The control design of an airborne wind energy system with rigid aircraft, vertical take-off and landing, and pumping operation is described. A hierarchical control structure is implemented, in order to address all operational phases: take-off, transition to power generation, pumping energy generation cycles, transition to hovering, and landing. Control design at all hierarchical levels is described. The design approach is conceived and developed with real-world applicability as main driver. Aircraft design considerations in light of system maneuverability are presented, too, as well as three possible alternative strategies for the retraction phase of the pumping cycle. The automatic control approach is assessed in simulation with a realisti...
Airborne wind energy (AWE) is an innovative renewable energy technology, with the potential to subst...
Airborne wind energy (AWE) is a new technology aiming at converting wind energy by flying crosswind ...
The problem of launching a tethered rigid aircraft for airborne wind energy generation is investigat...
The control design of an airborne wind energy system with rigid aircraft, vertical take-off and land...
Airborne wind energy is an emerging technology that uses tethered unmanned aerial vehicles for harve...
Airborne wind energy (AWE) is a novel technology that aims at accessing wind resources at higher alt...
The robotic control of tethered parafoils enables a number of exciting applications, primarily a nov...
Airborne wind energy is an emerging technology that uses tethered unmanned aerial vehicles for harve...
Airborne wind energy systems aim to harvest the power of winds blowing at altitudes higher than what...
An overview of recent results on the take-off and landing phases of airborne wind energy systems wit...
A control design approach to achieve fully autonomous takeoff and flight maneuvers with a tethered a...
A control approach to realize the autonomous take-off of a tethered aircraft is described, and exper...
Airborne wind energy (AWE) is an innovative renewable energy technology, with the potential to subst...
Airborne wind energy (AWE) is a new technology aiming at converting wind energy by flying crosswind ...
The problem of launching a tethered rigid aircraft for airborne wind energy generation is investigat...
The control design of an airborne wind energy system with rigid aircraft, vertical take-off and land...
Airborne wind energy is an emerging technology that uses tethered unmanned aerial vehicles for harve...
Airborne wind energy (AWE) is a novel technology that aims at accessing wind resources at higher alt...
The robotic control of tethered parafoils enables a number of exciting applications, primarily a nov...
Airborne wind energy is an emerging technology that uses tethered unmanned aerial vehicles for harve...
Airborne wind energy systems aim to harvest the power of winds blowing at altitudes higher than what...
An overview of recent results on the take-off and landing phases of airborne wind energy systems wit...
A control design approach to achieve fully autonomous takeoff and flight maneuvers with a tethered a...
A control approach to realize the autonomous take-off of a tethered aircraft is described, and exper...
Airborne wind energy (AWE) is an innovative renewable energy technology, with the potential to subst...
Airborne wind energy (AWE) is a new technology aiming at converting wind energy by flying crosswind ...
The problem of launching a tethered rigid aircraft for airborne wind energy generation is investigat...