초록 ▼

Systems and associated methods for planning and control of a fleet of unmanned vehicles in missions that are coordinated temporally and spatially by geo-location, direction, vehicle orientation, altitude above sea level, and depth below sea level. The unmanned vehicles' transit routes may be fully a

Systems and associated methods for planning and control of a fleet of unmanned vehicles in missions that are coordinated temporally and spatially by geo-location, direction, vehicle orientation, altitude above sea level, and depth below sea level. The unmanned vehicles' transit routes may be fully autonomous, semi-autonomous, or under direct operator control using off board control systems. Means are provided for intervention and transit changes during mission execution. Means are provided to collect, centralize and analyze mission data collected on the set of participating unmanned vehicles.

대표청구항 ▼

1. A method for controlling a system that includes a plurality of unmanned vehicles defined as a fleet, wherein each of the plurality of unmanned vehicles comprises an aerohydrodynamic vehicle body wherein at least a portion of the vehicle body comprises at least one enclosed hull that defines at le

1. A method for controlling a system that includes a plurality of unmanned vehicles defined as a fleet, wherein each of the plurality of unmanned vehicles comprises an aerohydrodynamic vehicle body wherein at least a portion of the vehicle body comprises at least one enclosed hull that defines at least one enclosed interior compartment capable of pressurization, wherein the vehicle body includes a center wing characterized by a leading edge, a trailing edge, a port edge, a starboard edge, an upper surface, and a lower surface, and a pair of opposing sponsons characterized by a stepped hull design, wherein each sponson comprises a proximal wall positioned adjacent the wing and a distal wall positioned opposite the proximal wall, and wherein the sponsons are integrally coupled to the port and starboard edges of the wing, respectively, such that the proximal walls of the sponsons and the lower surface of the wing define therebetween a tunnel, anda propulsion system, a ballast system, a center of gravity system, a pressurization system, at least one control surface system, a navigation control system, a sensor system, an on-board mission control system, and at least one power supply each carried by a respective portion of the vehicle body;a network; anda first off-board control system in data communication with the respective on-board control system of each of the unmanned vehicles in the fleet via the network;the method comprising: creating, using the first off-board control system, a mission directive comprising at least one of remote-control operational instructions and semi-autonomous operational instructions to control operation of the respective on-board mission control system of each of the unmanned vehicles in the fleet;receiving, using the on-board control system of a first one of the plurality of unmanned vehicles in the fleet, defined as a receiving vehicle, the mission directive that further comprises an objective and a transit route for the receiving vehicle, wherein the transit route comprises at least two operations selected from the group comprising an air glide operation, a water surface operation, and a sub-surface operation,processing the mission directive to selectively operate the vehicle body of the receiving vehicle in air, on a substantially planar water surface, and while submerged in water by some combination of providing, using the power supply of the receiving vehicle, power to the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, the sensor system, and the on-board mission control system of the receiving vehicle,propelling the receiving vehicle using the propulsion system of the receiving vehicle,varying, using the ballast system of the receiving vehicle, a buoyancy of the receiving vehicle,varying, using the center of gravity system of the receiving vehicle, a center of gravity of the receiving vehicle,varying, using the pressurization system of the receiving vehicle, a pressure within the at least one enclosed interior compartment of the receiving vehicle,maneuvering the receiving vehicle using the at least one control surface system of the receiving vehicle,controlling, using the navigation control system of the receiving vehicle, a speed, an orientation, and a direction of travel of the receiving vehicle,transmitting environmental data using a plurality of environmental sensors of the sensor system of the receiving vehicle,transmitting operational data using a plurality of operational sensors of the sensor system of the receiving vehicle,receiving, using a rules engine of the on-board mission control system of the receiving vehicle, the environmental data and the operational data and issuing autonomous operational instructions retrieved from an on-board data store to control operation of the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, and the navigation control system of the receiving vehicle, wherein the autonomous operational instructions comprise air control instructions, marine control instructions, and submarine control instructions, andexecuting, using the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, and the on-board mission control system of the receiving vehicle, in combination, the air control instructions to operate the vehicle body of the receiving vehicle in the air, the marine control instructions to operate the vehicle body of the receiving vehicle on the surface of water, and the submarine control instructions to operate the vehicle body of the receiving vehicle below the surface of water. 2. The method according to claim 1 wherein the sub-surface operation comprises at least one of ballast change and powered thrust. 