Vijaya Lakshmi A.S.V, Ramalinga Raju Manyala, Siva Kumar Mangipudi. Design of a robust PID-PSS for an uncertainpower system with simplified stabilityconditions[J]. 现代电力系统保护与控制(英文), 2020,5(3).
Vijaya Lakshmi A.S.V, Ramalinga Raju Manyala, Siva Kumar Mangipudi. Design of a robust PID-PSS for an uncertainpower system with simplified stabilityconditions[J]. Protection and Control of Modern Power Systems, 2020, 5(3).
Vijaya Lakshmi A.S.V, Ramalinga Raju Manyala, Siva Kumar Mangipudi. Design of a robust PID-PSS for an uncertainpower system with simplified stabilityconditions[J]. 现代电力系统保护与控制(英文), 2020,5(3).DOI: 10.1186/s41601-020-00165-9.
Vijaya Lakshmi A.S.V, Ramalinga Raju Manyala, Siva Kumar Mangipudi. Design of a robust PID-PSS for an uncertainpower system with simplified stabilityconditions[J]. Protection and Control of Modern Power Systems, 2020, 5(3).DOI: 10.1186/s41601-020-00165-9.
Design of a robust PID-PSS for an uncertainpower system with simplified stabilityconditions
In a deregulated power system uncertainty exists and lack of sufficient damping can lead to Low Frequency Oscillations (LFO). The problem can be addressed using robust Power System Stabilizers (PSS). In this paper
an optimal procedure to design a robust PID-PSS using interval arithmetic for the Single Machine Infinite Bus (SMIB) power system is proposed. The interval modelling captures the wide variations of operating conditions in bounds of system coefficients. In the proposed design procedure
simple and new closed loop stability conditions for an SMIB interval system are developed and are used to design an optimum PID-PSS for improving the performance of an SMIB system. The optimum PID-PSS is attained by tuning the parameters using the FMINCON tool provided in MATLAB. The robustness of the proposed PID-PSS design is validated and compared to other notable methods in the literature when the system is subjected to different uncertainties. The simulation results and performance error values show the effectiveness of the proposed robust PID-PSS controller.
Abstract
In a deregulated power system uncertainty exists and lack of sufficient damping can lead to Low Frequency Oscillations (LFO). The problem can be addressed using robust Power System Stabilizers (PSS). In this paper
an optimal procedure to design a robust PID-PSS using interval arithmetic for the Single Machine Infinite Bus (SMIB) power system is proposed. The interval modelling captures the wide variations of operating conditions in bounds of system coefficients. In the proposed design procedure
simple and new closed loop stability conditions for an SMIB interval system are developed and are used to design an optimum PID-PSS for improving the performance of an SMIB system. The optimum PID-PSS is attained by tuning the parameters using the FMINCON tool provided in MATLAB. The robustness of the proposed PID-PSS design is validated and compared to other notable methods in the literature when the system is subjected to different uncertainties. The simulation results and performance error values show the effectiveness of the proposed robust PID-PSS controller.
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相关作者
Yibin Qiu
Qi Li
Yuxuan Ai
Weirong Chen
Mohamed Benbouzid
Shukui Liu
Fei Gao
Tanmay Jain
相关机构
Department of Electrical and Electronics Engineering, Birla Institute of Technology, Mesra, Ranchi