Formability of Advanced High Strength SteelsConstitutive modelling of steels involving multiple and metastable phasesMechanics of biomaterialsContinuum damage modellingStructural optimization of layered thermoplastic composites
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Introduction to the Finite Element Method - IO,WB,AT (201000019, 191157110, 201200178)An introductory theoretical background as well as the application perspectives to the linear Finite Element Method. Given to three departments, Industrial Design, Mechanical Engineering and Advanced Technology.
ENFASSENhanced Formability Assessment of AHSS sheets. In this project the influence of stretch-bending on the formability of AHSS is investigated. The industrial partners of this project are Voestalpine Steel (Austria), Tata Steel Technology (The Netherlands), Daimler AG (Germany), Virtual Vehicle (Austria)
TAPAS (concluded)The Thermoplastic Affordable Primary Aircraft Structure consortium. In UT the main task is to develop an efficient optimization algorithm for the ply orientations in fibre-reinforced laminated composites in order to reduce weight while satisfying the constraints on the stiffness of the panels. The partners in this project are Airbus, Airborne Technology Centre, Dutch Thermoplastic Components, KVE Composite Group, Stork Fokker AESP, Technobis Fibre Technologies, TenCate Advanced Composites, Technical University of Delft
Post-doctoral ResearcherWorked on several projects under different chairs at the UT.
Production Technology: Utilizing Shape-Memory Alloys for self-healing of laminated composite materialsMulti-Scale Mechanics: A local constitutive model with anisotropy for various homogeneous 2D biaxial deformation modesApplied Mechanics: Constitutive modeling of multi-phase steels including TRansformation Induced Plasticity (TRIP) effectsApplied Mechanics: Design optimization of laminated composite panels for aircraft applications
I obtained my PhD degree in the Applied Mechanics group at the University of Twente with my dissertation titled ‘Constitutive modelling of metastable austenitic stainless steel’ . During this research I developed a novel physically-based constitutive model that predicts the mechanical behaviour of the metastable austenitic stainless steel which undergoes mechanically-induced martensitic transformation during deformation.