This paper presents an automatic loop-shaping method for designing proportional integral derivative controllers. Criteria for load disturbance attenuation, measurement noise injection, set-point response and robustness to plant uncertainty are given. One criterion is chosen to be optimized with the remaining ones as constraints. Two cases are considered: M-constrained integral gain optimization and minimization of the cost of feedback according to quantitative feedback theory. Optimization is performed using a convex-concave procedure (CCP). The method that relies on solving a sequence of convex optimization problems converges to a local minimum or a saddle point. The proposed method is illustrated by examples
Quantitative Feedback Theory (QFT) is one of the most effective methods of robust controller design....
\u3cp\u3eIn this paper it is described a new method to design PID controllers using a linear program...
Proportional, Integral, and Derivative (PID) and discrete-time Proportional, Summation, and Differen...
This paper describes how PID controllers can be designed by optimizing performance subject to robust...
This paper proposes an optimization algorithm for the automatic design of robust PID controllers usi...
This paper presents a new design method for PID controllersbased on optimization of load disturbance...
Abstract. In this paper, a design methodology for a proportional integral derivative (PID) control d...
This paper presents an efficient numerical method for designing PI controllers. The design is based ...
An optimisation algorithm is proposed for designing PID controllers, which minimises the asymptotic ...
International audienceThis paper proposes a new semi-analytic robust mixed H2/H-infinity design meth...
A constraint optimization approach is discussed for estimating the proportional-integral-derivative ...
A method for synthesizing proportional-integral-derivative (PID) controllers for process models with...
This study presents a new set of formulae for the design of discrete proportional-integral-derivativ...
A systematic tuning method is proposed to design the optimal proportional-integral-derivative (PID) ...
This paper presents a control design method for determining proportional-integral-type controllers s...
Quantitative Feedback Theory (QFT) is one of the most effective methods of robust controller design....
\u3cp\u3eIn this paper it is described a new method to design PID controllers using a linear program...
Proportional, Integral, and Derivative (PID) and discrete-time Proportional, Summation, and Differen...
This paper describes how PID controllers can be designed by optimizing performance subject to robust...
This paper proposes an optimization algorithm for the automatic design of robust PID controllers usi...
This paper presents a new design method for PID controllersbased on optimization of load disturbance...
Abstract. In this paper, a design methodology for a proportional integral derivative (PID) control d...
This paper presents an efficient numerical method for designing PI controllers. The design is based ...
An optimisation algorithm is proposed for designing PID controllers, which minimises the asymptotic ...
International audienceThis paper proposes a new semi-analytic robust mixed H2/H-infinity design meth...
A constraint optimization approach is discussed for estimating the proportional-integral-derivative ...
A method for synthesizing proportional-integral-derivative (PID) controllers for process models with...
This study presents a new set of formulae for the design of discrete proportional-integral-derivativ...
A systematic tuning method is proposed to design the optimal proportional-integral-derivative (PID) ...
This paper presents a control design method for determining proportional-integral-type controllers s...
Quantitative Feedback Theory (QFT) is one of the most effective methods of robust controller design....
\u3cp\u3eIn this paper it is described a new method to design PID controllers using a linear program...
Proportional, Integral, and Derivative (PID) and discrete-time Proportional, Summation, and Differen...