🇺🇸 Miles Wu

The Miura-ori fold is one of the quiet celebrities of engineering. Invented by a Japanese astrophysicist, it is the geometric pattern that lets a large flat sheet pack into a small block and then unfold in a single smooth motion — which is why versions of it have flown on solar arrays in space. Most people meet it as a party trick with a map. Miles Wu, a 14-year-old from New York City, met it as an unanswered engineering question: which version of the fold is strongest?

Nobody had given him the answer, so he built it. Wu systematically tested 54 variations of the Miura-ori pattern, varying panel size and fold angle, and load-tested his structures with dumbbells — a home-laboratory method with the unglamorous honesty of real experimental work. The pattern that emerged was clean: designs with smaller panels and steeper angles were not just stronger, they were remarkably resilient, supporting more than 9,000 times their own weight before failing.

That number deserves a pause. A material that holds nine thousand times its own weight inverts the usual logic of construction, where strength is bought with mass. Wu's folded structures are almost all air and geometry. His stated goal is to apply the insight to strong, lightweight shelters that can be rapidly deployed in areas hit by natural disasters — structures that ship flat like the map and stand up like the building.

In October 2025 the Society for Science named Wu the top winner of the Thermo Fisher Scientific Junior Innovators Challenge, awarding him the $25,000 ASCEND Award — the competition's highest honor, given not only for the project but for leadership and collaboration across a week of team challenges with the other 29 finalists.

The Junior Innovators Challenge occupies a specific rung in the ladder of American science talent: it is where the Society for Science — the same organization that runs the Regeneron Science Talent Search for high-school seniors and ISEF for the world — identifies its future stars at middle-school age. Winning it at 14 places Wu on a conveyor that has historically fed straight into the biggest research prizes a teenager can win.

What distinguishes Wu's project from typical middle-school fare is its experimental discipline. Fifty-four variations is not a demonstration; it is a parameter sweep, the way a materials laboratory would attack the problem. The insight — smaller panels, steeper angles — is a design rule others can now use, which is the difference between a science project and a contribution.

There is also a humility built into the work that engineers tend to respect: the materials were cheap, the test rig was dumbbells, and the intelligence was entirely in the geometry. In an age of expensive instruments, Wu's win is a reminder that the oldest tools in science — variation, measurement, patience — are still the ones that decide competitions.

Wu has said he hopes the designs can one day shelter people displaced by hurricanes, earthquakes and floods. Whether or not that specific application matures, the trajectory is set: a 14-year-old who thinks in parameter sweeps and load curves does not usually stop at one fold.

The competition's structure makes the win harder than the headline suggests. The Junior Innovators Challenge draws thousands of entrants from science fairs across the country; three hundred are honored, thirty become finalists, and the finalists then compete in person — not only presenting their own research but collaborating in team STEM challenges judged for creativity and leadership. The ASCEND Award, the $25,000 top prize Wu took home, is explicitly given for the whole profile: the science, the communication and the ability to work with strangers under pressure. It is closer to an astronaut selection than a poster session, which is exactly why its winners tend to reappear at the top of the high-school competitions a few years later.

Origami engineering itself is having a serious decade, and Wu's project sits squarely inside a real research current. Folding principles derived from Miura-ori now appear in satellite solar arrays, stent designs, airbag packing and architectural facades — anywhere engineers need something large to become briefly small. The unsolved practical question is always the same: which fold geometry gives the best strength for the least material? Professional groups attack it with simulation software and grant funding. Wu attacked it with cardstock, dumbbells and a spreadsheet, and arrived at a defensible design rule. The convergence between his bedroom result and an active field of academic research is the strongest evidence that the judges rewarded substance.

The humanitarian framing gives the work its direction of travel. Disaster shelters are a notoriously unglamorous engineering problem — they must be cheap, light, shippable in bulk, and erectable by exhausted people without tools — and most existing solutions fail at least one of those tests. A fold-based structure that stores flat and deploys in one motion attacks the whole list simultaneously. Whether Wu's specific designs reach the field or simply feed the next iteration of his own work, a fourteen-year-old has already done the essential first act of an engineering career: he found a real problem, quantified his way to an answer, and let the data overrule aesthetics.