Are you interested in developing building energy models that support real-world decisions on urban renovation and district energy planning? Contribute to scalable simulation methods for Positive Energy Districts.
InformationAre you motivated to contribute to the energy transition by improving how we simulate building performance at scale? We are looking for a PhD researcher to develop scalable, fit-for-purpose building energy models that support decision-making in the context of
Positive Energy Districts (PEDs).
In this PhD, you will work closely with municipalities and other stakeholders to understand the specific
use cases they face—such as building renovation planning and district energy system design. These use cases define the types of questions that the building energy models need to answer—for example, how different renovation scenarios affect energy demand or how building stock characteristics impact thermal network design. Based on these needs, you will determine the appropriate level of complexity in the Building Energy Simulation (BES) models, including modeling approach (e.g., reduced-order or first-principles), spatial and temporal resolution, and occupant behavior detail. Your goal is to develop models that are
fit-for-purpose, while also being
scalable to neighborhoods of 1000–2000 buildings.
This PhD is part of the
EmPowerED research project, which brings together researchers, municipalities, grid operators, housing associations, and citizens to support the design of
sustainable, affordable, and widely supported local energy systems. EmPowerED aims to accelerate the energy transition by placing citizens at the heart of PED development through new socio-technical models and tools. You will collaborate closely with a second EmPowerED PhD researcher who focuses on data-driven building typology identification and automated BES generation.
You will be embedded in the
Building Performance research group and the
Information Systems in the Built Environment research group, working in a collaborative and interdisciplinary environment. Your contributions will support municipalities and practitioners in making informed decisions about building performance, energy use, and renovation planning.
We welcome applicants from diverse backgrounds who are enthusiastic about
building physics, energy systems modelling, and the societal impact of simulation tools.