3 ms·
> I've always wondered what it would look like [...] if the primes were mapped on to some crazy topological shape? This is easy: consider the spectrum of the
by q-big 4y ago
> I've always wondered what it would look like [...] if the primes were mapped on to some crazy topological shape?
This is easy: consider the spectrum of the ring Z, Spec Z (by definition, the spectrum of a commutative ring consists of its prime ideals; all prime ideals of Z (with the exception of the zero ideal) are generated by the prime numbers; in this sense, we can identify all elements of Spec Z (with the exception of the zero ideal, which is "just another point" of Spec Z) with the prime numbers if we desire).
On Spec Z, we can define a topology, the Zariski topology, by defining
V(I) := {P \in Spec Z | I \subseteq P},
where I is an ideal of Z, as the closed sets of the Zariski topology.
See
* https://en.wikipedia.org/w/index.php?title=Zariski_topology&oldid=1091588561#Spectrum_of_a_ring https://en.wikipedia.org/w/index.php?title=Zariski_topology&...
* https://en.wikipedia.org/w/index.php?title=Spectrum_of_a_ring&oldid=1076963164#Zariski_topology https://en.wikipedia.org/w/index.php?title=Spectrum_of_a_rin...
for details.
- voldacar 4y agoI'm not sure that this answers the parent's question. The Zariski topology is unusual, and in "some crazy topological shape" I think the parent is looking for a way to map the primes onto a smooth manifold in some finite dimensional space in a way that elucidates some kind of hidden structure.