To achieve the objectives of the Climate Agreement there is a need to rapidly increase the amount of energy that comes from solar and wind farms. In the Netherlands, there is significant interest in relevant investments. However, the lack of grid capacity in the medium voltage grid hinders the realization of new projects. Given the significant lead times and cost of medium voltage grid reinforcement, mobilizing flexibility that is available at the edges of the power system to increase the hosting capacity of the existing network by preventing or minimizing congestion is imperative.
To address this challenge, you will work with a consortium of industry and academic partners who aim to develop and validate scalable optimization and control techniques to exploit distributed energy storage assets located at the low voltage grid (residential and agricultural end-users) in order to resolve congestion issues at the medium voltage grid level and enable the seamless connection of large-scale solar and wind farms. In particular, you will explore the use of machine learning techniques in conjunction with mathematical programming to accelerate the solution of large-scale combinatorial optimization problems that are used to price and specify the parameters of congestion management instruments.
Your tasks will include:
- Developing multi-level distributed optimization and control algorithms for distributed energy storage devices.
- Designing and pricing new congestion management instruments that are compatible with current legislation.
- Validating the proposed algorithms via a pilot that takes place in a congested area where several large-scale renewable generation projects are in the pipeline and involves a significant amount of distributed storage.
You will primarily contribute to Intelligent Energy Systems research activities of the Electrical Energy Systems group. Besides research you will also have the opportunity to contribute to education within the department.