3. The method according to claim 1 wherein the system further comprises a plurality of off-board control systems that include the first off-board control system, the plurality of off-board control systems in data communication with the on-board control systems of the fleet using the network; wherein the method further comprises: creating the mission directive using the plurality of off-board control systems, andtransmitting, using the network, the mission directive to the on-board control system of the receiving vehicle. 4. The method according to claim 1 wherein creating the mission directive further comprises: creating the objective of the receiving vehicle to include at least one of communication parameters, rules of engagement, rules of notification, exception handling rules, and payload operation. 5. The method according to claim 1 wherein creating the mission directive further comprises: creating the transit route of the receiving vehicle to include at least one of coverage grids, time-on station duty cycles, and perception-reaction attributes. 6. The method according to claim 3 wherein the fleet further comprises a plurality of sub-groupings, each defined as a respective subset of the plurality of unmanned vehicles; wherein one of the plurality of sub-groupings includes the receiving vehicle, defined as a receiving sub-grouping;wherein creating the mission directive using the plurality of off-board control systems further comprises: creating at least one goal for the plurality of unmanned vehicles in the fleet, andcreating at least one sub-goal for a respective each of the plurality of sub-groupings in the fleet; andwherein receiving, using the on-board control system of the receiving vehicle, the mission directive further comprises receiving the at least one goal and the at least one sub-goal for the receiving sub-grouping. 7. The method according to claim 6 wherein creating the at least one goal for the fleet further comprises creating, using the plurality of off-board control systems, a plurality of mission directives for a respective each of the plurality of unmanned vehicles in the fleet, wherein each of the plurality of mission directives comprises an objective and a transit route; and wherein the method further comprises mapping the respective transit routes of each of the plurality of unmanned vehicles in the fleet to a target coverage area, wherein the target coverage area includes at least two of an air mapping, a surface mapping, and sub-surface mapping. 8. The method according to claim 1 wherein a second one of the plurality of unmanned vehicles in the fleet is defined as a second unmanned vehicle, and wherein the method further comprises: transmitting via the network, and using the on-board control system of the receiving vehicle, the transit route of the receiving vehicle; andreceiving from the network, and using the on-board control system of the second unmanned vehicle, the transit route of the receiving vehicle. 9. The method according to claim 8, further comprising: analyzing, using the on-board control system of the receiving vehicle, the environmental data to define a first transit route modification;autonomously adjusting the transit route of the receiving vehicle based on the first transit route modification. 10. The method according to claim 9 further comprising: transmitting via the network, and using the on-board control system of the receiving vehicle, the first transit route modification;receiving from the network, and using the on-board control system of the second unmanned vehicle, the first transit route modification;analyzing, using the on-board control system of the second unmanned vehicle, the first transit route modification to define a second transit route modification; andautonomously adjusting the transit route of the second unmanned vehicle based on the second transit route modification. 11. The method according to claim 1 wherein receiving, using the on-board control system of the receiving vehicle, the mission directive further comprises receiving the transit route for the receiving vehicle comprising at least one control parameter including time, space, speed, direction, and deployment mode. 12. The method according to claim 11 wherein receiving, using the on-board control system of the receiving vehicle, the transit route for the receiving vehicle further comprises receiving the control parameter of space characterized by a latitude, a longitude, and an altitude. 13. The method according to claim 11 wherein receiving, using the on-board control system of the receiving vehicle, the transit route for the receiving vehicle further comprises receiving the control parameter of deployment mode of a type selected from the group consisting of air, surface, and sub-surface. 14. The method according to claim 11, further comprising: collecting, using the environmental sensors of the receiving vehicle, sea state data;analyzing, using the on-board control system of the receiving vehicle, the sea state data to define a sea state event; andautonomously adjusting one or more of the speed, direction, and deployment mode of the receiving vehicle based on the sea state event. 15. The method according to claim 14 wherein analyzing the sea state data further comprises determining at least one impact variable selected from the group consisting of objective risk for the receiving vehicle, energy conservation for the receiving vehicle, and physical safety for the receiving vehicle. 16. The method according to claim 1 wherein receiving, using the on-board control system of the receiving vehicle, the mission directive, further comprises receiving the transit route for the receiving vehicle comprising at least one control parameter including speed, direction, and deployment mode; wherein the method further comprises: creating weather data using the first off-board control system;transmitting, using the network, the weather data to the receiving vehicle;receiving, using the on-board control system of the receiving vehicle, the weather data;analyzing, using the on-board control system of the receiving vehicle, the weather data to define a weather event; andautonomously adjusting one or more of the speed, direction, and deployment mode of the receiving vehicle based on the weather event. 