A Step Towards Proving the Riemann Hypothesis
arbitraryaardvark writes "A new mathematical object has been discovered by Bristol University student Ce Bian. The Riemann hypothesis, unproven since 1859, has to do with the distribution of primes and something called L-functions. Bian has demonstrated the first known third-degree transcendental L-function. This apparently opens up a new way to go about looking for proofs of the Riemann hypothesis. There is an unclaimed $1 million prize for a valid proof. We've discussed a couple of earlier attempts to claim the prize."
Regardless of the money,
Ce Bian and Andrew Booker (and their computer) should at least win SOME prize and may need to practice their Sweedish.....
- Minutus cantorum, minutus balorum, minutus carborata descendum pantorum.
A proof of the Riemann Hypothesis itself won't have any effect on the security of encryption (if it did, you could compromise the encryption by just assuming the hypothesis is true and your exploit would work in nearly all cases). The only concern is if the process of developing the proof leads to an insight about the nature of prime numbers that weakens encryption in some other manner, but this wouldn't be the result of the Riemann Hypothesis itself.
You do not really understand something unless you can explain it to your grandmother. -- A. Einstein.
Lucky for us, my grandma doesn't read slashdot. But in a long-ago life, I earned a minor degree in math and took much more math en route to a degree in physics (undergrad and grad... but nowhere near this Riemann space stuff). So, I am both curious and competent. And I regret to say you didn't do the best job explaining the topic.
Rather than just bitch... here's where I wish you'd explain more:
Thanks. Deconstructing this, I now have a (probably WRONG) sense for what you tried to say:
These guys did some computational/numerical work that doesn't really go THAT far to proving the Riemann Hypothesis. They found some 5-d examples that were really 5-d complex (not just stunts to extend 2d, 3d or 4d without the additional dimension of complexity), they did numerical work to find some 'native' 5d modes (insert a better definition of mode than 'a solution set that is like a stable solution or a standing wave or whatever'). So, we now have computationally-done 5d hints, but we're no closer to symbolically solving 5d equations. It's a bit of computational insight, but it isn't a pure proof.
Um, how did I do?