- #246
ram2048
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- 0
and Zurtex you're just a useless bandwagoner, i hope to god that i never unwittingly convince you, because i don't want you "on my side" ;D
(Here I've gone about believing that the decimal notation is simply a shorthand for sums of certain fractions, but now I know differently!)
Hurkyl said:Are you going to tell me that you're not talking about the standard system here either?
no I'm not going to tell you "that" because i have no idea what you're hinting at ... :P
"that's stupid, our system doesn't work like that, you're wrong"
Root(2) is making me angry. going to go buy a sci-calc later this week see if I'm getting the right numbers.
He's right, you know. Your arguments that the standard system is "wrong" are based entirely on how your system works
Windows calculator has a scientific mode!
ram2048 said:YOU PEOPLE are saying 9 = 10. in order for .999~ to be = to 1, there MUST exist a digit that is 10. since we're using base 10, a DIGIT of 10 cannot exist so that means you're wrong from the start.
Thanks, thought soHurkyl said:In the real numbers, 0^0 is left undefined becuase no matter how you tried to define it, exponentiation would be discontinuous there. (proof based on the fact 0^x = 0 but x^0 = 1 for all positive x)
It tends to be convenient to adopt the convention that 0^0 = 1 for some applications.
ram2048 if you accept line Z) you prove my system works for digits beyond infinity. you're also accepting infinity-infinity=0. QUOTE said:who said infinity - infnity can't be equal to 0 ? Did our system imply that?
ram2048 said:your system doesn't define a way for infinity - infinity to be 0. not that it couldn't be, just that it was never looked at.
ram2048 said:in THIS case you'd be accepting equal infinities to cancel out. thusly you'd be proving my point about the existence of the digit 9 in position f(n) n=infinity+1
ram2048 said:Matt why do you keep hounding me about the 9?
my system works perfectly. in fact i have used your accepted conventions to prove my system.
consider x=.999~ where x possesses infinite number of digits 9.
Z) 10x - x = 9.999~ - .999~ = 9 in your system.
see:
.999~ infinite 9's
9.999~ infinite 9's +1
this is PROVEN TRUE if you accept the statement claimed in line Z) as a consequence of that calculation.
the logical conclusion to that is that in position f(n) where n=infinty+1 there existed a digit 9. (which would be false because we defined .999~ to have exactly infinite 9's but whatever)
if you accept line Z) you prove my system works for digits beyond infinity. you're also accepting infinity-infinity=0.
and every time you say .999~ = 1 you're saying 9 = 10 since in the expression .999~ there only exists digits 9. to be equal to 1, one of those 9's MUST BE a 10 somewhere in that infinite number of 9's.
in base 10 you don't HAVE digits of 10. you have 0-9. so you're wrong to even assume there might be.
you are saying that infinity is "equal" to the "number" of digits after the decimal point in the expansion of .999..., so it is a cardinal, define the arithmetic of your cardinals then. (it can be done). for instance, take 0.99... and 0.88888... they have both an infinite number of digits, you "infinity", now i interleave them 0.989898... so i must have added the infinities together!, yet it must also be true that there are the same number digits, thus 2*infinity=infinity. so where's the arithemetic wrong there.
yet it must also be true that there are the same number digits
IF A implies B, it doesn't mean that B implies A, your logic is flawed because of this. So we wouldn't be proving anything about your nonsense.
ram2048 said:that's NOT what my system believes in, it's just my system's way of interpreting the actions of your system. If you have a better way of describing to me HOW an EXACTLY infinite number of digits 9 can be multiplied by 10 and another 9 is "created" to maintain the equality you're welcome to explain it to me.
Well first of all our infinite isn't a real number if you didn't understand that yet. Saying "exactly infinite" isn't proper concerning our infinite.
Tell me, if i have a never-ending supply of apples and I eat one will i still have a never-ending supply of apples?
ram2048 said:my infinity is NOT cardinal
my "default infinity" can be cardinal. it can be many things because it is a tool that i define at the onset of calculations and extrapolate meanings from that point onwards.
without definition "default infinity" has no meaning whatsoever.
well then explain your infinite apples "getting eaten" such that EXACTLY none are left in 999~ - .999~. By your accounting "a never ending supply of apples" should still be "a never ending supply of apples" regardless of eating "an infinite number of apples" from that amount.
so therefore:
.999~ - .999~ = .999~ (your logic)
it is clear that your infinity cannot handle such contradictions. i don't know why you cling to it so desperately.
ram2048 said:that's what .999~ means. infinite digits. meaning if i were to COUNT each digit as f(n) i would count to infinity (magnitude).
it's your number and your definition. is the number of digits NOT equal to infinity were they to be matched on a 1 to 1 basis?
if no then you would have to define exactly what ~ or ... or _ means in your statement.
and even supposing you DO define it, come back and explain to me how in a system where everything to the left of a number is greater than and everything to the right is less than, you have come up with a number to the right of another that is exactly equal to a number to the left.
Well first of all our infinite isn't a real number if you didn't understand that yet. Saying "exactly infinite" isn't proper concerning our infinite.
Tell me, if i have a never-ending supply of apples and I eat one will i still have a never-ending supply of apples?
hello3719 said:didn't your system say that infinity(d) - infinity(d) = 0 ?
it is always equal to 0 in your system isn't that right ?
then logically your other "infinities"(ridiculous) are built on infinity(d).