This paper presents a novel virtual synchronous machine controller for converters in power systems with a high share of renewable resources. Using an interval-based approach, the emulated inertia and damping constants are adaptively adjusted according to the frequency disturbance in the system, while simultaneously keeping the frequency within prescribed limits. Furthermore, the sufficient stability conditions for control tuning are derived. The proposed design is integrated into a state-of-the-art converter control scheme and tested through time-domain simulations. A comparative study against the existing approaches in the literature verifies the control effectiveness
This paper deals with the development of a control technique for the control of voltage source conve...
This paper deals with the development of a control technique for the control of voltage source conve...
International audienceThe paper proposes an adaptive variable synthetic inertia strategy to provide ...
This paper presents a novel virtual inertia controller for converters in power systems with high sha...
This paper presents a novel virtual synchronous machine controller for converters in power systems w...
Abstract The modern power system is progressing from a centralised generation having synchronous gen...
This paper presents a flexible virtual inertia and damping control strategy for a virtual synchronou...
This paper presents a novel comprehensive control strategy for grid-connected Voltage Source Convert...
©2021 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for al...
Renewable energy sources (RES) penetration levels are increasing in the power grid. However, it does...
In recent years, the penetration of renewable power generations into the electrical grid has substan...
This article presents an enhanced control strategy for voltage source converters (VSCs) based on vir...
Integration of renewable energy sources (RESs) into power systems is growing due to eco-friendly con...
Integration of renewable energy sources (RESs) into power systems is growing due to eco-friendly con...
This article presents an enhanced control strategy for voltage source converters (VSCs) based on vir...
This paper deals with the development of a control technique for the control of voltage source conve...
This paper deals with the development of a control technique for the control of voltage source conve...
International audienceThe paper proposes an adaptive variable synthetic inertia strategy to provide ...
This paper presents a novel virtual inertia controller for converters in power systems with high sha...
This paper presents a novel virtual synchronous machine controller for converters in power systems w...
Abstract The modern power system is progressing from a centralised generation having synchronous gen...
This paper presents a flexible virtual inertia and damping control strategy for a virtual synchronou...
This paper presents a novel comprehensive control strategy for grid-connected Voltage Source Convert...
©2021 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for al...
Renewable energy sources (RES) penetration levels are increasing in the power grid. However, it does...
In recent years, the penetration of renewable power generations into the electrical grid has substan...
This article presents an enhanced control strategy for voltage source converters (VSCs) based on vir...
Integration of renewable energy sources (RESs) into power systems is growing due to eco-friendly con...
Integration of renewable energy sources (RESs) into power systems is growing due to eco-friendly con...
This article presents an enhanced control strategy for voltage source converters (VSCs) based on vir...
This paper deals with the development of a control technique for the control of voltage source conve...
This paper deals with the development of a control technique for the control of voltage source conve...
International audienceThe paper proposes an adaptive variable synthetic inertia strategy to provide ...