P. K. Dash, R. K. Patnaik, S. P. Mishra. Adaptive fractional integral terminal slidingmode power control of UPFC in DFIG windfarm penetrated multimachine powersystem[J]. 现代电力系统保护与控制(英文), 2018,3(1).
P. K. Dash, R. K. Patnaik, S. P. Mishra. Adaptive fractional integral terminal slidingmode power control of UPFC in DFIG windfarm penetrated multimachine powersystem[J]. Protection and Control of Modern Power Systems, 2018, 3(1).
P. K. Dash, R. K. Patnaik, S. P. Mishra. Adaptive fractional integral terminal slidingmode power control of UPFC in DFIG windfarm penetrated multimachine powersystem[J]. 现代电力系统保护与控制(英文), 2018,3(1).DOI: 10.1186/s41601-018-0079-z.
P. K. Dash, R. K. Patnaik, S. P. Mishra. Adaptive fractional integral terminal slidingmode power control of UPFC in DFIG windfarm penetrated multimachine powersystem[J]. Protection and Control of Modern Power Systems, 2018, 3(1).DOI: 10.1186/s41601-018-0079-z.
Adaptive fractional integral terminal slidingmode power control of UPFC in DFIG windfarm penetrated multimachine powersystem
With an aim to improve the transient stability of a DFIG wind farm penetrated multimachine power system (MPN)
an adaptive fractional integral terminal sliding mode power control (AFITSMPC) strategy has been proposed for the unified power flow controller (UPFC)
which is compensating the MPN. The proposed AFITSMPC controls the dq- axis series injected voltage
which controls the admittance model (AM) of the UPFC. As a result the power output of the DFIG stabilizes which helps in maintaining the equilibrium between the electrical and mechanical power of the nearby generators. Subsequently the rotor angular deviation of the respective generators gets recovered
which significantly stabilizes the MPN. The proposed AFITSMPC for the admittance model of the UPFC has been validated in a DFIG wind farm penetrated 2 area 4 machine power system in the MATLAB environment. The robustness and efficacy of the proposed control strategy of the UPFC
in contrast to the conventional PI control is vindicated under a number of intrinsic operating conditions
and the results analyzed are satisfactory.
Abstract
With an aim to improve the transient stability of a DFIG wind farm penetrated multimachine power system (MPN)
an adaptive fractional integral terminal sliding mode power control (AFITSMPC) strategy has been proposed for the unified power flow controller (UPFC)
which is compensating the MPN. The proposed AFITSMPC controls the dq- axis series injected voltage
which controls the admittance model (AM) of the UPFC. As a result the power output of the DFIG stabilizes which helps in maintaining the equilibrium between the electrical and mechanical power of the nearby generators. Subsequently the rotor angular deviation of the respective generators gets recovered
which significantly stabilizes the MPN. The proposed AFITSMPC for the admittance model of the UPFC has been validated in a DFIG wind farm penetrated 2 area 4 machine power system in the MATLAB environment. The robustness and efficacy of the proposed control strategy of the UPFC
in contrast to the conventional PI control is vindicated under a number of intrinsic operating conditions
Methods to Suppress Power Oscillation Caused by Disharmonized Voltage-Source-Controlled Units at Both Sides of Transmission Line
Dual Alternative Iteration Algorithm-Based Hierarchical MPC Strategy for Frequency Regulation Control and Active Power Allocation of Wind-storage Coupling System
Application of Improved Crown Porcupine Optimizer in UAV Path Planning Based on Dynamic Weighted JAYA-CPO Attack Strategy
Reliability-Based Design Optimization for Lithium-ion Batteries Considering the Venting Critical Time
Optimal Green Energy Harvesting for Hybrid Photovoltaic-thermoelectric Generator System via Chaotic RIME Optimizer: A TEchno-Environmental Assessment