Biography
Izzet Tarik Tandogan is a Postdoctoral Research Assistant in the Brassart Research Group at the University of Oxford, led by Prof. Laurence Brassart. He received his BSc and MSc in Aerospace Engineering from Middle East Technical University in 2020 and his PhD in Georesources and Materials Engineering from RWTH Aachen University in 2026. Before joining Oxford, he was a Doctoral Researcher at Forschungszentrum Jülich, Germany.
His current research focuses on developing physically motivated constitutive models for biodegradable polymers, investigating the coupled effects of aqueous degradation and mechanical deformation to enable their reliable use in potential biomedical applications and to advance environmentally sustainable materials. During his doctoral research, he developed constitutive models describing the microstructural evolution and mechanical behaviour of metallic materials during thermomechanical processing by bringing together the modelling of mechanical deformation and grain boundary processes within a unified multi-physics framework.
Most Recent Publications
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
Research Interests
Chemo-mechanical modelling of biodegradable polymers
Grain growth and recrystallization (phase field models)
Mesoscale plasticity models (strain gradient/micropolar crystal plasticity, grain boundary models)
Damage and fracture mechanics (porous plasticity, cohesive zone modelling)
Current Research projects
His current project focuses on development and experimental validation chemo-mechanically coupled constitutive models for polymers undergoing hydrolytic degradation.
Research Groups
Related Academics
Most Recent Publications
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
Awards or Prizes
2026 - Summa cum laude (with distinction) for PhD dissertation. RWTH Aachen University.
2018 - Ranked 1st among BSc Aerospace Engineering graduates. Middle East Technical University.
Most Recent Publications
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for dislocation driven spontaneous grain nucleation and microstructure evolution in polycrystals
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
A multi-physics model for the evolution of grain microstructure
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
Development and implementation of a micromechanically motivated cohesive zone model for ductile fracture
