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And your enjoyment of The Big Bang Theory now becomes clear. <smile>maasman wrote:Ok, here's what I was thinking in calc the other day, if 2+2+2=2*3 and 2*2*2=2^3, what does 2^2^2=?, is there some higher function for this? From there, is there some sort of infinite higherarchy? And is this even a useful function?

Not quite what I was looking for, but I'll take it for nowArmy of GOD wrote:Yes, it's called the Army of GOD function.
2(hurrdurr)3=2^2^2

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I believe that already has its own thread and broke down into name calling and feces throwing.Neoteny wrote:The real question is whether .999... = 1
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Well at least I'm not a facehead.AgentSmith88 wrote:I believe that already has its own thread and broke down into name calling and feces throwing.Neoteny wrote:The real question is whether .999... = 1
king sam wrote: quit facebook stalking me... and Im a sailor all I do is drunk, cuss and make illegitimate kids when Im away from CC
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No. Addition and Multiplication are associative functions, which means the order you do them in doesn't matter (ie x+y+z= z+x+y= y+x+z etc) but "Raising to the power of..." (for want of a snappier title) is not associative and must be explicitly ordered with brackets for accuracy, so x^(y^z) is not always equal to (x^y)^z except in a very few certain cases. Thus there is no infinite hierarchy.maasman wrote:Ok, here's what I was thinking in calc the other day, if 2+2+2=2*3 and 2*2*2=2^3, what does 2^2^2=?, is there some higher function for this? From there, is there some sort of infinite higherarchy? And is this even a useful function?

I think you mean is there some simplifying term for this? Not off of the top of my head. Note that you can "cheat" to some extent because the log function effectively bumps math down one level 2^3 = e^(ln(2)*3) so the operation 2?3 could also be defined as e^(ln(2)^3) or even (he he) e^(e^(ln(2)*3))maasman wrote:Ok, here's what I was thinking in calc the other day, if 2+2+2=2*3 and 2*2*2=2^3, what does 2^2^2=?, is there some higher function for this? From there, is there some sort of infinite higherarchy? And is this even a useful function?

This is true but the idea is that we are dealing with iterative functions, the same number repeated again and again, so the "order" is implied.Lord+Master wrote:No. Addition and Multiplication are associative functions, which means the order you do them in doesn't matter (ie x+y+z= z+x+y= y+x+z etc) but "Raising to the power of..." (for want of a snappier title) is not associative and must be explicitly ordered with brackets for accuracy, so x^(y^z) is not always equal to (x^y)^z except in a very few certain cases. Thus there is no infinite hierarchy.maasman wrote:Ok, here's what I was thinking in calc the other day, if 2+2+2=2*3 and 2*2*2=2^3, what does 2^2^2=?, is there some higher function for this? From there, is there some sort of infinite higherarchy? And is this even a useful function?

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Actually, I believe we definitively proved it did in another thread.Neoteny wrote:The real question is whether .999... = 1
No, it's 4^2edocsil wrote:its 2^4 guys...... simplify.
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No.nippersean wrote:Does 3^3^3^3 = 3^(3*3)
Yes.or is that something different?
saxitoxin wrote:Your position is more complex than the federal tax code. As soon as I think I understand it, I find another index of cross-references, exceptions and amendments I have to apply.
Timminz wrote:Yo mama is so classless, she could be a Marxist utopia.
lolMeDeFe wrote:No, it's 4^2edocsil wrote:its 2^4 guys...... simplify.
While that's true, the rather obvious implication from the first post is that he's looking for terms of the formTrephining wrote:x^y^z is not well-defined.
It needs to be specified as either (x^y)^z OR x^(y^z)
3^3^3^3= 3^(3*3*3)MeDeFe wrote:No.nippersean wrote:Does 3^3^3^3 = 3^(3*3)
Yes.or is that something different?
Mathematics is inherently abhorrent of ambiguities so to state that the order is implied is simply not good enough! It's either stated clearly and obviously and unambiguously or... it's not proper mathstzor wrote:This is true but the idea is that we are dealing with iterative functions, the same number repeated again and again, so the "order" is implied.Lord+Master wrote:No. Addition and Multiplication are associative functions, which means the order you do them in doesn't matter (ie x+y+z= z+x+y= y+x+z etc) but "Raising to the power of..." (for want of a snappier title) is not associative and must be explicitly ordered with brackets for accuracy, so x^(y^z) is not always equal to (x^y)^z except in a very few certain cases. Thus there is no infinite hierarchy.maasman wrote:Ok, here's what I was thinking in calc the other day, if 2+2+2=2*3 and 2*2*2=2^3, what does 2^2^2=?, is there some higher function for this? From there, is there some sort of infinite higherarchy? And is this even a useful function?
Multiplication is repeated addition
Exponenation is repeated multiuplication
Maasmanation is repeated exponenation.

No, it's 16^1.MeDeFe wrote:No, it's 4^2edocsil wrote:its 2^4 guys...... simplify.
Thanks for the incite MDF, most helpful.MeDeFe wrote:No.nippersean wrote:Does 3^3^3^3 = 3^(3*3)
Yes.or is that something different?