Selected engineering simulation work across FEA, CFD, and electromagnetics— delivered for startups, academia, and industry teams. Each project emphasizes measurable outcomes: reliability, performance, and reduced redesign risk.
Modal + harmonic response workflow to capture resonance amplification and estimate fatigue life under cyclic loading. Sweep 0–500 Hz via mode superposition.
Full 3D FEA to evaluate deformation and membrane stresses (hoop/longitudinal), von Mises stress, and safety factor under internal pressure loading.
Flagship mmWave design platform showcasing beam control, simulation-verified performance, and manufacturability for high-frequency sensing systems.
Multi-domain workflow connecting electrical behavior to thermal outcomes. Helps optimize efficiency, reliability, and manufacturability—power delivery through complete system cooling.
Designed and optimized antenna systems with packaging constraints, impedance matching, and far-field validation for robust connectivity.
Structural validation with design recommendations for thermal stress mitigation, vibration damping, reinforcement, and buckling prevention.
Deployment simulation and stress evaluation with design inputs for durability, flexibility, contact pressure, and fatigue reliability.
Electrical sizing plus thermal modeling to quantify heat generation, temperature distribution, and optimize cooling concepts to reduce thermal risk.
Nanostructure-driven light trapping and resonance enhancement with insights toward higher absorption and scalable low-cost fabrication strategies.
Designed and simulated a metal nanostructure array to improve sensitivity via enhanced light–matter interaction and tunable resonance behavior.
Structural and dynamic assessment with targeted recommendations to reduce stress concentrations, improve stiffness, and increase operating stability.
Thermal interface materials, airflow improvements, placement optimization, and thermal via tuning to improve heat spreading and reduce peak temperatures.
Stability and fatigue improvement recommendations including material evaluation, reinforcement, and mitigation of vortex-induced vibration (VIV).
Thermal-expansion buckling mitigation via geometry tuning, expansion joints, rail material selection, and fastening/support optimization.
Plasmonic material selection, waveguide geometry optimization, mode engineering, and loss mitigation for stronger resonance and coupling efficiency.
Load-case evaluation to identify stress concentrations and support improved treatment strategy insights, injury prevention, and device-design considerations.