BackgroundEnergy systems are undergoing rapid changes, both in terms of electrical power generation, but also in the fast transition taking place in other energy-intensive sectors such as heating of buildings. This presents many opportunities, but also requires careful planning and operation to deal with emerging challenges such as network congestion. Recently, positive energy districts (PEDs), i.e. communities of homes that have very low or net-zero greenhouse gas emission and are highly energy-efficient, have become a key component of the energy transition.
The EmPowerEd project is a large national project that focuses on tackling the challenges that PEDs face in the transition to carbon-neutral heating. It is a large project, bringing together several Dutch universities, companies and municipalities to address this key societal challenges. It is also highly interdisciplinary, bringing together expertise ranging from mechanical and electrical engineering, computer science, built environment, to social sciences, economics and regulation.
Job descriptionThe project of the PhD student based at CWI in Amsterdam will focus on techno-economic models (and in particular multi-agent modeling) of energy exchange and flexibility for positive energy districts. A specific focus will be placed on designing incentives and sharing models between prosumers in PEDs. This includes both peer-peer trading models between individual prosumers (based on their own energy assets such as PVs, home batteries, heat pumps etc.), and models where joint electricity and heating infrastructure is shared in a local cooperative or coalition.
Potential topics that are relevant for this PhD position include:
- Modeling of peer-peer energy exchanges between prosumers in energy communities, considering their energy preferences and constraints
- Coalitional models for efficient sharing of joint energy infrastructure (such as a community heating network or community battery). This can use, e.g. techniques from coalition theory such as Shapley values.
- Models of network congestion, and solutions for planning and co-optimizing electricity and heating networks to avoid congestion issues
- . Validation of proposed techniques through principled multi-agent simulations, complex systems analysis or other data-driven methods.