Just before he was old enough to vote but after he'd begun a doctorate in computer science, Erik Demaine arrived in New York City for the annual OrigamiUSA convention. He'd recently taken an interest in the hobby because he thought the math behind it might make for a compelling dissertation topic. Walking the aisles of the convention, Demaine saw the usual paper artistry—delicate insects, puffed-up bunnies—but he also learned of more elaborate forms, such as a three-car model locomotive crafted from a single sheet of paper. That train, like many intricate works of origami, sprang from a basic folding pattern called the box pleat.
Developed in the mid-1960s, the box pleat is a grid of vertical and horizontal creases combined with some well-placed diagonals. A Swiss physicist named Emmanuel Mooser popularized the pattern when he used it to create what's now known as Mooser's Train, one of the great achievements in origami. At the convention, Demaine began to wonder whether the box pleat could be used to make even bigger, more complex designs. Could it fold into a Mooser's Passenger Jet, a Mooser's Rocket Ship, or a Mooser's Full-Size Nuclear Submarine?
In 2001, at the age of 20, Demaine joined the faculty of MIT, as a professor of computer science. He was the youngest professor ever hired by the university. In 2003, he won a MacArthur genius grant. By then, he'd set aside the box pleat in favor of other work on folding. But a few years later Mooser's Train came rumbling back into his mind. He'd begun collaborating with another MacArthur fellow, the roboticist and computer scientist Daniela Rus, to design "programmable matter." They wanted to create a sheet made from interlocking panels that could turn into any object, from a sofa bed to a computer, with the push of a button. To do so, they would need a simple folding template that was versatile enough to handle many different forms. Demaine started with the box pleat.
Working with a pair of students and his father, Marty, a technical instructor and artist-in-residence at MIT, Demaine proved mathematically that the box pleat had no limits. A single sheet of paper, were it big enough, could fold into more than a model train. It could become pretty much anything in the universe. Building on that work, Demaine, Rus, and a collaborator at Harvard applied the pattern to a set of panels made of glass fiber and polymer resin and made a robot that could fold from a boat shape into a plane shape. If this technology could be scaled, a similar design with smaller panels could one day morph into an e-book reader or a smartphone or any other design downloaded from the Web.
For many scientists, the work in programmable materials could become the centerpiece for a long and fascinating career, but for Demaine it occupies only a small part of his research portfolio. His folding math has informed how auto manufacturers design safety airbags. He's sketched out how a Star Trek–style replicator might work using bits of DNA and RNA, collaborated with archaeologists to decipher a coded Incan language, and made paper sculptures with his father that now are part of the Museum of Modern Art's permanent collection in New York. His latest project could be described as computational glassblowing. By modeling how glass behaves under various conditions, he could help glassblowers refine their techniques and develop new designs.
At 31, Demaine has published nearly 300 papers and won numerous honors, including a Popular Science Brilliant Ten award in 2003. It would be easy to attribute his success to the mere fact of genius, but that would overlook the most important aspect of his work. Instead of concerning himself with applications or even defining a specialized area of research, Demaine chooses projects based purely on his curiosity, regardless of where they may lead. Where others seek answers, Demaine looks for questions. "I collect problems," he says. "The problems are the key to everything."
Perhaps in this genius youth being a nerd, the popular kids told him to go and get bent.
Of course this genius being wise said YES to himself and decided to make a productive future of bent things, lol.
I think this gentleman is AWESOME!
I first saw this guy in a documentary about origami called Between the Folds (available on Netflix). It's a good documentary, and this man is a great influence on the world. Kudos.
He should be in charge of educating the youth, imagine how he could change the world by starting with blank slates.
I hate that condescending looking smirk.
I so much appreciate and enjoy his smirk.
KUDOS TO HIM!
Frosttty, That's not a condescending smirk. Interesting that you think that but that's another matter entirely. He just doesn't like to have his photo taken.
So, being that it's Monday he gets to play...
Ok; we like the magnetic torus. We like ring magnets even though we can't figure out how to make a perfect one. What if we don't need a perfect one? In energy, that ring magnet gives us a potential core for fusion. So then why not mechanically build a core the same way a sun does it's fusion?
Suspend a small common neo ring magnet above a descending spiral configuration magnet array. Wee! It spins! Locality established, engine on. Bear with me. While that ring may not be perfectly polarized, it will be if it works. Put a glass of water in there, so that the ring magnet is suspended in water. Freeze. Remove ice from glass, trim off the excess incredibly dangerous material you've created. Crush between two plasma pinches. The magnet will receive it's charge at pretty much .9 C or better? All the oxygen atoms in the water molecules were already aligned in their spiral towards the core, where they'll drag those two side by side hydrogen atoms in behind them, correct? And that's where the electron pairing starts, as it breaks loose that oxygen. It's already partially photonically aligned as well, and there are plenty enough photons in the ice next to that magnet. When the crush comes it breaks everything around that core potential and releases heat, but not before that neo magnet. When it breaks it should implode. One instant in time and space. Breaking the strong force, electrons hit, re-exited photons hit, and creating the potential to fuse those two first H atoms?
What I like about this one is that it breaks down all forces in sequence, and states dictate the energetic reaction from the lowest back up. It uses nothing extra. It requires nothing other than the natural process as it exists in nature. I've considered that we may have to jam some photon streams in there. I've considered that we might have to remove the magnet from the ice because it is an impure quantity in our mix, which is fine. Doesn't change anything, because once the ice has formed, the magnet has done it's job already. Remove the ice, and when those two plasma pinches become a circuit, it's as if they are a stamped magnetic circuit in the physical world. Particle positioning and vectoring are extant, but not in a system that has to bow to Coulomb because we create a system that depends on it working, just in reverse.
Nah, leave the magnet, passively connect negative across ice, and start pulling juice at the time the magnet shatters. Means a positive pair of plasma pinches. Ya. That's the ticket.