Fremont, California, United States
I'm a mechanical engineer with a passion for robotics, automation, and product design. I love tackling complex challenges and turning ideas into practical solutions that make a difference. With experience in control systems, CAD, and product development, I’ve worked on everything from optimizing product designs to creating innovative robotics projects. Currently finishing my M.S. in Mechanical Engineering at Stanford, I am seeking full-time opportunities to apply my skills and knowledge toward advancing technology and driving meaningful impact in engineering and design.
· Designed synthetic E. coli to detect and treat P. aeruginosa infections, overcoming previous genetic circuit limitations. Engineered the genetic design of programmed microbes to detect pathogens, maintain stability, and weaken harmful effects. Utilized control theory principles to analyze stability, performance, and robustness properties of the genetic system · Trained in wet lab techniques, including agar plate preparation and full cloning experiments, encompassing DNA design and construction, bacterial transformation, and measurement
• Conducted market research and statistical analysis of 500+ user reviews and competitive products to inform data-driven design specifications for a new mini air conditioner • Designed and modeled components in SolidWorks, optimized blade and vent designs to improve cooling efficiency, reduce noise, and lower costs. Researched and specified materials, motors, and batteries, drafting detailed specifications • Collaborated with vendors and manufacturers, refining the design through multiple iterations focused on aesthetics, functionality, and production efficiency
• Designed a 2D spine-like bio-inspired tensegrity robot, aimed at adaptive undulation across various surface conditions • Conducted shape design incorporating parameter variations, followed by static analysis to determine equilibrium forces, stiffness analysis for deformation modes, and dynamics analysis to formulate motion • Investigated nonlinear control and central pattern generators, enabling future applications in robotics and biomechanics
• Coordinated and led two weekly lab sections of 25 students each, guiding them through circuit experiments for the "Introduction to Electrical Engineering" course • Mentored students in an embedded controlled car project employing TI-RSLK MAX assembled with MSP432 Launchpad. Collaborated on calibration, data collection, and PID control code implementation, ultimately achieving precise line tracking by the car.
• Investigated innovative approaches to calculate mean radiant temperature • Constructed a prototype cooling structure with phase change materials and analyzed temperature and radiation data to inform future improvements • Created a portable thermometer with data storage capabilities using Arduino Uno, thermistor, and LCD displays
• Troubleshot and maintained laboratory automation integration system and devices. Implemented dye testing for Hamilton Liquid Handler to ensure reliability. Organized and modified SOPs for streamlined workflow and compliance • Designed and prototyped a robot gripper teach plate with an aperture structure that can be centered on stacker, reducing teaching time by 75%. Established various mechanical projects tailored to scientists’ needs with 3D printer • Developed a dual-function log inspection program featuring real-time error reporting via chatbot and a comprehensive log management and analytics system. Competent in scripts for Hamilton Liquid Handler and Green Button Go Scheduler