Biography
Eralp’s research is on finite element modelling of single and polycrystals for accurate prediction of mechanical properties of critical applications. Eralp received his PhD from RWTH Aachen University and worked as a researcher at various places including Carnegie Mellon University Mechanical Eng. Dept., Max Planck Institute for Iron Research, Cornell University Mechanical & Aerospace Eng. Dept., Sabanci University, and University of Bristol Mechanical Eng. on different projects involving finite element modelling and crystal mechanics that were linked with manufacturing processes such as micro machining, welding and additive manufacturing. He is currently working on physics-based modelling of nuclear materials.
Most Recent Publications
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
Localised stress and strain distribution in sliding
Localised stress and strain distribution in sliding
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
Research Interests
- Crystal plasticity
- Finite element modeling
- Material characterization and modeling
Related Academics
Most Recent Publications
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
Localised stress and strain distribution in sliding
Localised stress and strain distribution in sliding
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
Most Recent Publications
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Optimization of critical buckling load for variable stiffness composites using the lamination parameters as the field variables
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
Experimental investigation and crystal plasticity modelling of dynamic recrystallisation in dual-phase high entropy alloy during hot deformation
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
OXFORD-UMAT: An efficient and versatile crystal plasticity framework
Localised stress and strain distribution in sliding
Localised stress and strain distribution in sliding
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
Investigating grain-resolved evolution of lattice strains during plasticity and creep using 3DXRD and crystal plasticity modelling
