![]() |
Quote:
otherwise written as: sigma(9/10+9/10^2+9/10^3+...+9/10^n) approaches 1 as n approaches infinity |
I can't figure out why the hare can't catch the tortoise.
In my backyard I've given my turtle healthy head-starts and my rabbit consistently cleans it's clock in the 1/4 yard. |
Quote:
In the real world there are no absolute '1's. Due to nonspecific subatomic dispersion and galactic interstitial accumulation '1' always varies between .999999999 and 1.000000001 but is NEVER '1'. |
Quote:
However, since the universe has a non-infinite lifetime, No. |
Quote:
The hare, being saltorial, is able to leap over such intermediary paradoxes. How the hare would do against a metadox or even an orthodox is not known. |
Quote:
|
One is the loneliest number .......
|
how does 0.9999999 or 1.0000000000010 kick in the nads differ from 1 kick in the nads?
|
Quote:
|
that's what i figured.
|
Quote:
geez, every 5th grader knows that! ;) |
Quote:
|
Quote:
I'll report back if I got 0.99999 or 1.000001 kicks in the nads. |
Quote:
Ok then, if it's a limit then graphically, what we're talking about is a linear asymptotic function where the line you are approaching is "1", right? But by definition, your curve can never touch the line, thus you just proved that 0.9 repeating can never equal 1. :D |
Quote:
|
Quote:
but some infinities are bigger than others... |
Quote:
|
Quote:
|
Quote:
|
heh how about this
if we assumed 0.9(infinite) does equal 1 and 0.9(a gajillion) does NOT equal 1 does 0.9(infinity-1 digits) = 1? questionable does 0.9(infinity-gajillion digits) != 1? questionable does 0.9(infinity-infinity digits) != 1? ........what? heheh |
All times are GMT -8. The time now is 10:56 PM. |
Powered by vBulletin® Version 3.8.7
Copyright ©2000 - 2025, vBulletin Solutions, Inc.
Search Engine Optimization by vBSEO 3.6.0
Copyright 2025 Pelican Parts, LLC - Posts may be archived for display on the Pelican Parts Website