17. The method according to claim 16 wherein analyzing the weather data further comprises determining at least one impact variable selected from the group consisting of objective risk for the receiving vehicle, energy conservation for the receiving vehicle, and physical safety of the receiving vehicle. 18. An unmanned vehicle fleet control system comprising: a plurality of unmanned vehicles defining a fleet of unmanned vehicles, wherein each of the plurality of unmanned vehicles in the fleet further comprises: an aerohydrodynamic vehicle body configured to selectively operate in air, on a substantially planar water surface, and while submerged in water, and wherein at least a portion of the vehicle body comprises at least one enclosed hull that defines at least one enclosed interior compartment capable of pressurization, wherein the vehicle body includes a center wing characterized by a leading edge, a trailing edge, a port edge, a starboard edge, an upper surface, and a lower surface, and a pair of opposing sponsons characterized by a stepped hull design, wherein each sponson comprises a proximal wall positioned adjacent the wing and a distal wall positioned opposite the proximal wall, and wherein the sponsons are integrally coupled to the port and starboard edges of the wing, respectively, such that the proximal walls of the sponsons and the lower surface of the wing define therebetween a tunnel,a propulsion system carried by a portion of the vehicle body and configured to propel the unmanned vehicle,a ballast system carried by a portion of the vehicle body and configured to vary buoyancy of the unmanned vehicle,a center of gravity system carried by a portion of the vehicle body and configured to vary a center of gravity of the unmanned vehicle,a pressurization system carried by a portion of the vehicle body and configured to vary a pressure within the at least one enclosed interior compartment,at least one control surface system carried by a portion of the vehicle body and configured to maneuver the unmanned vehicle,a navigation control system carried by the vehicle body and configured to control a speed, an orientation, and a direction of travel of the unmanned vehicle,a sensor system carried by a portion of the vehicle body and comprising a plurality of environmental sensors configured to transmit environmental data and a plurality of operational sensors configured to transmit operational data,an on-board mission control system carried by a portion of the vehicle body and comprising a rules engine configured to receive the environmental data and the operational data and from the sensor system and to issue autonomous operational instructions retrieved from an on-board data store to control operation of the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, and the navigation control system, wherein the autonomous operational instructions comprise air control instructions, marine control instructions, and submarine control instructions,at least one power supply carried by a portion of the vehicle body and configured to provide power to the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, the sensor system, and the on-board mission control system,wherein the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, and the on-board mission control system are configured to execute the air control instructions to operate the vehicle body in the air, to execute the marine control instructions to operate the vehicle body on the surface of water, and to execute the submarine control instructions to operate the vehicle body below the surface of water;a network; andan off-board control system in data communication with the respective on-board control system of each of the unmanned vehicles in the fleet via the network and configured to issue at least one of remote-control operational instructions and semi-autonomous operational instructions to control operation of the respective on-board mission control system of each of the unmanned vehicles in the fleet;wherein one of the plurality of unmanned vehicles is defined as a receiving vehicle;wherein the off-board control system is configured to create and transmit a mission directive;wherein the on-board control system of the receiving vehicle is configured to receive the mission directive that comprises an objective and a transit route for the receiving vehicle;wherein the transit route comprises at least one operation selected from the group comprising an air glide operation, a water surface operation, and a sub-surface operation. 19. The system, according to claim 18 wherein the objective of the receiving vehicle further comprises at least one of communication parameters, rules of engagement, rules of notification, exception handling rules, and payload operation; and wherein the transit route of the receiving vehicle further comprises at least one of coverage grids, time-on station duty cycles, and perception-reaction attributes. 20. The system according to claim 18 wherein the on-board control system of the receiving vehicle is configured to analyze the environmental data of the receiving vehicle to define a first transit route modification; and wherein the transit route of the receiving vehicle is autonomously adjustable based on the first transit route modification. 21. The system according to claim 20 wherein the environmental sensors of the receiving vehicle are configured to receive sea state data; wherein the on-board control system of the receiving vehicle is configured to analyze the sea state data to define a sea state event; and wherein at least one or more of speed, direction, and deployment mode of the receiving vehicle is autonomously adjustable based on the sea state event. 