Materials Science & Engineering student at Clemson University with hands-on experience in 3D printing optimization, rocket systems, and NASA mission hardware development.
My name is Keller Hawkins, and I'm studying Materials Science & Engineering with a Chemistry Minor at Clemson University. I chose this field because I want to understand how things work, from atoms bonding to the materials we build with every day to the stars colliding around us.
I've worked on projects ranging from additive manufacturing optimization to lunar EVA tool carriers to electric skateboards. I enjoy getting lost in the rabbit hole of any project and become obsessed with perfecting the details, often spending weeks on improvements others might consider finished.
When I couldn't find housing, I built my own place and wired it myself. When the makerspace needed a sign-in system, I taught myself some python and built a custom RFID solution. When I couldn't get parking on campus, I built an electric all-terrain mountainboard. I've always been creative in how I approach problems, from taking apart Legos at age 8 to building computers by 13.
My bigger goal is working on things that have real impact. Whether through materials research, aerospace, health, technology, or discoveries we haven't made yet, I want my work to change lives and be useful to the world.
Advanced 3D printing, CNC milling, laser cutting operations
Rocket engineering, space tool design, NASA competition projects
Material characterization, research methodologies, property analysis
Reinforcement learning, materials optimization algorithms
Leading operations in advanced manufacturing technologies including 3D printing, laser cutting, and CNC milling while managing events and equipment for thousands of users.
Designed and developed a Lunar EVA tool carrier for astronaut operations, earning the prestigious NASA Artemis 1 Innovation Award for exceptional engineering.
Design and fabrication team member for 10,000 feet category competition rockets at Spaceport America. Focus on precision engineering for target altitude accuracy and dual-deployment recovery systems.
Collaborative research building on established thermal metamaterial inverse design work. Compared PPO vs DQN algorithms - PPO achieved 100% success vs DQN's 25%, providing critical guidance for scaling metamaterial optimization frameworks.
Satellite constellation concept for real-time global fire monitoring developed for the NASA Space Apps Challenge 2025. Features advanced SWIR imaging to detect fires through smoke and darkness with unprecedented accuracy.
International collaboration with NASA Wallops and Andøya Space Norway for ionospheric plasma measurements. Designed active and passive antenna systems for plasma data collection from 250km to 90km altitude.