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I am totally stuck if someone can help me find the center I can figure out the rest
is the center 0,0
http://tutorial.math.lamar.edu/Classes/Alg/Hyperbolas.aspx is a good link to help you!
I am just really confused because there is nothing on the bottom for a denominator
I'm not sure myself, but it looks like it's (1,2) for the center.
First divide the whole equation by 9... (x - 1)^2/(9) - (y - 2)^2 =1 now U know a=3 and b=1 So focus is (+-c,o) because it is on x-axis..... Can u do now ?
so the center is (1,3)
so this would make it the last picture right
If the center is (1,2) that is your only option!
Did you check out the link? http://tutorial.math.lamar.edu/Classes/Alg/Hyperbolas.aspx
centre would be (1,2) i think so
Well that's two of us. I say it's a good bet.
sometimes the pictures are just hard to go by
but we know that it is not (0,0) or (-1,2) so the last one is the best
When you look at formulas that have something like \[(x+h)\], you often want x to be modified only by addition or subtraction. If x is multiplied or divided by anything, get it out of the parenthesis! Anything multiplied or divided by \[(x+h)\]is then something that can really be expressed as just division if you want. By doing so, the equation you have will start to match up with the general formula for the shape of the curve.
We are sure it is (1,2) when we compare it to the general formula. The position of the center of any shape can be found when you see how all x's and all y's are modified with addition or subtraction. This seems to "shift" graphs.
You're welcome! :) Back to the "shifting", if you have y = (x), then y = (x+5) is looks to be shifted 5 up. Same with y = 9(x) seeming to shift 5 up when you look at y = 9(x+5).
When you look at \[(x-h)^2\], \[(x-h)\]is how you are modifying x. You are finding the difference between them with subtraction. Then that difference is squared, so only the difference between them matters, not at all whether x>h or x
Lastly, for your future typed-up math discussions, it helps to express "to the power of 2" as "^2". It's a very common notation used on the internet.