SeeMore: The Kinetic Sculpture That Makes Supercomputing Visible

At the International Maker Faire in New York City, a father and daughter stand hand-in-hand before a towering sculpture. The 10-foot-tall structure pulses with coordinated movements and synchronized light, powered by 256 Raspberry Pi computers. The little girl studies the swirling patterns, tugging shyly on her father’s arm before whispering a discovery into his ear.

“Daddy,” she says, “those are computers… and they’re all working together.”

For Dr. Kirk Cameron, a professor of computer science at Virginia Tech and the creator of the installation, that simple observation carried more weight than any paper or keynote could. “That was it. In one pure moment of recognition, a six-year-old had understood the essence of parallel computing: many systems, working as one, to solve what no single machine could accomplish alone. That just hit me right in the heart,” he told us in a recent interview. “That was exactly what they were doing, working together to solve a task too big for one computer alone. For that child to see that and understand it? That was incredibly moving.”

Cameron recalls, “It was exactly what I’d hoped for, to make something as abstract as distributed computing not just understandable, but wondrous. I’ve always wanted to explain what I do in a way my mom could understand. Everyone wants their mom to be proud.”

Why Art for Systems

SeeMore at the International Maker Faire.

High performance computing has always been about scale, speed, and complexity, but rarely about beauty. Unlike galaxy simulations, digital twins, or fluid dynamics, systems research lacks a visual flair. “Parallel computing actually has a beauty to it that is hidden from view,” Cameron explains. “The challenge was to find a way to bring that beauty into the world.” For Cameron, that lack of visibility carries consequences. Without inspiration—without a “wow” moment—students may never pursue systems research. The spark that draws the next generation of scientists, creators, and dreamers could flicker out.

SeeMore was Cameron’s answer.

The challenge was to find a way to bring that beauty into the world.

— Dr. Kirk Cameron

Meet SeeMore, the Kinetic Canvas of Computing

Dr. Cameron’s inspiration came from an unexpected source: the Raspberry Pi. Designed to be so affordable a kid could mow a few lawns and buy one, the Pi ignited a global wave of tinkering. To Cameron, it was the perfect medium: approachable, playful, yet powerful enough to reveal the principles of distributed computing.

He partnered with Sam Blanchard from Virginia Tech’s School of Visual Arts, and together they set out to create something as monumental as the systems it represented. The result: SeeMore, named in homage to supercomputing pioneer Seymour Cray.

“I thought this should be big,” Cameron explains. “Big iron is called ‘big iron’ for a reason. These systems are huge. So I wanted something that would show scale, something like 256 nodes.”

The final design was just that. An imposing, ten-foot-tall by nine-foot-wide cylindrical structure with 256 Raspberry Pi computers that, controlled by servo motors, can move independently. “We programmed it to demonstrate Sweep3D, but we also implemented MapReduce, which is the core of how Google Search works,” Cameron explains. For its first major exhibition in New York City, the team perfected a 90-second demonstration that demonstrated MapReduce’s “map” phase with individual nodes lighting up across the cylinder, followed by the “reduce” phase as results were aggregated.

SeeMore is not just a sculpture. It’s a performance, a kinetic canvas where computation becomes visible, tangible, and alive.

One Sculpture, Infinite Lessons 

What makes SeeMore extraordinary is its ability to meet audiences wherever they are.

That six-year-old grasped the fundamentals of parallel cooperation. Older visitors often comment that they had no idea Google Search relied on what they’re seeing unfold. Technical audiences ask different questions entirely. “They want to know what stack it’s using, whether Linux is involved, and what the MPI setup is,” Cameron laughs. 

But for him, the magic lies in the moments of pure wonder. “We bring this to the masses, but you’re really looking to inspire those few,” he says. “We all have a story about what inspired us when we were young, something we saw that sparked our curiosity. I like to think that maybe this will be one of those stories.” 

This idea has kept him tinkering with new ideas, including Lacy, a 30-node installation that visualized Bitcoin mining through Windows tablets, robotic styluses, and interactive play. Next, he envisions an artwork that reveals how large language models (LLMs) generate text, with each Raspberry Pi offering a possible “next word” before converging on meaning.

“It’s still early and funding is always challenging,” Cameron admits, “but I’d love to build it.”

SeeMore build crew in front of the sculpture’s bare frame (Raspberry Pis not yet mounted). Dr. Kirk Cameron (fourth from left) and sculptor Sam Blanchard (fifth from left) stand center with the student team who helped bring the kinetic supercomputing artwork to life.

We all have a story about what inspired us when we were young, something we saw that sparked our curiosity. I like to think that maybe this will be one of those stories.

— Dr. Kirk Cameron

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