Chapter 2: Problem 40
Find the zeros of each polynomial function. If a zero is a multiple zero, state its multiplicity. $$P(x)=3 x^{3}+11 x^{2}-6 x-8$$
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Chapter 2: Problem 40
Find the zeros of each polynomial function. If a zero is a multiple zero, state its multiplicity. $$P(x)=3 x^{3}+11 x^{2}-6 x-8$$
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Given \(f(x)=x-3\) and \(g(x)=x^{2}+3 x+9,\) find \((f g)(x)\) [1.7]
The property that the product of conjugates of the form \((a+b i)(a-b i)\) is equal to \(a^{2}+b^{2}\) can be used to factor the sum of two perfect squares over the set of complex numbers. For example, \(x^{2}+y^{2}=(x+y i)(x-y i) .\) In Exercises 71 to \(74,\) factor the binomial over the set of complex numbers. $$x^{2}+16$$
Use Descartes' Rule of Signs to state the number of possible positive and negative real zeros of each polynomial function. $$P(x)=x^{5}-32$$
Find a polynomial function of lowest degree with integer coefficients that has the given zeros. $$3,2 i,-2 i$$
Find a polynomial function of lowest degree with integer coefficients that has the given zeros. $$3+i, 3-i, 2+5 i, 2-5 i$$
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