MEMS accelerometer finite element analysis showing displacement under applied force
This gallery collects my CAD modeling and simulation work, developed through coursework at Johns Hopkins University and independent practice. From classical mechanisms like Geneva drives and rack-and-pinion systems to advanced multi-physics FEA of EV batteries and MEMS accelerometers, this collection demonstrates proficiency across the full spectrum of mechanical design and analysis tools.
The collection includes mechanism animations demonstrating kinematic understanding, from simple pulleys and gears to complex Geneva mechanisms and multi-body assemblies. The FEA work ranges from macro-scale EV battery pack crash and thermal simulations to micro-scale MEMS accelerometer characterization including modal analysis, harmonic response, and electrostatic heating effects.
Software Proficiency
All work was completed using industry-standard tools across multiple platforms.
Achieved market-comparable specifications for MEMS accelerometer design with multi-physics analysis including electrostatic heating effects and thermal-structural coupling.
Results
Key findings and demonstrated capabilities from this body of work.
FindingsKey findings
Demonstrated proficiency across 5 industry-standard CAD/FEA platforms
Completed multi-physics analyses spanning structural, thermal, and dynamic domains
Modeled mechanisms covering all major motion conversion types (rotary, linear, intermittent)
Achieved market-comparable specifications for MEMS accelerometer design
Validated EV battery pack for crash safety requirements exceeding industry standards