Elsayed Saber Elsayed Ibrahiem Elsayed, M. Sc.

Photo of Elsayed Saber Elsayed Ibrahiem Elsayed Photo of Elsayed Saber Elsayed Ibrahiem Elsayed
Elsayed Saber Elsayed Ibrahiem Elsayed, M. Sc.
Address
Appelstraße 9a
30167 Hannover
Building
Room
126
Photo of Elsayed Saber Elsayed Ibrahiem Elsayed Photo of Elsayed Saber Elsayed Ibrahiem Elsayed
Elsayed Saber Elsayed Ibrahiem Elsayed, M. Sc.
Address
Appelstraße 9a
30167 Hannover
Building
Room
126

Research project

  • Physics-based machine learning for computational fracture mechanics
    In this project, we plan to develop a physics-based machine learning framework that embeds core physical principles directly into the neural network architecture. Using a feedforward neural network designed to satisfy governing equations and thermodynamic constraints, the framework will integrate mechanics, constitutive behavior, and energy balance at the architectural level. Synthetic data generated from finite element–based phase-field fracture simulations will be used to train the model, initially focusing on homogeneous one-dimensional responses for both brittle and ductile materials. Special emphasis will be placed on learning the evolution of elastic energy, dissipated work, and fracture characteristics in a way that preserves physical interpretability and consistency, addressing key limitations of classical ML approaches that rely purely on data and lack embedded physical guarantees. [...]
    Led by: Prof. Dr.-Ing. Fadi Aldakheel, Dr.-Ing. Abedulgader Baktheer
    Team: Elsayed Saber Elsayed
    Year: 2023
  • Fadi Aldakheel, Elsayed S Elsayed, Yousef Heider, Oliver Weeger (2025): Physics-based machine learning for computational fracture mechanicsMach. Learn. Comput. Sci. Eng 1, 18 More info
    DOI: https://doi.org/10.1007/s44379-025-00019-x
  • Alexandros Tragoudas, Marta Alloisio, Elsayed S Elsayed, T Christian Gasser, Fadi Aldakheel (2024): An enhanced deep learning approach for vascular wall fracture analysisArchive of Applied Mechanics, Pages 1-14 More info
    DOI: https://doi.org/10.1007/s00419-024-02589-3
  • Julien Philipp Stöcker, Elsayed Saber Elsayed, Fadi Aldakheel, Michael Kaliske (2023): FE‐NN: Efficient‐scale transition for heterogeneous microstructures using neural networksPAMM, e202300011 More info
  • Fadi Aldakheel, Elsayed S Elsayed, Tarek I Zohdi, Peter Wriggers (2023): Efficient multiscale modeling of heterogeneous materials using deep neural networksSpringer Berlin Heidelberg, Computational Mechanics, Vol. 72, 155-171 More info
  • Fadi Aldakheel, Celal Soyarslan, Hari Subramani Palanisamy, Elsayed Saber Elsayed (2023): Machine learning aided multiscale magnetostaticsSciencedirect, Mechanics of Materials, Vol. 184, 104726 More info