Are you passionate about understanding hidden soil failure processes? Join us to explore how subsurface erosion leads to dike instability and sand production in geothermal wells using cutting-edge FEM modelling.
InformationIn this PhD position, you contribute to a high-impact research project that combines advanced modelling with lab-scale experimentation to better understand and predict subsurface erosion phenomena.
Subsurface erosion—often invisible until it causes catastrophic damage—poses major risks to buried infrastructure. In this PhD project, you will investigate two pressing real-world challenges: sand production in geothermal boreholes and backward erosion piping in dikes. Both processes are driven by internal erosion mechanisms, which will be studied by developing and extending coupled hydro-mechanical erosion models.
This research simulates subsurface erosion in geothermal wells and dikes with advanced finite element models calibrated through small- and medium-scale laboratory experiments. It investigates the effects of soil properties, flow paths, and scale, aiming to develop practical prediction tools for engineering applications.
You will be part of the chairs of
Applied Mechanics and
Engineering Thermodynamics for Energy Systems at the
Eindhoven University of Technology (TU/e), Netherlands. You will work closely with experts in numerical simulations, soil mechanics and geotechnical modelling. Your work will help safeguard infrastructure, improve geothermal energy systems, and enhance flood protection strategies—contributing to climate-resilient, sustainable development. You will be part of a supportive, inclusive, and multidisciplinary team tackling real-world problems with global relevance.
This project will be embedded within the BEHeaT program on subsurface heat extraction of the Eindhoven Institute for Renewable Energy Systems (EIRES) of the TU/e, serving as a valuable addition to the suite of methodologies for sustainable heat generation. Approaching the topic from a systems perspective within the broader BEHeaT framework, and linking related efforts from the Built Environment and Mechanical Engineering departments, the project strengthens interdepartmental collaboration and aligns well with EIRES’s energy transition goals.
We welcome candidates from diverse backgrounds and encourage applicants who are enthusiastic, curious, and driven by impact. At TU/e, you will find a supportive and collaborative research environment where you can grow as both a scientist and a professional.