Student Spotlight: Arturo Valentino Whipple (Class of 2028)
Arturo Valentino Whipple, an Optical Sciences and Engineering major from Arizona and a member of the Class of 2028, is already making his mark in research. With interests spanning quantum mechanics, topological acoustics, and applied engineering, Whipple’s academic journey reflects curiosity and a willingness to step into complex spaces.
His interest in science began early, sparked by a book, Einstein’s Moon, that introduced him to the strange and fascinating world of quantum physics. That sense of wonder only grew once he arrived at the University of Arizona Wyant College of Optical Sciences. Whipple felt a pull toward the field, inspired not only by the science but by the environment itself. “I knew it was the college for me,” he recalls. His introduction to undergraduate research came through what he calls a “happy chance.” While exploring the Grand Challenges and Research Building during his first semester, he happened upon a stakeholder meeting for the New Frontiers of Sound Science and Technology Center. The topic, quantum analogue acoustic computers, sparked immediate interest and quickly drew him into the emerging field of topological acoustics.
Through New Frontiers of Sound Science and Technology Center, Whipple earned a research placement at the Georgia Institute of Technology, becoming one of only 22 undergraduates selected nationwide, and the only participant from Arizona. Working under Distinguished Professors Dr. Mike Leamy and Dr. Derrick Hylton, Whipple immersed himself in topological acoustics while also experiencing a new pace of life outside the desert. From collaborative maker spaces to cutting‑edge engineering facilities, Georgia Tech expanded his perspective on both research culture and community. “It was out of this world,” he says.
As part of his research, Whipple developed technical skills well beyond the classroom. He learned to write code, analyze data, use CAD software, and design and troubleshoot 3D‑printed components. Just as importantly, he gained experience in documentation, fabrication, and delivering results within demanding research environments. He is currently contributing to a manuscript under peer review and has played a key role in developing a modular teaching model to explain complex phenomena in topological physics. The model, designed to help researchers better understand concepts such as bulk‑boundary correspondence and time‑reversal symmetry, reflects Whipple’s interest in making advanced science more accessible and testable.
Looking forward, Whipple is eager to explore neutrino physics and continue developing digital, laser, and acoustic systems for information processing. His goal is simple but ambitious: to understand energy at its most fundamental level, whether carried by photons or phonons. He credits the culture at Wyant OSC, along with programs like the Tri‑University Quantum Camp, for shaping his experience. Just as impactful, he notes, are the everyday moments of connection: open office doors, welcoming conversations, and a sense of camaraderie that makes the rigor of optics feel collaborative rather than isolating. For students hoping to follow a similar path, Whipple says,
“Detach yourself from the embarrassment of seeming stupid and start asking scientists questions.” He emphasizes that curiosity, persistence, and a willingness to learn are often more important than prior expertise.
“Find a place where people say hello to you—and a place where you want to say hello back.”