ABOUT ME:
Hello! Thank you for visiting my website.
I am a Ph.D. mechanical engineer specializing in simulation, computational fluid dynamics (CFD), and multiphysics modeling. My work focuses on developing high-fidelity, physics-based simulation frameworks and scalable C++/MPI solvers in HPC environments to analyze complex phenomena, including fluid flow, heat transfer, thermal dynamics, and fluid–structure interaction (FSI).
With a strong foundation in computational and physics-based modeling, as well as algorithm development, I build efficient and robust end-to-end simulation tools. I am particularly interested in leveraging simulation not only to support engineering design—such as evaluating new products, optimizing performance, and exploring design trade-offs—but also to bridge physics-based modeling with data-driven approaches, enabling AI systems to better capture and understand real-world physical behaviors.
My experience includes working with tools such as ANSYS, COMSOL, Palabos, MATLAB, ParaView, and Python, with a focus on translating advanced numerical methods into practical, decision-oriented engineering solutions across multidisciplinary applications.
Outside of research, I am passionate about technology and lifelong learning. I enjoy building and experimenting with real-world systems, from personal servers and cloud storage solutions (e.g., Samba and NAS) to exploring AI tools that enhance productivity and problem-solving. This hands-on mindset has helped me expand beyond traditional engineering boundaries into software and system-level development.
I also value collaboration and knowledge sharing. I have contributed to the community as a workshop lecturer and peer reviewer in CFD-related fields, and I am always eager to learn, build, and contribute to solving meaningful engineering and technological challenges.
Modeling
ANSYS, COMSOL, Computational Fluid Dynamics (CFD), Finite Element Method (FEM), Fluid-Structure Interaction (FSI), FLUENT, Lattice Boltzmann Method (LBM), Palabos
Programming
Algorithm Development, C++, HTML, HPC, JAVA, Linux, Visual Studio, MATLAB, MPI, Python
Geometry Design and Processing
Adobe, AutoCAD, Blender, ImageJ, MeshLab, Paraview, SolidWorks
Laboratory
2D Laser Cutting, 3D Printing, Particle Image Velocimetry (PIV)
LBM FSI Modeling of Cuvierina Atlantica (Sea Butterfly) Propulsion Powered by MPI Parallel Computing
Experimental PIV techniques currently lack the resolution required to fully capture the hydrodynamics of the target organism. To address this, I employed fluid-structure interaction (FSI) modeling based on high-speed videos provided by Dr. Murphy's lab. This approach enables reconstruction of detailed flow fields around the swimming Cuvierina Atlantica, including comprehensive velocity distributions, vorticity structures visualized by Q-criterion, and force measurements on both wings and body. For more details, please explore by clicking Complete Projects button above!
Patient-Specific Aortic Flow Simulation with Windkessel-Coupled LBM
Cardiovascular health is vital to everyone, yet modern clinical imaging techniques often fall short in capturing the complex hemodynamics within the circulatory system. To address this gap, computational fluid dynamics (CFD) provides a powerful complementary tool, enabling detailed flow visualizations that can assist in clinical diagnosis. In this work, we demonstrate that with only four key patient-specific inputs — aortic geometry, inlet flow rate, systolic/diastolic blood pressure, and flow distribution ratio at outlets — we can simulate the full aortic hemodynamics with high fidelity. The resulting visualizations include velocity fields, wall shear stress distributions, and λ₂ vortex structures colored by velocity magnitude, offering rich insight into the patient’s cardiovascular flow behavior. For more details, please explore by clicking Complete Projects button above!