Re:Every odd number greater than five is the sum of three pr...
by arethuza on Tuesday May 14, 2013 @07:15AM
(#5704099)
Really? I thought it was fascinating and spent a few minutes running through some examples... Quite a sensawunda moment.
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Re:Every odd number greater than five is the sum of three pr...
by pattern on Tuesday May 14, 2013 @10:22AM
(#5705017)
> A sense of wonder (sometimes jocularly or cynically
> abbreviated to 'sensawunda') is an emotional reaction
> to the reader suddenly confronting, understanding, or
> seeing a concept anew in the context of new
> information. [1]
I was unfamiliar with this concept! I can surely relate to the feeling though, especially in the context of seeing the beauty of a solution to a problem, maths or otherwise.
Re:Every odd number greater than five is the sum of three pr...
by rdl on Tuesday May 14, 2013 @07:23AM
(#5704137)
My only real interest in number theory is applied number theory; i.e. the basis of many schemes of asymmetric cryptography.
Re:Every odd number greater than five is the sum of three pr...
by phillmv on Tuesday May 14, 2013 @09:24AM
(#5704638)
Well… the weak Goldbach conjecture has been known for a couple hundred years and my understanding is it's one of those things we've suspected was true but just never found a solid way to prove that it was so.
This is a neat result, but no one's surprised, per se.
Re:Every odd number greater than five is the sum of three pr...
by jokoon on Tuesday May 14, 2013 @09:39AM
(#5704717)
Being able to prove can also bring new pieces of mathematics.
Re:Every odd number greater than five is the sum of three pr...
by rdl on Tuesday May 14, 2013 @09:49AM
(#5704771)
I mostly just meant "any results in the space at all" might change things, and really can only change things for the worse (if you have deployed cryptosystems).
Re:Every odd number greater than five is the sum of three pr...
by cantos on Tuesday May 14, 2013 @11:50AM
(#5705688)
There are 2 mostly distinct branches of number theory additive and multiplicative. Integer factorization is related to multiplicative number theory, but not really additive (as far as is known). This is a result in additive number theory so you shouldn't be any more concerned than say if a major problem in graph theory or differential equations was solved.
The fact that the security of a cryptosystem can only degrade over time is what I find so interesting about them. You can't just plug in a cryptosystem and forget about it. If you want real security you will regularly have to make changes.