22. An unmanned vehicle fleet control system comprising: a plurality of unmanned vehicles in a fleet of unmanned vehicles, wherein each of the unmanned vehicles comprises an aerohydrodynamic vehicle body configured to selectively operate in air, on a substantially planar water surface, and while submerged in water, and wherein at least a portion of the vehicle body comprises at least one enclosed hull that defines at least one enclosed interior compartment capable of pressurization, wherein the vehicle body includes a center wing characterized by a leading edge, a trailing edge, a port edge, a starboard edge, an upper surface, and a lower surface, and a pair of opposing sponsons characterized by a stepped hull design, wherein each sponson comprises a proximal wall positioned adjacent the wing and a distal wall positioned opposite the proximal wall, and wherein the sponsons are integrally coupled to the port and starboard edges of the wing, respectively, such that the proximal walls of the sponsons and the lower surface of the wing define therebetween a tunnel,a propulsion system carried by a portion of the vehicle body and configured to propel the unmanned vehicle,a ballast system carried by a portion of the vehicle body and configured to vary buoyancy of the unmanned vehicle,a center of gravity system carried by a portion of the vehicle body and configured to vary a center of gravity of the unmanned vehicle,a pressurization system carried by a portion of the vehicle body and configured to vary a pressure within the at least one enclosed interior compartment,at least one control surface system carried by a portion of the vehicle body and configured to maneuver the unmanned vehicle,a navigation control system carried by the vehicle body and configured to control a speed, an orientation, and a direction of travel of the unmanned vehicle,a sensor system carried by a portion of the vehicle body and comprising a plurality of environmental sensors configured to transmit environmental data and a plurality of operational sensors configured to transmit operational data,an on-board mission control system carried by a portion of the vehicle body and comprising a rules engine configured to receive the environmental data and the operational data and from the sensor system and to issue autonomous operational instructions retrieved from an on-board data store to control operation of the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, and the navigation control system, wherein the autonomous operational instructions comprise air control instructions, marine control instructions, and submarine control instructions, andat least one power supply carried by a portion of the vehicle body and configured to provide power to the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, the sensor system, and the on-board mission control system,wherein the propulsion system, the ballast system, the center of gravity system, the pressurization system, the at least one control surface system, the navigation control system, and the on-board mission control system are configured to execute the air control instructions to operate the vehicle body in the air, to execute the marine control instructions to operate the vehicle body on the surface of water, and to execute the submarine control instructions to operate the vehicle body below the surface of water;wherein one of the plurality of unmanned vehicles is defined as a receiving vehicle;wherein the receiving vehicle is configured to receive a mission directive that comprises an objective and the transit route for the receiving vehicle;wherein the transit route comprises an air glide operation, a water surface operation, and a sub-surface operation;wherein the fleet of unmanned vehicles comprises a plurality of sub-groupings, each defined as a respective subset of the plurality of unmanned vehicles;wherein one of the plurality of sub-groupings includes the receiving vehicle, defined as a receiving sub-grouping;wherein the mission directive includes at least one goal for the plurality of unmanned vehicles in the fleet; andwherein the mission directive includes at least one sub-goal for each of the plurality of sub-groupings in the fleet. 23. The system according to claim 22 further comprising at least one off-board control system in data communication with the plurality of on-board control systems; wherein the mission directive is created using the at least one off-board control system to include at least one of remote-control operational instructions and semi-autonomous operational instructions to control operation of the respective on-board mission control system of each of the unmanned vehicles in the fleet; and wherein the mission directive is transmitted by the at least one off-board control system to the on-board control system of the receiving vehicle. 24. The system according to claim 23 wherein the mission directive is one of a plurality of mission directives received by the plurality of unmanned vehicles; wherein each of the plurality of mission directives comprises an objective and a transit route; wherein the respective transit routes of each of the plurality of mission directives is mapped to a target coverage area; and wherein each of the target coverage areas includes a respective at least one of an air mapping, a surface mapping, and sub-surface mapping. 25. The system according to claim 22 wherein the transit route for the receiving vehicle comprises at least one control parameter including selected from the group consisting of time, space, speed, direction, and deployment mode. 26. The system according to claim 25 wherein the control parameter of space of the transit route for the receiving vehicle is characterized by a latitude, a longitude, and an altitude. 27. The system according to claim 25 wherein the receiving vehicle is configured to receive weather data; wherein the on-board control system is configured to analyze the weather data; and wherein the deployment mode of the receiving vehicle is adjustable responsive to the weather data.