ive gone to a lot of the ones for undergrads bc that’s technically the program i’m in and the organizers like got mad at undergrads for going to the grad lectures
I don't understand the first step, if the numbers $1_1, \dots a_n$ are any numbers $a$ with the property discussed, then finding a bound on how many of them there can be proves nothing, and if they're supposed to represent all the possible numbers $a$, then it's wrong to write them in a list?
Ternate is the largest city in the Indonesian province of North Maluku and an island in the Maluku Islands. It was the capital of the former Sultanate of Ternate and de facto provincial capital of North Maluku before being moved to Sofifi in 2010. It is off the west coast of the larger island of Halmahera
I have three piano pieces I want to play in a row, like concatenation of the three, I don't know how to write its name, like, ternate (3 pieces) of piano?!
@Fuzzy: Assume you have $n$ of them for some integer $n$. You're going to prove that $n$ can't be very big. If you are convinced there are infinitely many, choose any $122$ of them. You'll then show that cannot happen unless $\epsilon$ is very small.
irreducible = every non-empty open subset is dense. Density is transitive so wlog assume affine. But in the affine case it's clear since irreducible components correspond to minimal primes
one idea is to cook up a vector field X for which you can construct a metric with X killing, but you have to work out how to deal with periodic trajectories or non-closed trajectories; you cannot eliminate them completely, or the manifold itself should be a product M' x R
@Ultradark the topic is the construction of Galois representations associated to modular forms and the necessary background for that (modular forms, algebraic geometry, étale cohomology)
it was quite interesting, the topic was enumerative geometry and Hilbert schemes
So if my set were to be infinite, the number of elements I can draw at a time should be arbitrary, but that can't be, especially for big values of epsilon, and that reflects the fact that if the discontinuities are finite, we can only make epsilon very large before none of the $a$'s satisfy the property anymore.
Oh, unrelated but all this talking about theses reminded me of it, I found a great source for Connes's reconstruction theorem if you're interested @Ryan