Abstract
| Language | English |
|---|---|
| Number of pages | 8 |
| Publication status | Accepted/In press - 7 Apr 2016 |
| Event | The Seventeenth IEEE Workshop on Control and Modeling for Power Electronics - Trondheim, Norway, Trondheim, Norway Duration: 27 Jun 2016 → 30 Jun 2016 http://sites.ieee.org/compel2016/ |
Conference
| Conference | The Seventeenth IEEE Workshop on Control and Modeling for Power Electronics |
|---|---|
| Abbreviated title | COMPEL 2016 |
| Country | Norway |
| City | Trondheim |
| Period | 27/06/16 → 30/06/16 |
| Internet address |
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Keywords
- interline dynamic voltage restorer
- generalised average modelling
- dynamic phasor model
- detailed model
- Park’s transformation
Cite this
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Transient analysis of interline dynamic voltage restorer using dynamic phasor representation. / Abojlala, Khaled Issa; Holliday, Derrick; Xu, Lie.
2016. Paper presented at The Seventeenth IEEE Workshop on Control and Modeling for Power Electronics, Trondheim, Norway.Research output: Contribution to conference › Paper
TY - CONF
T1 - Transient analysis of interline dynamic voltage restorer using dynamic phasor representation
AU - Abojlala, Khaled Issa
AU - Holliday, Derrick
AU - Xu, Lie
PY - 2016/4/7
Y1 - 2016/4/7
N2 - Computer planning and simulation of power systems require system components to be represented mathematically. A method for building a dynamic phasor model of an Interline Dynamic Voltage Restorer (IDVR) is presented, and the resulting model is tested in a simple radial distribution system. Mathematical analysis is carried out for each individual component of the IDVR as modular models, which are then aggregated to generate the final model. The proposed technique has the advantage of simplifying the modelling of any flexible AC transmission system (FACTS) device in dynamic phasor mode when compared to other modelling techniques reported in the literature. The IDVR, including the series injection transformer, is analysed in both ABC and DQ dynamic phasor modes, and IDVR power management is also presented. The ensure compatibility with transient stability programs, the analysis is performed for the fundamental frequency only, with other frequency components being truncated and without considering harmonics. Results produced by the IDVR dynamic phasor model are validated by comparison with results gained from a detailed MATLAB/Simulink IDVR model.
AB - Computer planning and simulation of power systems require system components to be represented mathematically. A method for building a dynamic phasor model of an Interline Dynamic Voltage Restorer (IDVR) is presented, and the resulting model is tested in a simple radial distribution system. Mathematical analysis is carried out for each individual component of the IDVR as modular models, which are then aggregated to generate the final model. The proposed technique has the advantage of simplifying the modelling of any flexible AC transmission system (FACTS) device in dynamic phasor mode when compared to other modelling techniques reported in the literature. The IDVR, including the series injection transformer, is analysed in both ABC and DQ dynamic phasor modes, and IDVR power management is also presented. The ensure compatibility with transient stability programs, the analysis is performed for the fundamental frequency only, with other frequency components being truncated and without considering harmonics. Results produced by the IDVR dynamic phasor model are validated by comparison with results gained from a detailed MATLAB/Simulink IDVR model.
KW - interline dynamic voltage restorer
KW - generalised average modelling
KW - dynamic phasor model
KW - detailed model
KW - Park’s transformation
M3 - Paper
ER -