precalc part two @shadow
@dude
well at least post it
How would you graph -2x^2(x-3)^3(x+2)^2
by graphing it duh
Jokes, it would help to find the roots of the equation
(x-intercepts)
zero, 3, -2 bounce on zero and neg two
\(\color{#0cbb34}{\text{Originally Posted by}}\) @dude by graphing it duh \(\color{#0cbb34}{\text{End of Quote}}\) ._.
Good, you're still missing the root for -2x^2 though
zero?
Ya
\(\color{#0cbb34}{\text{Originally Posted by}}\) @lowkey zero, 3, -2 bounce on zero and neg two \(\color{#0cbb34}{\text{End of Quote}}\) Z E R O
|dw:1545360248953:dw| LMOAOOOOAOO
How would you find the end behaviors?
Usually to have end behaviors your equation has to be some sort of funky (rational functions for example) In this case, they would go on forever
Alright, thanks dude <3
End behaviors for polynomial functions: You can see from the graph that the function approaches infinity (function is growing large positive without bound) as \(x \to -\infty\) and the function approaches negative infinity (function is growing large negative without bound) as \(x \to \infty\) For a more general algebraic sense, we see that \(y=-2x^2(x-3)^3(x+2)^2\) is an odd polynomial function as the multiplicities of the roots (exponents on the roots) sum to an odd number (\(2 + 3 + 2 = 7\)); the end behavior therefore goes in different directions. The negative coefficient indicates the following end behavior: As \(x \to -\infty\), \(y \to \infty\) and as \(x \to \infty\), \(y \to -\infty\). (For \(y = mx+b\) with negative slope, it also follows this end-behavior description.)
Hello smartie would you like fifty dollars to cheat off my trig tests pls and ty
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