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  • Mathematical and computational modeling of metallic biomaterials biodegradation
  • Abstract
  • 1 General introduction
  • 2 Aims and objectives
  • 3 Developing the core computational model
  • 4 Extending the model: adding fluid flow and convection
  • 5 Extending the model: simulating local pH evolution
  • 6 Computational modeling of the neotissue growth process
  • 7 Model parallelization for high-performance computing
  • 8 BioDeg simulation software
  • 9 Bayesian parameter estimation of the computational models
  • 10 Model applications: patient-specific porous acetabular implants
  • 11 Model applications: mechanical integrity of infilled structures
  • 12 Model applications: mechanical loosening of mandibular plates
  • 13 Conclusion
  • Bibliography
  • Appendix
  • A Mesh quality plots

Mathematical and computational modeling of metallic biomaterials biodegradation

Mathematical and computational modeling of metallic biomaterials biodegradation

Author: Mojtaba Barzegari
Supervisor: Prof. Liesbet Geris

KU Leuven, June 2023

  • Abstract
  • 1 General introduction
  • 2 Aims and objectives
  • 3 Developing the core computational model
  • 4 Extending the model: adding fluid flow and convection
  • 5 Extending the model: simulating local pH evolution
  • 6 Computational modeling of the neotissue growth process
  • 7 Model parallelization for high-performance computing
  • 8 BioDeg simulation software
  • 9 Bayesian parameter estimation of the computational models
  • 10 Model applications: patient-specific porous acetabular implants
  • 11 Model applications: mechanical integrity of infilled structures
  • 12 Model applications: mechanical loosening of mandibular plates
  • 13 Conclusion
  • Bibliography
  • A Mesh quality plots