Never-Repeating Tiles Can Safeguard Quantum Information
The Quanta Podcast
Quanta Magazine
4.7 • 640 Ratings
🗓️ 7 August 2024
⏱️ 18 minutes
🧾️ Download transcript
Summary
Two researchers have proved that Penrose tilings, famous patterns that never repeat, are mathematically equivalent to a kind of quantum error correction. Read more at QuantaMagazine.org. Music is “Quasi Motion” by Kevin MacLeod.
Transcript
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| 0:00.0 | Welcome to the quantum science podcast. |
| 0:07.0 | Each episode we bring you stories about developments in science and mathematics. |
| 0:11.0 | I'm Susan Vallett. |
| 0:13.0 | Two researchers have proved that penrose tilinges, famous patterns that never repeat, |
| 0:19.0 | are mathematically equivalent to a kind of quantum error correction. |
| 0:23.4 | That's next. |
| 0:28.6 | It's season three of the joy of why, and I still have a lot of questions. |
| 0:33.0 | Like, what is this thing we call time? |
| 0:35.8 | Why does altruism exist? |
| 0:37.4 | And where is Jan 11? I'm here. Astrophysicist and co-host. Ready for anything. That's right. I'm bringing in the A team. So brace yourselves. Get ready to learn. I'm Janelle Levin. I'm Steve Strogatz. And this is... Quantum Magazine's podcast, The Joy of Why. New episodes drop every other Thursday. |
| 1:02.4 | If you want to tile a bathroom floor, square tiles are the simplest option. |
| 1:07.6 | They fit together without any gaps in a grid pattern that can continue indefinitely. |
| 1:12.7 | That square grid has a property shared by many other tilings. Shift the whole grid over by a fixed |
| 1:19.4 | amount, and the resulting pattern is indistinguishable from the original. But to many mathematicians, |
| 1:26.3 | such periodic tilings are boring. |
| 1:28.3 | If you've seen one small patch, you've seen it all. |
| 1:31.3 | In the 1960s, mathematicians began to study |
| 1:35.3 | A periodic tile sets, with far richer behavior. |
| 1:39.3 | Perhaps the most famous is a pair of diamond-shaped tiles |
| 1:43.3 | discovered in the 1970s by the |
| 1:45.9 | polymathic physicist and future Nobel laureate, Roger Penrose. |
| 1:51.4 | Copies of these two tiles can form infinitely many different patterns that go on forever. |
... |
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