This paper is a technical note about the theoretical evaluation of the bandwidth of multirotor helicopters. Starting from a mathematical linear model of the dynamics of a multirotor aircraft, the transfer functions of the state variables that deeply affect the stability characteristics of the aircraft are obtained. From these transfer functions, the frequency response analysis of the system is effected. After this analysis, the bandwidth of the system is defined. This result is immediately utilized for the design of discrete PID controllers for hovering flight stabilization. Numeric simulations are shown to demonstrate that the knowledge of the bandwidth is a valid aid in the design of flight control systems of these machines.
REFERENCES(15)
1.
Crowther B., Lanzon A., Maya-Gonzalez M., Langkamp D. (2011), Kinematic Analysis and Control Design for a Nonplanar, Journal of Guidance Control and Dynamics, 34(4):1157-1171.
Das A., Lewis K. S. (2009), Dynamic Inversion with Zero-Dynamics Stabilisation for Quadrotor Control, IEEE Proceedings Control Theory and Application, 3(3), 303-314.
Du G., Quan Q., Yang B., Cai K. (2015), Controllability Analysis for Multirotor Helicopter Rotor Degradation and Failure, Journal of Guidance Control and Dynamics, 38(5): 978-984.
Ferrarese G. (2017), Natural Motion of a Multi—Rotor Aircraft, Proceedings of the Institution of Mechanical Engineers, Part G: Journal of Aerospace Engineering (SAGE Journals), Research Article First Published online: January 5, 2017.
Mahony R., Kumar V., Corke P. (2012), Multirotor Aerial Vehicles: Modeling, Estimation, and Control of Quadrotor, IEEE, Robotics & Automation Magazine, 10(3), 20 – 32.
Raffo G.V., Ortega M. G., Rubio F. R. (2009), An integral predictive/nonlinear H infinity control structure for a quadrotor helicopter, Automatica, 46, 29–39.
Sa I., Corke P. (2011) Estimation and Control for an Open-Source Quadcopter, Proceedings of Australasian Conference on Robotics and Automation, Monash University, Melbourne, Australia.
Stepaniak M.J., van Graas F., de Haag M.U. (2009), Design of an Electric Propulsion System for a Quadrotor Unmanned Aerial Vehicle, Journal of Aircraft, 46(3), 1050-1058.
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