Can you use the intermediate value theorem on this fucker?
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Antw0n
Remember me?
OH SHIT! IT'S ALGEBRA!
RED ALERT!! RED ALERT!!
EVERYBODY INTO THE ESCAPE PODS!!!
RED ALERT!! RED ALERT!!
EVERYBODY INTO THE ESCAPE PODS!!!
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Harmonian wrote...
f(x) = x^2 - 4x - 21f(x) = (x-7)(x+3)
...............................
.............................
That's all i'm gonna do
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[size=25]DUMB PIECE OF SHIT GOODDAY!
YOU COULDN'T!
LAST TIME I TAKE YOUR ADVICE ON ANYTHING!
FUCKER![/h]
YOU COULDN'T!
LAST TIME I TAKE YOUR ADVICE ON ANYTHING!
FUCKER![/h]
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Harmonian wrote...
[size=25]DUMB PIECE OF SHIT GOODDAY!YOU COULDN'T!
LAST TIME I TAKE YOUR ADVICE ON ANYTHING!
FUCKER![/h]
YOUR THE GUY ASKING AN ALGEBRA QUESTION ON A HENTAI WEBSITE
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[size=25]DAMMIT YOU AREN'T ALL PATHETICALLY RETARDED!
I GOT IMPATIENT!
GRAWAWHAWAH!
ZAK, GET ME THOSE DOUJINS![/h]
I GOT IMPATIENT!
GRAWAWHAWAH!
ZAK, GET ME THOSE DOUJINS![/h]
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Suppose that I is an interval [a, b] in the real numbers R and that f : I → R is a continuous function. Then the image set f(I) is also an interval, and either it contains [f(a), f(b)], or it contains [f(b), f(a)]; that is,
f(I) ⊇ [f(a), f(b)], or f(I) ⊇ [f(b), f(a)].
It is frequently stated in the following equivalent form: Suppose that f : [a, b] → R is continuous and that u is a real number satisfying f(a) < u <f> u > f(b). Then for some c ∈ [a, b], f(c) = u.
This captures an intuitive property of continuous functions: given f continuous on [1, 2], if f(1) = 3 and f(2) = 5 then f must take the value 4 somewhere between 1 and 2. It represents the idea that the graph of a continuous function on a closed interval can only be drawn without lifting your pencil from the paper.
The theorem depends on (and is actually equivalent to) the completeness of the real numbers. It is false for the rational numbers Q. For example, the function f(x) = x2 − 2 for x ∈ Q satisfies f(0) = −2 and f(2) = 2. However there is no rational number x such that f(x) = 0, because if so, then √2 would be rational.
Source: http://en.wikipedia.org/wiki/Intermediate_value_theorem
Oh Wikipedia. You so sexy
f(I) ⊇ [f(a), f(b)], or f(I) ⊇ [f(b), f(a)].
It is frequently stated in the following equivalent form: Suppose that f : [a, b] → R is continuous and that u is a real number satisfying f(a) < u <f> u > f(b). Then for some c ∈ [a, b], f(c) = u.
This captures an intuitive property of continuous functions: given f continuous on [1, 2], if f(1) = 3 and f(2) = 5 then f must take the value 4 somewhere between 1 and 2. It represents the idea that the graph of a continuous function on a closed interval can only be drawn without lifting your pencil from the paper.
The theorem depends on (and is actually equivalent to) the completeness of the real numbers. It is false for the rational numbers Q. For example, the function f(x) = x2 − 2 for x ∈ Q satisfies f(0) = −2 and f(2) = 2. However there is no rational number x such that f(x) = 0, because if so, then √2 would be rational.
Source: http://en.wikipedia.org/wiki/Intermediate_value_theorem
Oh Wikipedia. You so sexy
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deftera_mirage wrote...
Only equation that made sense.
Not unless they're in the kitchen or in the bedroom naked and bent over
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GoodDay wrote...
deftera_mirage wrote...
Only equation that made sense.
Not unless they're in the kitchen or in the bedroom naked and bent over
But where are you gonna find women like that in this day and age?
