell over a non-preferred RAT connectivity capable cell.

Abstract: Techniques to maximize connectivity to a preferred radio access technology (RAT) (e.g., 5G NR) over a less preferred RAT (e.g., 4G LTE) are disclosed. When a user equipment (UE) is camped on a preferred RAT connectivity capable cell (e.g., NR cell, EUTRA dual-connectivity (ENDC) cell), offsets or biases may be applied to delay triggering of a cell reselection. When UE is camped on a non-preferred RAT connectivity capable cell, offset(s) may be applied to accelerate triggering of the cell reselection. When cell reselection is triggered, offsets or biases may be applied to favor reselection to preferred RAT connectivity capable cell over a non-preferred RAT connectivity capable cell.

Abstract: A user equipment (UE) that shares a radio frequency (RF) path between wireless communication for a first radio access technology (RAT) on a first frequency band and a second RAT on a second frequency band transmits an indication, to a network of the first RAT or the second RAT, indicating a shared RF path between the first RAT and the second RAT. A base station receives the indication from the UE and wireless communication with the UE based on the shared RF path at the UE.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive, from a base station, configuration information that indicates one or more first measurement types. Accordingly, the UE may transmit, to the base station, periodically and while the UE is in an idle mode or an inactive state, first measurements based at least in part on the one or more first measurement types indicated in the configuration information. In some aspects, the UE may further transmit, to the base station, second measurements based at least in part on a second measurement type. The first measurement type(s) may be associated with a minimization of drive test (MDT). Similarly, the second measurement type may be associated with an MDT. Numerous other aspects are provided.

Abstract: A UE may transmit to a base station, and the base station may receive from the UE, via an RRC message, an IDC interference indication. The IDC interference indication may be associated with at least one victim reception or at least one aggressor transmission. The IDC interference indication may include at least one of a first frequency range associated with the at least one victim reception, information associated with the at least one aggressor transmission, a first requested BWP associated with the at least one victim reception, or a second requested BWP associated with the at least one aggressor transmission. The base station may identify at least one interference mitigation measure based on the IDC interference indication. The UE and the base station may communicate based on the at least one interference mitigation measure.

Abstract: Aspects for sending structured measurement data based on a specific type of measurement requested by a network are disclosed. A user equipment (UE) may receive a request from a base station for minimization of driving test (MDT) data corresponding to a specified type of measurement by the UE from a larger plurality of available MDT measurements that the UE can make. The UE can send the requested data including a structure report having results for the specified measurement type to the base station. In other aspects, a base station may send a request to a UE for minimization of driving test (MDT) data corresponding to a type of measurement by the UE. The base station may receive the requested data corresponding to the type of measurement.

Abstract: A method performed by a user equipment, UE, includes receiving a measurement configuration message comprising a logging measurement configuration from a base station. The method also includes initiating a minimization of drive tests, MDT, session in response to receiving the measurement configuration message and generating (802) an MDT log at each logging instance of a number of logging instances until completion of the MDT session. The method further includes transmitting (806), to the base station, the MDT log of each logging instance after completing the MDT session. For each received MDT log, the method determines (804) whether a current information element of a current measurement collected at a current logging instance matches a prior information element of a prior measurement collected at a prior logging instance, and removes the current information element from the MDT log of the current logging instance when the current measurement matches the prior information element.

Abstract: A method performed by a user equipment (UE) includes receiving a logging measurement message having a logging measurement configuration from a base station. The method also initiates a minimization of drive test (MDT) session in response to receiving the logging measurement message. The method further determines a status of a UE component and selects a set of logged measurement types from a number of logged measurement types based on a measurement priority of each logged measurement type when the status satisfies status criteria. The method additionally generates an MDT log at each logging instance of a number of logging instances based on measurements collected for the set of logged measurement types when the status satisfies the status criteria. The method also transmits, to the base station, the MDT log of each logging instance after completing the MDT session.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a wireless device, such as an in-vehicle device, may determine a selection value for a cell that indicates a priority for selection of the cell by the wireless device and calculates, from the selection value, an adjusted selection value for the cell using an offset that increases a priority of selection for cells that support in-vehicle emergency calls. The wireless device selectively selects the cell based at least in part on the adjusted selection value. Numerous other aspects are provided.

Abstract: Methods, apparatuses, and computer-readable mediums for wireless communication are disclosed by the present disclosure. In an example, a user equipment (UE) may be located on an unmanned aerial vehicle (UAV). The UE may monitor at least one of an elevation of the UE or a number of cells detected by the UE. The UE may determine that the elevation of the UE exceeds an elevation threshold or the number of cells detected by the UE exceeds a cell threshold. The UE may determine a current communication mode of the UE. The UE may switch to a directional transmit mode, in response to determining that the current communication mode is an omnidirectional transmit mode and at least one of the elevation of the UE exceeds the elevation threshold or the number of cells detected by the UE exceeds the cell threshold.

