I am a trilingual student at Olin College of Engineering studying mechanical engineering and specializing in mechatronics and robotics. My background spans designing next-generation products at SharkNinja, scaling startup hardware as a founding engineering intern at YC-backed AutoPallet Robotics, and implementing factory automation at Kia. I co-authored a filed utility patent for agricultural drone swarms and led elite robotics teams to world championships.
Ongoing Role
Founding engineering intern at YC-backed AutoPallet Robotics, owning mechanical design and mechatronic prototyping.
Incoming Role
Incoming Product Design Intern in Advanced Development, driving mechanical architecture, prototyping, and testing for next-generation appliances.
Built automated robotic systems across factory operations, including a tire loading solution that improved safety and eliminated manual handling. Programmed robotic arms, PLCs, and 3D vision systems while maintaining equipment across multiple departments.
Developed and prototyped assistive technology for individuals with physical disabilities. Designed leg brace with innovative fastening system using CAD and hands-on machining.
Developed Python automation tools and web scraping solutions. Reduced weekly report preparation time by over 90% through automated systems.
Award-winning autonomous soil testing drone (Excellence in Drone Applications) in partnership with MIT. Designed 6" auger-based sampling mechanism. Utility patent filed.
Led team to three consecutive World Championship appearances, ranking in top 3% globally. Won multiple awards including Engineering Excellence and Competition Winner.
Designed and fabricated off-road competition vehicle. Promoted to Chassis Lead after demonstrating strong technical capabilities and leadership.
Robotic assistive feeding device combining computer vision, robotics, and embedded systems for individuals with limited upper body mobility. Affordable solution enabling independent feeding.
User-controlled electric wheelchair with enhanced stability and waterproof components for sandy terrain. Total cost under $1,500.
Arduino-based 3D scanner using pan-and-tilt servo mechanism and IR distance sensor to capture point cloud data. Features Python processing for real-time 3D visualization and coordinate transformations.
Autonomous robot with closed-loop PD control and real-time parameter tuning. Custom chassis design with 5-sensor array for sharp corner navigation. Features Python GUI for live tuning and achieved 100% success rate with 30-second lap times.
Low-cost prosthetic hand controlled by muscle signals. 3D printed design with Arduino-based electronics for under $50.
Dynamic sculpture combining mechanical engineering with artistic design. Features five nature-inspired elements (windmill, butterfly, flower, bunny, chick) powered by unified belt and pulley system with integrated CAMs and linkages.
Laser-cut plywood miniature barn featuring functional doors, decorative farm engravings, and architectural details. Demonstrates mastery of 5+ joint types and 4 fastening methods crafted from a single plywood sheet.