Research Projects

Explore available research opportunities

3D Damage Characterization - What's going on under the steel surface?

3D Damage Characterization - What's going on under the steel surface?

Cracks during bending are of critical importance, but using regular microscopy we can only see what's going on at the surface. This experimental project will focus on characterizing damage in 3D using serial sectioning and electron microscopy.

Experimental Metals Steel
Supervisors:
Johan Hoefnagels
Casper Mornout
Johan Hoefnagels, Casper Mornout
Mechanics of Materials
Group Hoefnagels
Analyzing the sensitivity of a cluster dynamics model

Analyzing the sensitivity of a cluster dynamics model

A cluster dynamics model will be used to study the effect of neutron irradiation on the evolution of the microstructure and the resulting properties of aluminum alloys for structural components of nuclear research reactors.

Numerical Metals Simulation development Microstructures
Supervisors:
Hans van Dommelen
E
Hans van Dommelen, Etienne de Cazenove
Mechanics of Materials
Group van Dommelen
Layer by layer temprature field study of Additively Manufactured Tungsten using LPBF for Fusion Applications

Layer by layer temprature field study of Additively Manufactured Tungsten using LPBF for Fusion Applications

A part-scale model for additive manufacturing of tungsten components for nuclear fusion applications will be developed.

Numerical Metals 3D printing Simulation development
Supervisors:
Hans van Dommelen
C
Hans van Dommelen, Clément Heitz
Mechanics of Materials
Group van Dommelen
Beat the AI

Beat the AI

This project explores rule-based FDM infill strategies using grid models, aiming to outperform AI by reducing moves, material waste, and backtracking on complex geometries printing.

Numerical 3D printing Simulation development
Supervisors:
Joris Remmers
R
Joris Remmers, Ruben Schmeitz
Mechanics of Materials
Group Remmers
Advancing the Mesh: Enhancing Finite Element Tools for Additive Manufacturing

Advancing the Mesh: Enhancing Finite Element Tools for Additive Manufacturing

Enhance a Python tool converting G-code to finite-element meshes by adding belt-printer support, improving performance, and building a GUI for realistic additive manufacturing simulations research.

Numerical 3D printing Simulation development
Supervisors:
Joris Remmers
Joris Remmers
Mechanics of Materials
Group Remmers
COMSOL vs PyFEM

COMSOL vs PyFEM

This Bachelor project compares the open finite-element code PyFEM with the commercial software COMSOL for microstructural materials modelling. The study evaluates modelling flexibility, available material models, numerical performance, usability, and post-processing capabilities using representative homogenization-based case studies.

Numerical
Supervisors:
Joris Remmers
Joris Remmers
Mechanics of Materials
Group Remmers
Investigation of the effective thermal conductivity & thermally induced stresses for potting material in electromagnetic actuators

Investigation of the effective thermal conductivity & thermally induced stresses for potting material in electromagnetic actuators

Thermal conduction and the development of thermomechanical stress in heterogeneous potting material used in electromagnetic actuators is simulated using a micromechanical modelling approach.

Numerical Simulation development Polymers Microstructures
Supervisors:
Hans van Dommelen
K
Hans van Dommelen, Kylian van Akkerveken
Mechanics of Materials
Group van Dommelen
In-situ study of shear cutting effects in Advanced Green Steels

In-situ study of shear cutting effects in Advanced Green Steels

Investigate how shear cutting affects the local ductility and damage evolution of green-produced Advanced High-Strength Steels using in-situ tensile testing and optical microscopy.

Experimental Metals Steel Optical microscopy
Supervisors:
Johan Hoefnagels
Bart Verhaegh
Johan Hoefnagels, Bart Verhaegh
Mechanics of Materials
Group Hoefnagels
Using numerical simulations to understand (and predict!) damage in notched steel bending tests

Using numerical simulations to understand (and predict!) damage in notched steel bending tests

You will employ and optimize a numerical model to understand and predict damage for notched high-strength steel bending specimens.

Numerical Steel Damage models Simulation development
Supervisors:
R
Casper Mornout
Ron Peerlings, Casper Mornout
Mechanics of Materials
Group Peerlings
Mechanical properties of oil paints

Mechanical properties of oil paints

In this project, we will apply the T-PAINT method on fragile paint samples that are currently being investigated in delamination studies, allowing us to support and clarify the mechanical failure mechanisms of the paint layers.

Experimental Polymers Structure-property relationship Optical microscopy
Supervisors:
Johan Hoefnagels
Dorien Westert
Ali Behboud
Johan Hoefnagels, Dorien Westert +1 more
Mechanics of Materials
Group Hoefnagels
Optimizing Surface Treatments for Electron Microscopy of Green Steel

Optimizing Surface Treatments for Electron Microscopy of Green Steel

You will systematically assess and benchmark surface treatment strategies to ensure reliable SEM characterization of nanometer-scale inclusions in advanced high strength steels.

Experimental Steel
Supervisors:
Johan Hoefnagels
Bart Verhaegh
Johan Hoefnagels, Bart Verhaegh
Mechanics of Materials
Group Hoefnagels
Computational Investigation of the Effect of Scanning Strategies on the Thermal Field in Laser Powder Bed Fusion of Tungsten for Nuclear Fusion Applications

Computational Investigation of the Effect of Scanning Strategies on the Thermal Field in Laser Powder Bed Fusion of Tungsten for Nuclear Fusion Applications

A single layer finite element–based thermal model is developed and used to study the effect of different scanning strategies on the thermal field for laser powder bed fusion of tungsten.

Numerical Metals 3D printing Simulation development
Supervisors:
Hans van Dommelen
A
Hans van Dommelen, Ayush Srivastava
Mechanics of Materials
Group van Dommelen