One to one function h is defined by h(x)=(3x-4)/(-2x+9). Find h^1, the inverse of h. Then give the domain and range of h^1 using interval notation. h(x)=(3x-4)/(-2x+9) Inverse: h^-1(x)= (9x+4)/(2x+4) Don't know how to do the domain and range. Think domain is (-infinity, 9) union (4, infinity) and range is (negative infinity, infinity). Been on this all day- can't find anything or anyone that makes sense... please help
Inverse: h^-1(x)= (9x+4)/(2x+4) Don't know how to do the domain and range. Think domain is (-infinity, 9) union (4, infinity) and range is (negative infinity, infinity). Been on this all day- can't find anything or anyone that makes sense... please help
domain of \(h\) is all real numbers except \(\frac{9}{2}\) where the denominator is zero
inverse is either a mistake or a typo it is \[h^{-1}(x)=\frac{9x+4}{2x+3}\]
domain of \(h^{-1}\) is all real numbers except \(-\frac{3}{2}\) which is not surprising , because the range of \(h\) is all real numbers except \(-\frac{3}{2}\)
It has to be in interval notation. That's my problem- it's an equations where it's one to one. I've inversed the original equation, but can't find out how to put it into interval form for the domain and range. I would name my first born satellite73 if you get this one ;)
original was h(x) = 3x-4 ______ -2x+9
interval notation for all real numbers except \(\frac{9}{2}\) is the silly looking \[(-\infty, \frac{9}{2})\cup (\frac{9}{2},\infty)\]
all you need to do for the domain is to set the denominator equal to zero and solve for \(x\) then say "all numbers but that one"
OMG you're my hero!
somehow you made a tiny mistake on the inverse, it is not what you wrote, it is the one i wrote above
and clearly \(\frac{3x-4}{-2x+9}\) cannot be \(-\frac{3}{2}\) if you look at it carefully you will see why
yes i did the 4 was supposed to be a 3 in the denominator And the range
domain of \(h\) is the range of \(h^{-1}\) and vice versa
gotta run, good luck
thank you!
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