Multi-Mode Electric Actuator Dynamic Modelling for Missile Fin Control
AbstractLinear first/second order fin direct current (DC) actuator model approximations for missile applications are currently limited to angular position and angular velocity state variables. Furthermore, existing literature with detailed DC motor models is decoupled from the application of interest: tail controller missile lateral acceleration (LATAX) performance. This paper aims to integrate a generic DC fin actuator model with dual-mode feedforward and feedback control for tail-controlled missiles in conjunction with the autopilot system design. Moreover, the characteristics of the actuator torque information in relation to the aerodynamic fin loading for given missile trim velocities are also provided. The novelty of this paper is the integration of the missile LATAX autopilot states and actuator states including the motor torque, position and angular velocity. The advantage of such an approach is the parametric analysis and suitability of the fin actuator in relation to the missile lateral acceleration dynamic behaviour. View Full-Text
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Gurav, B.; Economou, J.; Saddington, A.; Knowles, K. Multi-Mode Electric Actuator Dynamic Modelling for Missile Fin Control. Aerospace 2017, 4, 30.
Gurav B, Economou J, Saddington A, Knowles K. Multi-Mode Electric Actuator Dynamic Modelling for Missile Fin Control. Aerospace. 2017; 4(2):30.Chicago/Turabian Style
Gurav, Bhimashankar; Economou, John; Saddington, Alistair; Knowles, Kevin. 2017. "Multi-Mode Electric Actuator Dynamic Modelling for Missile Fin Control." Aerospace 4, no. 2: 30.
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