Relevant Coursework: Heat Transfer, Controls, Fluid Mechanics, Thermodynamics, Dynamics, Material Science, Mechanics of Materials, Calculus I-III, Physics I-II

• Designed and built battery-powered dual-flywheel launcher with programmable launch angle, topspin/backspin control, and verified 60-100 ft range
• Modeled in SolidWorks: aluminum extrusion frame, 3D-printed clamped wheel hubs, and linkage translating actuator travel into launch-angle tilt
• Designed KiCad schematic; 12V LiFePO4 with fused distribution, motor drivers, and live battery monitoring
• Developed ESP32 firmware (C++) with BLE-controlled phone app for motor control, angle targeting, auto-sweep, and limit-switch homing

• Developed and showcased a functional arcade basketball game, managing a budget ($200) and deadlines
• Designed the backboard and various obstacles in AutoCAD and manufactured them using laser cutting
• Independently wrote all code in Arduino IDE to implement score tracking, difficulty selection, win/lose conditions, and dynamic LCD displays for different game states
• Effectively collaborated in a team of four to organize tasks and troubleshoot design challenges

• Fully designed and manufactured an automatic tennis ball launcher, adhering to a strict budget of $300, incorporating multiple mechanical systems for feeding, launching, and transportation
• Engineered and fabricated custom components, including ball guiding ramps and plates, using AutoCAD and Fusion 360 for design, and laser cutting and 3D printing for manufacturing
• Assembled a ball feeding and launching system on a precision-cut wooden frame and integrated mechanical fixtures and adjustable speed controllers to propel tennis balls up to 50 feet with variable spin and speed

• Developed a fluid pump stand through successive rounds of 3D-printed prototypes; the final design was manufactured out of house in 316 stainless steel and now ships to customers as a production accessory
• Authored an illustrated assembly manual shipped with the separator cart, enabling customers to assemble it without engineering support
• Modeled exploded-view drawings with sourced BOMs for cable assemblies and accessory kits, letting engineers reorder components directly and speeding packing and procurement
• Designed a test panel integrating four pumps in parallel with tube fittings, check valves, and a flow meter to validate our separator at its 3000 mL/min maximum rated flow rate