Abstract: Methods, systems, and devices for wireless communications are described. A user equipment (UE) may measure a first amount of reflected power associated with a first antenna of the UE and measure a second amount of reflected power associated with a second antenna of the UE. The UE may adjust an input power for the first antenna based at least in part on the first amount of reflected power or the second amount of reflected power and may perform a transmission via the first antenna using the adjusted input power for the first antenna. For example, the UE may increase the input power for the first antenna by an amount that is based at least in part on the first amount of reflected power.

Abstract: A method of wireless communication performed by a user equipment (UE) may include: performing, for a first subscription, a first handover from a first cell to a second cell; and performing, for a second subscription, a second handover from a third cell to a fourth cell. In some aspects, at least one of the performing the first handover or the performing the second handover is based on: a difference in signal strength between the first cell and the third cell exceeding a first threshold; and a difference in signal strength between the second cell and the fourth cell being equal to or less than the first threshold.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may apply a per chain transmit power split to a cumulative maximum transmit power level (MTPL). The UE may calculate a value associated with a conditional power backoff, wherein the value associated with the conditional power backoff is calculated after the per chain transmit power split is applied to the cumulative MTPL. The UE may transmit, using multiple transmit chains, an uplink signal using a final transmit power level, wherein the final transmit power level is based on a value of the cumulative MTPL after the per chain transmit power split is applied to the cumulative MTPL and the calculated value associated with the conditional power backoff. Numerous other aspects are described.

Abstract: Techniques are discussed herein for providing notification messages to a user are provided. An example method of providing an alert to a user in an environment with multiple devices includes determining a first notification device based at least in part on a location of the user and one or more notification preferences associated with the user, generating an alert message based at least in part on the first notification device, and sending the alert message to the first notification device.

Abstract: Method and apparatus for a configuration for optimizing operations between TNs and NTNs. The apparatus transmits, to a first network connected to the UE, an indication of a network preference for a second network based on at least an application at the UE. The apparatus communicates with the first network or the second network after sending the indication. The apparatus may switch to the second network automatically in response to transmission of the indication. The apparatus may measure a signal corresponding to the second network to determine a coverage quality of the second network. The apparatus may receive a transition indication to transition to a cell associated with the second network in response to the indication of the network preference for the second network.

Abstract: A method of indicating resources for uplink-based positioning includes: determining whether a UE is within a downlink coverage area of a serving cell, for a first frequency band and a transmit power of the serving cell, and outside an uplink coverage area of the serving cell for the first frequency band and a transmit power of the UE; identifying a second frequency band supported by the UE, the second frequency band including frequencies below a lowest frequency of the first frequency band; and providing at least one PRS indication indicating at least OFDM UL-PRS resources in the second frequency band for the UE based on a determination that the UE is outside the uplink coverage area of the serving cell for the first frequency band and the transmit power of the UE.

Abstract: Techniques are provided for increasing a number of measurement gaps for positioning measurements. An example method for increasing a number of measurement gaps for positioning measurements includes: receiving a request for measurement gaps from a user equipment; and sending an indication to relax mobility measurements to the user equipment, wherein the indication to relax the mobility measurements includes a mobility measurement periodicity value for relaxed mobility measurements.

Abstract: Techniques are discussed herein for providing notification messages to a user are provided. An example method of sending an alert message includes receiving a notification from an alerting device, determining a notification recipient associated with the alerting device, determining a location and one or more notification preferences associated with the notification recipient, determining a notification device based on the location and the one or more notification preferences, and sending the alert message to the notification device, wherein the alert message includes an indication of at least one notification preference and the alerting device.

Abstract: A system includes one or more memory devices having instructions stored thereon that, when executed by one or more processors, cause the one or more processors to perform operations including obtaining a first building information model (BIM) file associated with a building, the building comprising one or more building assets, obtaining a second BIM file associated with the building, linking data from the first BIM file to data from the second BIM file, and concurrently presenting, via a single user interface, a representation of at least a portion of the first BIM file and the second BIM file based on the linked data.

Abstract: Disclosed are techniques for wireless communication. In an aspect, a user equipment (UE) may receive system information for a plurality of neighboring cells in one or more system information block type 2 (SIB2) messages, one or more system information block type 4 (SIB4) messages, or both, the system information indicating at least an identifier and a quasi-colocation (QCL) relationship for each neighboring cell of the plurality of neighboring cells. The UE may report, to a location server, identifiers of one or more neighboring cells of the plurality of neighboring cells, the one or more neighboring cells selected from individual neighboring cells in one or more individual sets of neighboring cells of the plurality of neighboring cells, wherein the individual neighboring cells in each individual set of neighboring cells have a common QCL relationship with other individual neighboring cells in the individual set of neighboring cells.

Abstract: Contiguity information is important to achieving high-quality de novo assembly of mammalian genomes and the haplotype-resolved resequencing of human genomes. The methods described herein pursue cost-effective, massively parallel capture of contiguity information at different scales.

