Abstract: A high-speed vertical take-off and landing (HSVTOL) aircraft includes an airframe, a pair of inner wings coupled to and extending from the airframe, and a pair of wing rotors pivotably coupled to the pair of inner wings, wherein each of the pair of wing rotor has a rotatable configuration in which the wing rotor is freely rotatable entirely about a rotational axis of the wing rotor to generate vertically directed thrust that is applied to the airframe in a vertical take-off and landing (VTOL) mode of the HSVTOL aircraft, and a fixed configuration in which the wing rotor is locked into a defined angular orientation about the rotational axis in a forward cruise mode of the HSVTOL aircraft.

Abstract: A hybrid-electric VTOL aircraft includes an airframe including at least a pair of fixed wings, one or more VTOL powertrains supported by the airframe each including one or more rotor blades and an electric motor for rotating the one or more rotor blades about a rotational axis, one or more forward flight powertrains separate from the one or more VTOL powertrains and supported by the airframe each including a prime, and a computer system in signal communication with the one or more VTOL powertrains and the one or more forward flight powertrains.

Abstract: A hover-capable aircraft includes a body including a tubular strut, a first rotor assembly rotatably coupled to the body and positioned about the strut, wherein the first rotor assembly includes a first plurality of circumferentially-spaced blades, a first actuation assembly including a first plurality of electronically controlled actuators coupled to a first swashplate and configured to control the movement of the first swashplate relative to the body, and a control system coupled to the body and configured to control the first plurality of actuators, wherein the control system includes a cable extending through a passage formed in the tubular strut and in signal communication with the first plurality of actuators.

Abstract: A hover-capable aircraft includes a body including a tubular strut, a first rotor assembly rotatably coupled to the body and positioned about the strut, wherein the first rotor assembly includes a first plurality of circumferentially-spaced blades, a first actuation assembly including a first plurality of electronically controlled actuators coupled to a first swashplate and configured to control the movement of the first swashplate relative to the body, and a control system coupled to the body and configured to control the first plurality of actuators, wherein the control system includes a cable extending through a passage formed in the tubular strut and in signal communication with the first plurality of actuators.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may signal, to a base station, an indication that fast sleep is supported by the UE with regard to an inter-slot scheduling configuration or a non-self-contained slot configuration; and receive, based at least in part on signaling the indication that the fast sleep is supported by the UE, signaling indicating the inter-slot scheduling configuration or the non-self-contained slot configuration for the fast sleep, wherein the fast sleep is between at least one of a data grant and a corresponding data communication for the inter-slot scheduling, or a data communication and acknowledgment (ACK)/negative ACK (NACK) feedback regarding the data communication for the non-self-contained slot configuration. Numerous other aspects are provided.

Abstract: Certain aspects of the present disclosure relate to methods and apparatus relating to minimizing interference by controlling beam width of a wireless device. In certain aspects, a method of minimizing interference by controlling beam width of a wireless device, such as a user equipment (UE), includes configuring antenna elements of the UE to communicate in a serving cell using a first beam, monitoring a channel quality metric in the serving cell, and re-configuring the antenna elements of the UE to perform mobility measurements of one or more neighboring cells using a second beam broader than the first beam if the metric falls below a threshold value.

Abstract: Certain aspects of the present disclosure provide techniques for sharing uplinks in a multiple radio access technology environment. Such techniques may improve transmission and processing of acknowledgment data from a user equipment in the multiple radio access technology environment.

Abstract: A method, an apparatus, a base station, user equipment, and a computer program product for wireless communication are provided. In some aspects, the apparatus may identify a user equipment as a drone-mounted user equipment, and/or may configure one or more parameters associated with the user equipment based at least in part on identifying the user equipment as a drone-mounted user equipment. In some aspects, the apparatus may determine, for a user equipment mounted on a drone, that a threshold is satisfied with regard to an uplink throughput, a downlink throughput, a signal strength, or a signal quality associated with the user equipment, and/or may configure a transmission power parameter or a measurement reporting parameter based at least in part on determining that the threshold is satisfied.

Abstract: Certain aspects of the present disclosure provide techniques for sharing uplinks in a multiple radio access technology environment. Such techniques may improve transmission and processing of acknowledgment data from a user equipment in the multiple radio access technology environment.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may signal, to a base station, an indication that fast sleep is supported by the UE with regard to an inter-slot scheduling configuration or a non-self-contained slot configuration; and receive, based at least in part on signaling the indication that the fast sleep is supported by the UE, signaling indicating the inter-slot scheduling configuration or the non-self-contained slot configuration for the fast sleep, wherein the fast sleep is between at least one of a data grant and a corresponding data communication for the inter-slot scheduling, or a data communication and acknowledgment (ACK)/negative ACK (NACK) feedback regarding the data communication for the non-self-contained slot configuration. Numerous other aspects are provided.

Abstract: Certain aspects of the present disclosure relate to methods and apparatus relating to minimizing interference by controlling beam width of a wireless device. In certain aspects, a method of minimizing interference by controlling beam width of a wireless device, such as a user equipment (UE), includes configuring antenna elements of the UE to communicate in a serving cell using a first beam, monitoring a channel quality metric in the serving cell, and re-configuring the antenna elements of the UE to perform mobility measurements of one or more neighboring cells using a second beam broader than the first beam if the metric falls below a threshold value.

Abstract: A method, an apparatus, a base station, user equipment, and a computer program product for wireless communication are provided. In some aspects, the apparatus may identify a user equipment as a drone-mounted user equipment, and/or may configure one or more parameters associated with the user equipment based at least in part on identifying the user equipment as a drone-mounted user equipment. In some aspects, the apparatus may determine, for a user equipment mounted on a drone, that a threshold is satisfied with regard to an uplink throughput, a downlink throughput, a signal strength, or a signal quality associated with the user equipment, and/or may configure a transmission power parameter or a measurement reporting parameter based at least in part on determining that the threshold is satisfied.