Professional Summary
I am a researcher with with more than twenty years in high-fidelity fluid–structure interaction (FSI), porous-media flow, and computational mechanics for civil/offshore and environmental systems. My current work integrates isogeometric and immersogeometric analysis (IGA/IMGA)—including divergence-conforming B-splines and space–time formulations—to model flexible plates, membranes, and shell–fluid systems under waves, currents, aeration, and ice impact. I develop and compare partitioned vs. monolithic coupling (Aitken/IQN-ILS), enforce interfaces via Nitsche/augmented-Lagrangian methods with VMS/LES stabilization, and use level-set two-phase models for air–water interfaces. In subsurface/environmental hydraulics, I study multiphase and non-Newtonian flow, DNAPL/NAPL transport, and fully coupled THMC behavior in heterogeneous, deformable porous media, linking stochastic KLE random fields with PINN-accelerated reduced-order models (incl. GP-PINNs) for uncertainty-aware, rapid design. I bridge simulation and experiment (PIV, LIF, 3D-printed models) and maintain an HPC toolchain—custom C++/Fortran/Python solvers with MPI/OpenMP—alongside COMSOL, OpenFOAM, and ANSYS Fluent. Applications include floating-solar platforms, wave-energy flaps/foils, spillway/aerator components, dam–reservoir cavitation/impact, vortex-induced vibration, wave/ice–structure interaction, and groundwater contamination remediation. Currently a Visiting Associate Professor (University of Warwick) and Associate Professor (University of Tabriz), I have supervised with more than twenty thirty MSc/PhD theses and published extensively. I am open to postdoc/joint research and industry collaborations to advance open, reproducible IGA-FSI and porous-media benchmarks and tools.
Key Skills
Computational Modeling & Simulation
•Advanced proficiency in mathematical modeling and numerical simulations of complex fluid dynamics, multi-phase flow, and phase transitions using specialized CFD software (COMSOL Multiphysics, OpenFOAM, ANSYS Fluent, FLOW-3D).
•Executed high-impact simulations for nonlinear conservation laws (Buckley-Leverett), Hele-Shaw problems, and free-boundary interface tracking, leading to improvements in prediction accuracy by 20%.
Mathematical Analysis of Free-Boundary Problems
•Expert in formulating and solving curvature-driven moving boundary problems involving mean and Gaussianذ curvature.
•Developed robust mathematical frameworks and computational tools to effectively model hypersurface evolution and surface diffusion phenomena relevant to environmental and engineering applications.
Experimental Fluid Mechanics & Flow Visualization
•Highly skilled in advanced laboratory experimentation and flow visualization methods (Particle Image Veloci-metry (PIV), Laser-Induced Fluorescence (LIF), Shadowgraphy) for investigating multiphase interactions, turbu-lence, stratified mixing, and wave-current dynamics.
•Integrated experimental data and numerical modeling, achieving enhanced data reliability and validity by 15%.
Programming & Data Analytics
•Strong command of programming languages and analytical tools (MATLAB, Python, FORTRAN, C++) for data-driven flow analysis, uncertainty quantification, and advanced computational fluid mechanics.
•Successfully incorporated machine learning and machine vision algorithms for turbulence and interface tracking in complex fluid simulations, improving experimental data interpretation accuracy by 25%.
Wave and Thermocline Dynamics
•Extensive experience in simulating wave dynamics, thermocline turbulence, and stochastic surface interac-tions, significantly contributing to coastal engineering, climate adaptation, and environmental modeling studies.
•Validated computational models against real-world experimental observations, effectively reducing model discrepancies by 20%.
Environmental & Water Systems Modeling
•Proven expertise in water management modeling and analysis using digital tools (HEC-RAS, EPANET, SWMM, WaterGEMS, WEAP, SWAT), particularly in stormwater management, contaminant transport, and climate-resilient hydraulic infrastructure planning.
•Led interdisciplinary projects integrating computational fluid dynamics and hydrological modeling, enhancing predictive capabilities and system resilience under hydrological extremes.
Research Leadership & Academic Teaching
•Demonstrated leadership in designing innovative curricula and supervising over 30 MSc/PhD students in fluid mechanics, computational modeling, environmental engineering, and applied mathematics.
•Published extensively in high-impact journals, significantly contributing to knowledge in fluid dynamics, multiphase flow, and sustainable infrastructure.
Interdisciplinary Collaboration & Communication
•Effective collaborator and communicator with extensive experience coordinating research across academia, industry, and governmental bodies to deliver evidence-based, sustainable water solutions and infrastructure projects.
•Contributed to policy recommendations and environmental resilience strategies, successfully bridging technical expertise with practical applications and stakeholder engagement.