Real-Time Analysis of Active Distribution Network

 

PhD programme

energinet.dk logoby Seung Tae Cha
Student no s094042  

Defence

Date & Time
Friday, 15th February 2013 at 13.00

Location
DTU, Building 101, Auditorium S1

Examiners
Associate Professor Chresten Træholt, DTU Elektro
Professor Sami Repo, Tampere University of Technology, Finland
Deputy Group Leader Chris Marnay, Deputy Group Leader Chris Marnay, Berkeley Lab, USA

Chairman at the defence
Associate Professor Joachim Holbøll, DTU Elektro 

Period
August 2009 to April 2013 

Main supervisor
Professor Jacob Østergaard
    CEE, DTU Electrical Enginering

Supervisor
Assistant Professor Qiuwei Wu
    CEE, DTU Electrical Enginering

Sponsors
The PhD is funded by Energinet.dk and DTU
 
Project Description
The electrical power supply systems of the future will be characterised by a high proportion of renewable energy sources, by decentralised, externally determined generation and frequently by a strongly developed electricity business.  This particular integration of distributed renewable generation sources into the electricity grid poses a number of challenges for the industry. Utilities will be faced with issues of enabling high penetration of wind power into both existing and future distribution networks.

The main focus of this PhD project is to investigate the influence of renewable energies and distributed power production on the operation of active distribution networks, based on the advanced real-time digital simulation platform.  The basic challenges of making accurate simulations of small coupled systems will be addressed.

Over three phases, the goal of this project is to develop a flexible digital simulation platform for the modelling, control/operation and verification of a typical Danish distribution network that incorporates several renewable energy sources combined with conventional power production plants.

The simulator needs to be capable of representing the dynamics of three phase networks for simulating operations of specific technologies/models, and for the verification of proper operations along with special emphasis on islanding operation as well as different interface methods to realize power hardware in the loop (HIL) simulations.  Based on these real-time models and studies, power system operation problems are identified faster, operating schemes and technical solutions are designed and tested.

Further information
ORBIT database

2010 July, stc
 

https://www.cee.elektro.dtu.dk/research/phd-projects/completed-phd-projects/11-15/2013-stc
2 MARCH 2025