Chapter 2: Problem 14
Use the Rational Zero Theorem to list possible rational zeros for each polynomial function. $$P(x)=x^{5}-x^{4}-7 x^{3}+7 x^{2}-12 x-12$$
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Chapter 2: Problem 14
Use the Rational Zero Theorem to list possible rational zeros for each polynomial function. $$P(x)=x^{5}-x^{4}-7 x^{3}+7 x^{2}-12 x-12$$
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Simplify: \(\frac{x^{2}-9}{x^{2}-2 x-15}\)
Find the zeros of each polynomial function. If a zero is a multiple zero, state its multiplicity. $$P(x)=x^{3}+3 x^{2}-6 x-8$$
Find the \(x\) -intercepts of the graph of \(P(x)=6 x^{2}-x-2\) [1.5].
Find the zeros of each polynomial function. If a zero is a multiple zero, state its multiplicity. $$P(x)=3 x^{3}+11 x^{2}-6 x-8$$
DIVORCE RATE The divorce rate for a given year is defined as the number of divorces per thousand population. The polynomial function $$\begin{aligned} D(t)=& 0.00001807 t^{4}-0.001406 t^{3}+0.02884 t^{2} \\ &-0.003466 t+2.1148 \end{aligned}$$ approximates the U.S. divorce rate for the years 1960 \((t=0)\) to \(1999(t=39) .\) Use \(D(t)\) and a graphing utility to determine during what years the U.S. divorce rate attained a level of 5.0
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