Biography
Eralp is a senior researcher with a research focus on the modelling mechanics of crystalline solids. He received his Ph.D. degree from RWTH Aachen University. He then held postdoctoral positions at Cornell University Sibley School of Mechanical and Aerospace Engineering and at University of Bristol Mechanical Engineering, focussing on different projects involving finite element modelling and crystal mechanics.
Eralp is the lead developer of the OXFORD-UMAT crystal plasticity framework in the Department of Engineering Science at the University of Oxford, aimed at simulating different applications related to microstructure-sensitive materials modelling to deal with wide variety of materials, equipped with novel strain gradient and backstress models.
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
Research Interests
- Crystal plasticity
- Grain boundary fracture
- FEM for EBSD or XRD based stress measurements
- GND calculation
Related Academics
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
Scalability study of parallel simulations on the HPC using open-source and commercial finite element software: Application to crystal plasticity modelling
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
UKAEA Poly-XTAL operations (UPXO V1.0): An open-source Python package for generating, assessment and meshing of poly-crystalline grain structures
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
Corrigendum to “An integrated CPFE–PCE framework for efficient uncertainty quantification of texture-dependent plasticity in 316L stainless steel” [Mech. Mater. 219 (2026) 105725]