Abstract: Disclosed are techniques for wireless communication. In an aspect, a user equipment (UE) may determine a currently active bandwidth part (BWP). The UE may determine a positioning reference signal (PRS) configuration that specifies PRSs to be measured. The UE may determine that a first subset of the PRSs to be measured are within the currently active BWP and that a second subset of the PRSs to be measured are not within the currently active BWP. The UE may upon determining that measuring the PRSs in the first subset but not measuring the PRSs in the second subset will not produce a measurement result that meets an accuracy requirement, extending the currently active BWP to include at least some of the PRSs in the second subset.

Abstract: Methods, systems, and devices for wireless communications are described. A user equipment (UE), such as a vehicular UE, may perform proactive beam management in a vehicle-to-everything (V2X) communications system. In some cases, road conditions may affect V2X connectivity for the V-UE. For example, if the V-UE is using a narrow beam and approaches a road with a steep gradient, the narrow beam may be unable to detect other V-UEs, which could lead to connection loss. Instead, the V-UE may proactively perform beam management or beam refinement to adjust the beam and maintain connectivity. For example, the V-UE may select a wider beam which has greater coverage, or the V-UE may update a direction of the narrow beam to maintain connection with neighboring V-UEs. The V-UE may use onboard sensor and computer vision-based techniques to detect changes to road conditions or its trajectory.

Abstract: Techniques are provided for reducing the delay in accumulating positioning measurements and improving positioning latency. An example method for reducing positioning measurement latency in a wireless network includes receiving assistance data including configuration information for a plurality of positioning reference signals, determining measurement gap requirements, requesting measurement gaps based on the measurement gap requirements, receiving measurement gap configuration information, determining a mobility state, and measuring or transmitting one or more positioning reference signals based at least in part on the measurement gap configuration information and the mobility state.

Abstract: A method for wireless communication by a user equipment (UE) includes measuring changes in impedance at an antenna. The method also includes estimating an amount of power reflected from the antenna based on the measured changes in impedance at the antenna, in order to obtain an estimated amount of radiated power. The method further includes dynamically increasing a transmit power of the UE, based on the estimated amount of radiated power, up to a limit.

Abstract: Disclosed are system (100) and method (300) for optimizing data transmission in communication network. System comprises Internet of Thing (IoT) device node (102) having sensors for capturing sensor data and controller (106) configured at the IoT device node for constructing set of attributes from the sensor data, such that each set of attribute comprises sensor data based on correlation. Support Vector Regression (SVR) models for pruning the sensor data at IoT device node (102) is defined. Values for each attribute in set of attributes predicted based on predicting run-time errors in values according to the SVR models defined for each of base attribute and the non-base attribute. The run-time errors for each of base attributes and non-base attributes gets compared with threshold error values. The IoT device node (102) transmits either model parameters for attributes or training data along with the set of attributes by transceiver (108) to the data collector node (104).

Abstract: Methods, systems, and devices for wireless communications, including variable uplink grant configurations for high power class devices are described. A user equipment (UE) may transmit an advertisement message indicating an uplink transmission duty cycle associated with a first power class (PC) mode, the first PC mode of the UE corresponding to a higher transmission power level than a second PC mode. The UE may receive a set of uplink grants associated with a quantity of transmission resources exceeding the advertised uplink transmission duty cycle. The UE may transmit using the first PC mode, a subset of uplink messages associated with a subset of the set of uplink grants to satisfy the uplink transmission duty. Additionally or alternatively, the UE may transmit using the first PC mode, a first subset of uplink messages on a first transmission chain and a second subset of uplink messages on a second transmission chain.

Abstract: Contiguity information is important to achieving high-quality de novo assembly of mammalian genomes and the haplotype-resolved resequencing of human genomes. The methods described herein pursue cost-effective, massively parallel capture of contiguity information at different scales.

Abstract: Methods and techniques are described for enhancing positioning related protocols in order to indicate when one location session is different from another location session. One or more messages provided in a location session by a location server to a user equipment (UE) may include a session indication, such as a session identifier (ID), where a different session ID is provided for each location session. The session indication may be a new session indicator provided in an initial message in a location session or an end session indicator provided in a final message in a location session. An extra message may be sent by the location server indicating that the location session has ended. A correlation ID provided by a network entity to the location server may be included in messages as the session indication, e.g., where a different correlation ID is provided for each location session.

Abstract: Methods and techniques are described for enhancing positioning related protocols in order to indicate when one location session is different from another location session. One or more messages provided in a location session by a location server to a user equipment (UE) may include a session indication, such as a session identifier (ID), where a different session ID is provided for each location session. The session indication may be a new session indicator provided in an initial message in a location session or an end session indicator provided in a final message in a location session. An extra message may be sent by the location server indicating that the location session has ended. A correlation ID provided by a network entity to the location server may be included in messages as the session indication, e.g., where a different correlation ID is provided for each location session.