Vertical landing is becoming popular in the last fifteen years, a technology known under the acronym VTVL, Vertical Takeoff and Vertical Landing [1,2]. The interest in such landing technology is dictated by possible cost reductions [3,4], that impose spaceship’s recycling. The rockets are not generally de- signed to perform landing operations, rather their design is aimed at takeoff operations, guaranteeing a very high forward acceleration to gain the velocity needed to escape the gravitational force. In this paper a new control method based on Feedback Local Optimality Principle, named FLOP is applied to the rocket landing problem. The FLOP belongs to a special class of optimal controllers, developed by the mechatronic and vehicle dynamics lab of Sapienza, named Variational Feedback Controllers - VFC, that are part of an ongoing research and are recently applied in different field: nonlinear system [5], marine and terrestrial autonomous vehicles [6,7,8], multi agents interactions and vibration control [9, 10]. The paper is devoted to show the robustness of the nonlinear controlled system, comparing the performances with the LQR, one of the most acknowledged methods in optimal control.

Feedback local optimality principle applied to rocket vertical landing VTVL / Antonelli, Dario; Pepe, Gianluca; Nesi, Leandro; Carcaterra, Antonio. - 2:(2020), pp. 227-235. (Intervento presentato al convegno First international nonlinear dynamics conference, NODYCON2019 tenutosi a Rome, Italy) [10.1007/978-3-030-34747-5_23].

Feedback local optimality principle applied to rocket vertical landing VTVL

Dario Antonelli;Gianluca Pepe;Leandro Nesi;Antonio Carcaterra
2020

Abstract

Vertical landing is becoming popular in the last fifteen years, a technology known under the acronym VTVL, Vertical Takeoff and Vertical Landing [1,2]. The interest in such landing technology is dictated by possible cost reductions [3,4], that impose spaceship’s recycling. The rockets are not generally de- signed to perform landing operations, rather their design is aimed at takeoff operations, guaranteeing a very high forward acceleration to gain the velocity needed to escape the gravitational force. In this paper a new control method based on Feedback Local Optimality Principle, named FLOP is applied to the rocket landing problem. The FLOP belongs to a special class of optimal controllers, developed by the mechatronic and vehicle dynamics lab of Sapienza, named Variational Feedback Controllers - VFC, that are part of an ongoing research and are recently applied in different field: nonlinear system [5], marine and terrestrial autonomous vehicles [6,7,8], multi agents interactions and vibration control [9, 10]. The paper is devoted to show the robustness of the nonlinear controlled system, comparing the performances with the LQR, one of the most acknowledged methods in optimal control.
2020
First international nonlinear dynamics conference, NODYCON2019
vertical landing; optimal control; nonlinear dynamics
04 Pubblicazione in atti di convegno::04b Atto di convegno in volume
Feedback local optimality principle applied to rocket vertical landing VTVL / Antonelli, Dario; Pepe, Gianluca; Nesi, Leandro; Carcaterra, Antonio. - 2:(2020), pp. 227-235. (Intervento presentato al convegno First international nonlinear dynamics conference, NODYCON2019 tenutosi a Rome, Italy) [10.1007/978-3-030-34747-5_23].
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11573/1310823
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