The devices used in one of the most famous student experiments of the year were paper and gym equipment. Miles Wu, 14, from New York City, spent his project folding the same origami pattern over and over again (54 systematic variations of it) and then crushing his own handiwork, loading dumbbells into each folded structure until it gave way and writing down the number. Last October, that pile of crumpled paper and weights earned him the $25,000 first prize in the Thermo Fisher Scientific Junior Innovators Challenge, the national competition for high schools organized by the Society for Science, the younger sister of the historic Science Talent Search. The Space Race Fold The pattern Miles chose was not decorative. Miura-ori is the most famous folding pattern in engineering: a tessellation of parallelograms, invented by Japanese astrophysicist Koryo Miura, which collapses a large sheet into a compact block and (his signature trick) unfolds in one smooth motion, opening from two corners. Japan took it to space in 1995 to deploy a solar panel; lives on in maps, satellite panels and stent designs. What made Miles’ project more scientific than artisanal was treating that famous fold as an unexplored parameter space. A Miura-ori is not a pattern but a family (panel size, fold angle, and number of rows can be adjusted) and the structural consequences of those choices are exactly the kind of thing that a child with patience, paper, and a weight bench can exhaustively map. This is how he mapped it: 54 variants, each one loaded with dumbbells to failure. What the crush revealed The data set produced a clean design law. Folds with smaller panels and steeper fold angles were not only stronger: they were remarkably resilient and maintained their integrity rather than suddenly failing. A tighter, sharper fold packs more load-bearing geometry into the same space (more walls per square inch, effectively) and the best of its configurations supported more than 9,000 times its own weight before collapsing. As for scale: a structure of that proportion, weighing as much as a sack of flour, could carry a car. And it started as a flat sheet. The application Miles has named is what geometry calls for: strong, lightweight shelters that ship flat and deploy quickly in disaster zones. Emergency shelter is a logistics problem before it is a housing problem (structures are needed by the thousands, immediately, at the end of broken supply chains) and a Miura-based building would fly like a dense stack and open like a map, its strength coming from the geometry of the folds rather than heavy frames. His plans for announcing the prize point exactly there, putting him in tune with a true research frontier: origami engineering is currently one of the busiest corners of structural design, from NASA solar panels to folding bridges. The shape of a proper experiment The method is worth dwelling on, because it is a miniature of how materials science really works. Miles didn’t invent the Miura pleat and it wasn’t necessary. He took a known structure, systematically varied it according to its natural parameters, tested each variant to destruction under identical conditions, and derived a generalizable rule (smaller panels, steeper angles, more strength) that someone could now apply at the shelter scale without repeating all 54 experiments. One variable at a time, failure as data, response as a design principle instead of a single artifact. Many graduate jobs follow a more flexible protocol. And the team list is the silent punchline to the story. The contest he won celebrates access to STEM and his project is proof of concept: no laboratory, no manufacturing budget, no instrument more specialized than the family dumbbells. The expensive part was the discipline: folding the same pattern 54 times with controlled precision and being willing to destroy each one of them. Origami masters have always said that the fold pattern is the real object; the paper is right where it lives. Miles Wu’s version of that idea now has numbers attached, a five-figure prize, and a possible future as a roof over someone’s worst week: Fold it neatly and a flat sheet will contain nine thousand of itself. About this articleThis article is for general information and reflection. It is not professional advice. For your specific situation, consult a qualified professional. Follow Space Daily on Google Add us as a preferred source for more Space Daily reporting on Google. Add as preferred source A personal measure of deep time See what has changed in the universe since you were born. Start with a date. Get a personal, detailed journey through everything that kept moving after you arrived. Six measurements obtained. No predictions. No astrology. Standards Space Daily articles are edited and fact-checked before publication. We use artificial intelligence tools in the newsroom. See our editorial standards and masthead.
