Simulation of automatic helicopter deck landings using nature inspired flight control

Research studies have indicated that the optical flow parameter, time to close tau, is the basis of purposeful control in the animal world, and used by both fixed wing and helicopter pilots during manoeuvring. This parameter is defined as the instantaneous time to close a gap (spatial or force) at t...

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Veröffentlicht in:Aeronautical journal 2010-01, Vol.114 (1151), p.25-34
Hauptverfasser: Voskuijl, M., Padfield, G. D., Walker, D. J., Manimala, B. J, Gubbels, A. W.
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container_end_page 34
container_issue 1151
container_start_page 25
container_title Aeronautical journal
container_volume 114
creator Voskuijl, M.
Padfield, G. D.
Walker, D. J.
Manimala, B. J
Gubbels, A. W.
description Research studies have indicated that the optical flow parameter, time to close tau, is the basis of purposeful control in the animal world, and used by both fixed wing and helicopter pilots during manoeuvring. This parameter is defined as the instantaneous time to close a gap (spatial or force) at the current closing rate. A novel automatic flight control strategy has been developed that makes use of optical flow theory and in particular, the parameter tau. This strategy has been applied to two distinct problems; (1) the landing of a helicopter on a ship and (2) the lateral repositioning of a helicopter. The first is a challenging case because the landing of a helicopter on a ship is one of the most dangerous of all helicopter flight operations. Furthermore, helicopters are often subject to torque oscillations during rapid collective control, which increases pilot workload significantly when operating with low power margins and/or whilst performing tasks that require accurate heave control. The second case demonstrates the generality of the technique. Both automatic manoeuvres were simulated successfully within desired limits, with the novel control strategy creating a ‘natural’, smooth, tau motion.
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subjects Applied sciences
Computer science
control theory
systems
Control system synthesis
Control theory. Systems
Exact sciences and technology
title Simulation of automatic helicopter deck landings using nature inspired flight control
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