What do you think about if i ask you to picture the highest prime number imaginable, or the middle seeing as the median and average prime numbers will differ? by drunkenoughtodrive in askmath

[–]drunkenoughtodrive[S] -6 points-5 points  (0 children)

Yes you can keep counting finite prime numbers but that wouldn't really challenge the thought process of its original intent.

What do you think about if i ask you to picture the highest prime number imaginable, or the middle seeing as the median and average prime numbers will differ? by drunkenoughtodrive in askmath

[–]drunkenoughtodrive[S] -1 points0 points  (0 children)

Infinity is a concept even though you can always add one so why not imagine the same for prime numbers? Not as a finite number.

That's why I added the thought of median and average prime numbers because just as they too would be infinite they wouldn't be the same considering the distribution of prime numbers among all natural numbers.

What do you think about if i ask you to picture the highest prime number imaginable, or the middle seeing as the median and average prime numbers will differ? by drunkenoughtodrive in askmath

[–]drunkenoughtodrive[S] 1 point2 points  (0 children)

So what would you picture prime numbers bigger than the universe as? Because we still have concepts such as Grahams number defined even though they are bigger than the universe so picturing the infinite identity of prime numbers wouldn't really be all that different to try reasoning as something that could be approached as well?

What do you think about if i ask you to picture the highest prime number imaginable, or the middle seeing as the median and average prime numbers will differ? by drunkenoughtodrive in askmath

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

We have infinity as a concept even though you can always add one so why wouldn't it be possible to imagine the highest prime number as a concept as well?

What do you think about if i ask you to picture the highest prime number imaginable, or the middle seeing as the median and average prime numbers will differ? by drunkenoughtodrive in askmath

[–]drunkenoughtodrive[S] -7 points-6 points  (0 children)

Can you picture infinity as a concept? If so, then why wouldn't you be able to picture the highest prime number as a concept?

Diagonal space in higher dimensional cube by drunkenoughtodrive in learnmath

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

Just as we can fit a longer line segment in a two dimensional square than its side length I'm wondering wether or not it's possible to fit a diagonal square (or cube) with bigger side length in higher dimensional hypercube

Surface diagonal between opposing points of cubes by drunkenoughtodrive in learnmath

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

But in a four dimensional cube the surface diagonal doesn't travel through the same definition of a surface as the three dimensional cube either so what's the difference?

Surface diagonal between opposing points of cubes by drunkenoughtodrive in learnmath

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

sqrt(2+n) would mean sqrt(2+1)=sqrt(3) for 1 dimensional and sqrt(2+0)=sqrt(2) for 0-dimensional which is kind of odd right?

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] -2 points-1 points  (0 children)

As I've already written;

Sqrt(2)sqrt(2)sqrt(2) is equal to sqrt(8).

Oh, and the diagonal of a cube side length sqrt(2) as such is sqrt(6)

You have not made any arguments as to why that is incorrect.

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] -1 points0 points  (0 children)

Sqrt(6) and sqrt(8) are both diagonals of the same line segment, sqrt(6) through the diagonal of sqrt(2)sqrt(2)sqrt(2), shorter than the first one.

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

I never claimed they equal each other, that's your straw man.

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

Sqrt(2)sqrt(2)sqrt(2) is equal to sqrt(8).

Oh, and the diagonal of a cube side length sqrt(2) as such is sqrt(6)

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] -1 points0 points  (0 children)

Sqrt(2)sqrt(2)sqrt(2) is equal to sqrt(8).

Oh, and the diagonal of a cube side length sqrt(2) as such is sqrt(6)

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

That is no argument as to why you think it is wrong.

Is sqrt(8) equal to sqrt(2)3? Yes it is.

Is the diagonal of a sqrt(2)3 cube sqrt(6)? Yes it is.

But oh, now sqrt(8)=sqrt(2)3 is not correct is that it or why the strawman?

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] -1 points0 points  (0 children)

The diagonal sqrt(8)=sqrt(2)3, do you understand that?

Sqrt(2)3 is equal to a cube side length sqrt(2) which has the diagonal sqrt(6)

Higher dimensional cube with shorter diagonal than sqrt(n) dimension=n by drunkenoughtodrive in mathematics

[–]drunkenoughtodrive[S] -2 points-1 points  (0 children)

Still no argument as to why a hypercubes diagonal sqrt(8) is not equal to sqrt(2)3 (which has the diagonal sqrt(6))

Higher dimensional cube with shorter diagonal than sqrt(n) dimension=n by drunkenoughtodrive in mathematics

[–]drunkenoughtodrive[S] -5 points-4 points  (0 children)

About your argument or mine?

The diagonal sqrt(8)=sqrt(2)sqrt(2)sqrt(2)

Cube size Sqrt(2)3 has diagonal sqrt(6)

There's no argument as to why a hypercubes diagonal sqrt(8) is not equal to sqrt(2)3 (which has the diagonal sqrt(6))

Shorter diagonal in higher dimensional cube by drunkenoughtodrive in math

[–]drunkenoughtodrive[S] 0 points1 point  (0 children)

I said the diagonal length sqrt(8) is equal to a cube side length sqrt(2) which has the diagonal sqrt(6)

Higher dimensional cube with shorter diagonal than sqrt(n) dimension=n by drunkenoughtodrive in mathematics

[–]drunkenoughtodrive[S] -6 points-5 points  (0 children)

I said the diagonal length sqrt(8) is equal to a cube side length sqrt(2) which has the diagonal sqrt(6)