Title :
Evolutionary algorithms for self-tuning Active Vibration Control of flexible beam
Author :
Fadil, Muhammad Anas ; Darus, I.Z.M.
Author_Institution :
Dept. of Appl. Mech. & Design, Univ. Teknol. Malaysia, Skudai, Malaysia
Abstract :
This paper presents the development of self tuning Active Vibration Control (AVC) strategy for flexible beam structure. An experimental procedure was conducted on a flexible beam structure with clamped-free boundary condition. The beam was forced to vibrate using an external force and a set of input-output vibration data was acquired. Using the input-output data, the flexible beam model was developed using Least Squares (LS) algorithm that incorporated the Auto Regressive (ARX) model structure. The AVC controllers developed are proportional-derivative (PD) and proportionalintegral-derivative (PID). The parameters of PD and PID controllers were tuned using iterative learning algorithm (ILA) and evolutionary Particle Swarm Optimization (PSO) techniques. Mean squared errors (MSE) were used to compare PSO tuned PD (PD-PSO), PSO tuned PID (PID-PSO) and PID with ILA (PID-ILA) controllers. It was found that the PID-ILA controller tuned using ILA had performed better than PID-PSO but PD-PSO is the best among the three controllers.
Keywords :
PD control; adaptive control; beams (structures); flexible structures; iterative methods; learning systems; least mean squares methods; particle swarm optimisation; three-term control; vibration control; ARX model structure; AVC controller; ILA; LS algorithm; PD controller parameter; PD-PSO controller; PID controller parameter; PID with ILA controller; PID-ILA controller; PSO techniques; PSO tuned PD controller; PSO tuned PID controller; autoregressive model structure; clamped-free boundary condition; evolutionary particle swarm optimization techniques; external force; flexible beam structure model; input-output vibration data acquisition; iterative learning algorithm; least squares algorithm; mean squared errors; proportional-derivative controller; proportional-integral-derivative controller; self tuning active vibration control strategy; Data models; Equations; Heuristic algorithms; Mathematical model; PD control; Particle swarm optimization; Vibrations; Flexible Beam; Least Square and Particle Swarm Optimization; iterative Learning Algorithm;
Conference_Titel :
Control Conference (AUCC), 2013 3rd Australian
Conference_Location :
Fremantle, WA
Print_ISBN :
978-1-4799-2497-4
DOI :
10.1109/AUCC.2013.6697256