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Double synchronous controller for integration of large-scale renewable energy sources into a low-inertia power grid
Language
EN
Communication dans un congrès
This item was published in
2017 IEEE PES Innovative Smart Grid Technologies Conference Europe (ISGT-Europe), 2017-09-26, Torino.
English Abstract
Renewable energy sources are normally connected to
the power grid via power electronic converters. High
penetration of these energy sources into the power grid leads to
high instability in voltage and frequency. This ...Read more >
Renewable energy sources are normally connected to
the power grid via power electronic converters. High
penetration of these energy sources into the power grid leads to
high instability in voltage and frequency. This issue is caused by
neglecting the inherent characteristics of synchronous
generators i.e., inertia, damping and proper active and reactive
power sharing in the structure of the used control technique in
the control loop of the interfaced converter between power grid
and renewable energy sources. This paper presents a powerbased
control technique based on a double synchronous
controller (DSC) for interfaced converter between the renewable
energy sources and the power grid, including an active-reactive
power based dynamic equation. Through the proposed DSC, a
decoupled control method is performed in which both active and
reactive power can be injected from renewable energy sources
into the power grid by the interfaced power converter with the
inherent features of synchronous power generators. By using the
proposed control technique, a stable operation of the power grid
can be guaranteed during the integration of large-scale
renewable energy sources. Stringent simulation results
performed in MATLAB/SIMULINK environment verify the
proficiency of the proposed control technique.Read less <
English Keywords
Large-scale renewable energy sources
Double synchronous controller (DSC)
Active and reactive power
European Project
Smart and Sustainable Insular Electricity Grids Under Large-Scale Renewable Integration
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