About
I am a doctoral researcher with expertise in multi-scale topology optimization for hierarchical systems specifically, with a particular emphasis on applications in biomechanics. My work focuses on developing robust and efficient computational approaches to tackle complex challenges in the real world. I am dedicated to driving advancements in computational mechanics through innovative algorithms and methodologies, enabling more reliable and impactful engineering solutions. In Addition, I have worked on diverse projects involving uncertainty quantification, metamodeling and phase-field fracture modeling within computational mechanics.
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Publications (10)
- An uncertainty-aware robust design framework for fatigue crack growth simulation in lithium-ion batteries Save
- A unified fully-automatic patient-specific image to remodeling framework for bone diagnostic simulation Save
- Reliability analysis of structures by multiple sparse polynomial chaos expansion based adaptive metamodel Save
- A Unified Fully-Automatic Patient-Specific Image to Remodeling Framework for Bone Diagnostic Simulation Save
- EPTOniCS: An Efficient and Scalable Framework for Three-Dimensional Elastoplastic Topology Optimization using FEniCSx Save
- Large-Scale Phase-Field Fracture: An Adaptive Mesh Refinement Enhanced Sparse Polynomial Chaos Expansion Approach for Enhanced Fracture Prediction Save
- A multiscale optimization framework for bone remodelling: integrating material and structural adaptations across hierarchical scales Save
- UNCERTAINTY-AWARE SURROGATE-ACCELERATED CHEMO-MECHANICAL PHASE-FIELD FRACTURE MODELING OF FATIGUE CRACK GROWTH IN LITHIUM-ION BATTERIES Save
- An enhanced learning function for bootstrap polynomial chaos expansion-based enhanced active learning algorithm for reliability analysis of structure Save
- Sparse polynomial chaos expansion and adaptive mesh refinement for enhanced fracture prediction using phase-field method Save