End of story. If you do write down 1 in your calculations, it's because the difference is so small it doesn't matter (same reason why we round numbers).
End of story. If you do write down 1 in your calculations, it's because the difference is so small it doesn't matter (same reason why we round numbers).
0.33~ = 1/3 => That is mathematical fact. What could it possibly be "approaching?" Here is one of many proofs:
c = 0.999~
10c = 9.999~
10c - c = 9.9999~ - 0.999~
9c = 9
c = 1
Hard to argue with that. Whether you want to believe it or not, this is accepted by all mathematicians. If you still don't want to believe me, I will show you the convergence of the infinite geometric series when I get home later today.
The natural constant e is the amount in billions of dollars that google was valued at when it floated on the NYSE. It is also the base of natural logarithms. See wiki.
0.33~ = 1/3 => That is mathematical fact. What could it possibly be "approaching?" Here is one of many proofs:
c = 0.999~
10c = 9.999~
10c - c = 9.9999~ - 0.999~
9c = 9
c = 1
Hard to argue with that. Whether you want to believe it or not, this is accepted by all mathematicians. If you still don't want to believe me, I will show you the convergence of the infinite geometric series when I get home later today.
Correct me if I'm wrong, but I don't see how you can subtract 2 numbers that have an infinite number of decimal places. To do a subtraction, you start at the last digit. eg. 7.89 - 3.45, you start with 9 - 5.
But with an infinite number of decimal places, there is no last digit.
I will be interested to see your convergence of an infinite geometric series.
0.33~ = 1/3 => That is mathematical fact. What could it possibly be "approaching?" Here is one of many proofs:
c = 0.999~
10c = 9.999~
10c - c = 9.9999~ - 0.999~
9c = 9
c = 1
Hard to argue with that. Whether you want to believe it or not, this is accepted by all mathematicians. If you still don't want to believe me, I will show you the convergence of the infinite geometric series when I get home later today.
It is not hard to argue with because it is not mathematically correct.
Your first & last statement say that C = 0.999~ and also that C =1 implying that 1 = 0.999~ which is NOT true.
It is true however that Lim (n->inf) {0.999~} = 1 where n is number of repeating 9's. So your statements as they stand are NOT correct and the convergence of the geometric series is not the issue here technically. The geometric series convergence depends on the existence of its limit. You are showing no limits which is why it is wrong.
The natural constant e is the amount in billions of dollars that google was valued at when it floated on the NYSE. It is also the base of natural logarithms. See wiki.
I was intrigued by this so I did the maths to prove it. See attachment. What I forgot to write is that the first 3 terms in the last line are the first in the infinite series for e. The terms after 1/n go to 0 as n approaches infinity.
Yes, isnt that the point of the proof? Showing that .999~ = 1...
I don't think you understand. When I type 0.999~, it means that the 9s repeat to infinity.
Instead of me reinvinting the wheel, here is a page showing the convergence of an infinite geometric series proving that 0.999~ = 1