After over 300 years, the issue of whether 0.999... = 1 remains unresolved![]()
And whether GR is self-consistent, and whether all matter is made of photons...
After over 300 years, the issue of whether 0.999... = 1 remains unresolved![]()
After over 300 years, the issue of whether 0.999... = 1 remains unresolved![]()
And whether GR is self-consistent, and whether all matter is made of photons...
I suppose you are joking?After over 300 years, the issue of whether 0.999... = 1 remains unresolved![]()
Of course. "0.999... = 1" incites fear and loathing among the members who've been around here a while and know what an infinite series is.I suppose you are joking?
Of course. "0.999... = 1" incites fear and loathing among the members who've been around here a while and know what an infinite series is.
Well if you tried to solve the exact equations for many physical systems then yes it would take well over 300 years for any individual or computer to solve. I mean if you wanted to solve the exact quantum mechanical properties of 1g of matter that would mean solving a differential equation (Schrodinger equation) with around 10^23 particles. And each of these particles has a pairwise interaction with every other particle.
Even if you could get a solution it would take an equally long time to interpret it. Considering that at the moment as far as I know for the best computational methods, the computing time is proportional to the number of particles and it has currently been done for a few hundred atoms thenn you can see 10^23 particles would take a long time.
The joys of google:
$$ B_m=\sum_{k=1}^{m+1}\sum_{v=1}^{k+1}(-1)^{v+1}\binom{k-1}{v-1}\frac{v^m}k $$
This is one of many. The most obvious formula comes from a "multiply-differentiate-limit" approach to the generating function.
but what would u type into weikipedia
so what is the actual equation?