Adaptive support vector regression for UAV flight control
This paper explores an application of support vector regression for adaptive control of an
unmanned aerial vehicle (UAV). Unlike neural networks, support vector regression (SVR)
generates global solutions, because SVR basically solves quadratic programming (QP)
problems. With this advantage, the input–output feedback-linearized inverse dynamic model
and the compensation term for the inversion error are identified off-line, which we call I-SVR
(inversion SVR) and C-SVR (compensation SVR), respectively. In order to compensate for …
unmanned aerial vehicle (UAV). Unlike neural networks, support vector regression (SVR)
generates global solutions, because SVR basically solves quadratic programming (QP)
problems. With this advantage, the input–output feedback-linearized inverse dynamic model
and the compensation term for the inversion error are identified off-line, which we call I-SVR
(inversion SVR) and C-SVR (compensation SVR), respectively. In order to compensate for …
This paper explores an application of support vector regression for adaptive control of an unmanned aerial vehicle (UAV). Unlike neural networks, support vector regression (SVR) generates global solutions, because SVR basically solves quadratic programming (QP) problems. With this advantage, the input–output feedback-linearized inverse dynamic model and the compensation term for the inversion error are identified off-line, which we call I-SVR (inversion SVR) and C-SVR (compensation SVR), respectively. In order to compensate for the inversion error and the unexpected uncertainty, an online adaptation algorithm for the C-SVR is proposed. Then, the stability of the overall error dynamics is analyzed by the uniformly ultimately bounded property in the nonlinear system theory. In order to validate the effectiveness of the proposed adaptive controller, numerical simulations are performed on the UAV model.
Elsevier
Showing the best result for this search. See all results