This paper presents the dc-dc zeta converter control. In order to cope with parameters uncertainty, the convex polytope modeling of the dc-dc zeta converter is introduced. To regulate the dc output voltage, the linear matrix inequality (LMI) is formulated based on linear quadratic regulator (LQR) problem to find the state-feedback gain for the convex polytope model. Simulation results are presented to compare the transient responses between conventional LQR and LMI based LQR. The result shows that the LMI based LQR can cope with high parameter uncertainty compared to the conventional LQR. The trade-off however is the high ripple presents in the control duty-ratio
Due to weak interconnection, random changes in load and generation, heavily loaded lines, and excita...
The paper herein presents the dynamic modelling of a linear quadratic regulator based optimal direct...
This paper proposes a systematic state-space procedure to design an optimal discrete-time linear qua...
A dc-dc zeta converter is a switch mode dc-dc converter that can either step-up or step-down dc inpu...
A dc-dc zeta converter can be used to step-up or step-down input voltage. In order to stabilize the ...
Recently, propositions of new conditions necessary and sufficient in the controller’s synthesis, bas...
Linear Quadratic Regulator (LQR) control problems have been widely investigated in the literature. T...
Linear Quadratic Regulator (LQR) algorithm is one of the controller methods to control a system. In ...
Absstract-The control of switching dc-dc converters is reviewed. Regarding it as a general linear qu...
A linear quadratic Gaussian with loop transfer recovery (LQG/LTR) controller is proposed for the eff...
The prime objective of this research is to compare the behavior of Zeta converter and Boost converte...
This paper presents a novel excitation control design to improve the voltage profile of power distri...
In a previous paper, an account had been given to the various aspects for the control of PWM-type sw...
Zeta converter is a fourth order dc-dc converter that can increases (step-up) or decreases (step-dow...
The design of robust and reliable power converters is fundamental in the incorporation of novel powe...
Due to weak interconnection, random changes in load and generation, heavily loaded lines, and excita...
The paper herein presents the dynamic modelling of a linear quadratic regulator based optimal direct...
This paper proposes a systematic state-space procedure to design an optimal discrete-time linear qua...
A dc-dc zeta converter is a switch mode dc-dc converter that can either step-up or step-down dc inpu...
A dc-dc zeta converter can be used to step-up or step-down input voltage. In order to stabilize the ...
Recently, propositions of new conditions necessary and sufficient in the controller’s synthesis, bas...
Linear Quadratic Regulator (LQR) control problems have been widely investigated in the literature. T...
Linear Quadratic Regulator (LQR) algorithm is one of the controller methods to control a system. In ...
Absstract-The control of switching dc-dc converters is reviewed. Regarding it as a general linear qu...
A linear quadratic Gaussian with loop transfer recovery (LQG/LTR) controller is proposed for the eff...
The prime objective of this research is to compare the behavior of Zeta converter and Boost converte...
This paper presents a novel excitation control design to improve the voltage profile of power distri...
In a previous paper, an account had been given to the various aspects for the control of PWM-type sw...
Zeta converter is a fourth order dc-dc converter that can increases (step-up) or decreases (step-dow...
The design of robust and reliable power converters is fundamental in the incorporation of novel powe...
Due to weak interconnection, random changes in load and generation, heavily loaded lines, and excita...
The paper herein presents the dynamic modelling of a linear quadratic regulator based optimal direct...
This paper proposes a systematic state-space procedure to design an optimal discrete-time linear qua...