Originally posted by: MadRat
Unfortunately .999... cannot be represented on the number line meaning then it doesn't exist.
OMG. Any value can be represented on the number line (until you go into complex numbers, and then it's a plane, but that's beside the point). Any single value you can think of. If you give me any number, I can put it in between two numbers on the number line.
Originally posted by: MadRat
At the same time if you accept that .999... does exist then there must be a difference between 1 and that number.
Why are you saying there's a difference if you don't even think 0.999... exists?
Originally posted by: MadRat
To say that they are the same is a copout because to define .999... as anything but 1 means a difference exists. By the definition of .999... it does not equal 1 and therefore there must be a difference bewteen them.
How is that a copout? Are 4/2 and 2 not equal? Following your logic, by writing 4/2 not as 2 means a difference exists. There must then be some difference right?
Originally posted by: MadRat
Since you claim that no difference exists (because you say that .999...=1) then it also means the .999... value also does not exist.
Okay, so if there's no difference between 4/2 and 2, then 4/2 must not exist?
Originally posted by: MadRat
If you take any number and times it by a product of two you'll end up with an even result.
That is so wrong it's not even funny. If you multiply any INTEGER by 2, you will get an even number. Are you saying 2*pi is even? How about 2 * 1/5?
Originally posted by: MadRat
You've only shown how to make .333... into 1/3 with hocus pocus of using a limit as the definition of the product to gain an even numbered product, which cannot happen.
So you're saying that 1 is even now are you?
Originally posted by: MadRat
You cannot add three equal values to define an even product because that product does not exist; every product of 3 will equal an odd numbered result.
2 + 2 + 2 = 6
6 is even. I added 3 equal values and got an even um... product (product is usually reserved for the result obtained from a multiplication operation).
So 6 doesn't exist now? You're taking apart the entire bloody number line now.
Oh, and every product of 3 will NOT always equal an odd numbered result. 3 * (any even number) will ALWAYS be even.
Originally posted by: MadRat
The answer lies before the limit, not at the limit. The limit lay outside your product by definition.
0.999... = lim(n->inf) [Sum (i = 1..n) 9/10^i]
No. 0.999... is defined as the limit.
Originally posted by: MadRat
Its the arrogance of this whole argument that the limit=product that is absurd.
No one is saying that the limit equals the sum.
S = Sum(i= 1..n) 9/10^i is always less than 1 for any finite n. This, however, is not what 0.999... represents.
Originally posted by: MadRat
If .999... can exist then a number can exist between 1 and it... If you insist that .999... does exist then you have to accept the difference between 1 and .999... is possible, too.
Again, you can find a difference between 4/2 and 2? Please, show me.
You are obviously having some serious issues with understanding some very basic principles (even and odd numbers for starters). I would suggest you think about what you're posting, and perhaps try proving some of these statments you're throwing out from left field (ie, the 3 times a number will always be odd statment).