Abstract: Handover criteria for wireless networks are provided. A base station (BS) transmits, to a user equipment (UE), a configuration for at least one measurement event to be used for a handover of the UE from a source cell to one of a set of neighbor cells, wherein the configuration includes at least a configured rank criterion for triggering a measurement report in response to the measurement event. The BS receives, from the UE, the measurement report based on the configuration, the measurement report at least including a measured rank value for one or more reported cells in the set. The BS selects a target cell from the reported cells for the handover based at least on the received measured rank values, and transmits a handover command to the UE for the handover to the selected target.

Abstract: A user equipment (UE) is configured to be connected to a 5G New Radio (NR) network that shares one or more frequency bands using dynamic spectrum sharing (DSS) with a Long Term Evolution (LTE) network that is transmitting LTE positioning reference signal (PRS). The UE may receive LTE PRS rate matching information from the NR network, such as the LTE PRS configuration data or an LTE PRS rate matching pattern. The UE may decode and process NR data signals and control signals transmitted by the NR network while LTE PRS is transmitted by rate matching around the LTE PRS in accordance with the LTE PRS rate matching information. The LTE PRS muting pattern may be adjusted based on NR data or control signals, and the UE may receive and process NR data and control signals transmitted while the LTE PRS is muted.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a wireless device, such as an in-vehicle device, may determine a selection value for a cell that indicates a priority for selection of the cell by the wireless device and calculates, from the selection value, an adjusted selection value for the cell using an offset that increases a priority of selection for cells that support in-vehicle emergency calls. The wireless device selectively selects the cell based at least in part on the adjusted selection value. Numerous other aspects are provided.

Abstract: Techniques to maximize connectivity to a preferred radio access technology (RAT) (e.g., 5G NR) over a less preferred RAT (e.g., 4G LTE) are disclosed. When a user equipment (UE) is camped on a preferred RAT connectivity capable cell (e.g., NR cell, EUTRA dual-connectivity (ENDC) cell), offsets or biases may be applied to delay triggering of a cell reselection. When UE is camped on a non-preferred RAT connectivity capable cell, offset(s) may be applied to accelerate triggering of the cell reselection. When cell reselection is triggered, offsets or biases may be applied to favor reselection to preferred RAT connectivity capable cell over a non-preferred RAT connectivity capable cell.

Abstract: Techniques are provided to initiate signal transmissions for possible opportunistic reception by a mobile device, and/or to initiate opportunistic reception of signal transmissions for use in mobile device position location estimation. For example, a mobile device may use assistance data to identify a first signal to be transmitted over a first frequency band and a second signal to be transmitted over a second frequency band during a specific period of time. At least a portion of the second frequency band may be outside of the first frequency band. The mobile device subsequently attempts to opportunistically receive at least the first signal and the second signal via a receiver tuned to a reception frequency band that encompasses at least the first frequency band and the second frequency band. The mobile device may then process the opportunistically received signals to obtain measurements corresponding to at least the first and second signals.

Abstract: In a carrier aggregation or EN-DC scenario, there exist multiple different conditions based on which UE would benefit from a higher or lower grant ratio on a specific carrier as opposed to other carriers. There are a number of criteria based on which UE may select a preferred carrier for uplink grant reception. Some example criteria include self-jamming conditions, thermal constraints, and inter-RAT interference. These and other criteria may form a basis for identifying preferred carriers, non-preferred carriers, or ranking carriers. Various embodiments described provide techniques for a UE to indicate preferred and non-preferred carriers to a serving base station. A serving base station, in turn, can make use of the indication to adjust the ratio at which uplink transmissions are scheduled on these carriers.

Abstract: Techniques for improving enhanced cell identification (E-CID) positioning are provided. An example of a method for determining a location of a mobile device according to the disclosure includes generating a plurality of receive beams with a mobile device, receiving, with one or more of the plurality of receive beams, a radio beam transmitted from a base station, such that the radio beam includes a beam identification value, and determining a measurement quantity for the radio beam for each of the one or more of the plurality of receive beams.

Abstract: A MSIM capable UE may operate in a connected mode on a first subscription with a first network and operates on a second subscription in an idle mode or an active mode. The UE may miss communication on the first subscription by tuning away for activity on the second subscription. As presented herein, the may UE transmit, to the first network, MSIM assistance information regarding the second subscription. The MSIM assistance information may enable the network to determine periodic gaps needed by the UE to monitor a second subscription in an idle mode. The MSIM assistance information may enable the network to identify a network for the second subscription and to obtain scheduling information directly from that network.

Abstract: Techniques for improving enhanced cell identification (E-CID) positioning are provided. An example of a method for determining a location of a mobile device according to the disclosure includes generating a plurality of receive beams with a mobile device, receiving, with one or more of the plurality of receive beams, a radio beam transmitted from a base station, such that the radio beam includes a beam identification value, and determining a measurement quantity for the radio beam for each of the one or more of the plurality of receive beams.