Abstract: A system and method is provided for commanding a payload of an aircraft. A plurality of flight segments, which comprise trajectory information of the aircraft, are received. A plurality of payload commands are generated using statements of payload intents. Each one of the payload commands are synchronized with at least one of the plurality of flight segments. The system and method express the operations to be performed by the payload onboard in order to achieve the established mission goals of the aircraft.

Abstract: Methods and apparatus for positioning aircraft based on images of mobile targets are disclosed. An example method includes identifying, by executing first instructions via a processor, a mobile target in an image obtained by a camera mounted on a first aircraft and obtaining, by executing second instructions via the processor, current coordinates of the first aircraft. The example method includes determining, by executing third instructions via the processor, coordinates of the mobile target based on the coordinates of the first aircraft and the image. The coordinates of the mobile target are within an area of uncertainty. The example method includes determining, by executing fourth instructions via the processor, a first position for the first aircraft that reduces the area of uncertainty of the coordinates of the mobile target.

Abstract: And aircraft recharging station is provided for recharging an aircraft provided with a rechargeable battery. The recharging station includes a parking surface with conductive tiles selectively connected to an electrical power supply. The recharging station also includes a controller configured to determine a position of the aircraft on the parking surface by connecting, including being configured to iteratively connect a different pair of tiles to the electrical power supply to provide a circuit including positive and negative tiles connected thereto, and test an electrical circuit condition of the circuit, until a closed circuit condition is determined, thereby indicating that the aircraft is positioned on the positive and negative tiles, and that the battery is thereby rechargeable by the electrical power supply.

Abstract: Methods and apparatus for positioning aircraft based on images of mobile targets are disclosed. An example method includes identifying, by executing first instructions via a processor, a mobile target in an image obtained by a camera mounted on a first aircraft and obtaining, by executing second instructions via the processor, current coordinates of the first aircraft. The example method includes determining, by executing third instructions via the processor, coordinates of the mobile target based on the coordinates of the first aircraft and the image. The coordinates of the mobile target are within an area of uncertainty. The example method includes determining, by executing fourth instructions via the processor, a first position for the first aircraft that reduces the area of uncertainty of the coordinates of the mobile target.

Abstract: An autonomous battery replacement station for an unmanned aerial vehicle (UAV) is provided. The UAV includes a replaceable battery. The station includes (a) a landing platform configured to receive the UAV, (b) a storage location configured to store a replacement battery for the UAV, and (c) a means for swapping the replaceable battery on the UAV with a replacement battery from the storage location.

Abstract: A mobile UAV infrastructure and management system for control and management of one or more unmanned aerial vehicles including at least one landing platform to facilitate operational readiness of the unmanned aerial vehicle, radio beacons for localization of the unmanned aerial vehicle, a command and control station in communication with the unmanned aerial vehicle, and an unmanned ground vehicle for deploying the landing platform, the radio beacons and the command and control station.

Abstract: A mobile UAV infrastructure and management system for control and management of one or more unmanned aerial vehicles including at least one landing platform to facilitate operational readiness of the unmanned aerial vehicle, radio beacons for localization of the unmanned aerial vehicle, a command and control station in communication with the unmanned aerial vehicle, and an unmanned ground vehicle for deploying the landing platform, the radio beacons and the command and control station.

Abstract: A system and method is provided for commanding a payload of an aircraft. A plurality of flight segments, which comprise trajectory information of the aircraft, are received. A plurality of payload commands are generated using statements of payload intents. Each one of the payload commands are synchronized with at least one of the plurality of flight segments. The system and method express the operations to be performed by the payload onboard in order to achieve the established mission goals of the aircraft.

Abstract: And aircraft recharging station is provided for recharging an aircraft provided with a rechargeable battery. The recharging station includes a parking surface with conductive tiles selectively connected to an electrical power supply. The recharging station also includes a controller configured to determine a position of the aircraft on the parking surface by connecting, including being configured to iteratively connect a different pair of tiles to the electrical power supply to provide a circuit including positive and negative tiles connected thereto, and test an electrical circuit condition of the circuit, until a closed circuit condition is determined, thereby indicating that the aircraft is positioned on the positive and negative tiles, and that the battery is thereby rechargeable by the electrical power supply.

Abstract: The present invention provides a co-operative network of unmanned vehicles that participate in co-operative task allocation. Each unmanned vehicle comprises a computer system with an executive level configured to control motion of the unmanned vehicle and an automatic decision level configured to communicate with other unmanned vehicles, to receive task descriptions, to participate in task allocation, and to provide descriptions of tasks to be performed to the executive level for execution. Each unmanned vehicle submits a bid for each task it can perform, the bid reflecting an execution cost for the task. The bids are compared and the task effectively auctioned to the unmanned vehicle with a lowest execution cost. Each unmanned vehicle builds a task plan from its allocated tasks, decomposes the associated task descriptions into elementary task descriptions and forwards the elementary task descriptions in a format suitable for the executive level to execute.

Abstract: An autonomous battery replacement station for an unmanned aerial vehicle (UAV) is provided. The UAV includes a replaceable battery. The station includes (a) a landing platform configured to receive the UAV, (b) a storage location configured to store a replacement battery for the UAV, and (c) a means for swapping the replaceable battery on the UAV with a replacement battery from the storage location.