Chapter 9: Problem 37
Sketch the graph of the function. Label the intercepts, relative extrema, points of inflection, and asymptotes. Then state the domain of the function. \(y=\frac{2 x}{x^{2}-1}\)
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Chapter 9: Problem 37
Sketch the graph of the function. Label the intercepts, relative extrema, points of inflection, and asymptotes. Then state the domain of the function. \(y=\frac{2 x}{x^{2}-1}\)
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Use a graphing utility to graph the function. Choose a window that allows all relative extrema and points of inflection to be identified on the graph. \(y=x^{-1 / 3}\)
Use a graphing utility to graph the function. Choose a window that allows all relative extrema and points of inflection to be identified on the graph. \(y=(1-x)^{2 / 3}\)
The cost and revenue functions for a product are \(C=34.5 x+15,000\) and \(R=69.9 x\) (a) Find the average profit function \(\bar{P}=(R-C) / x\). (b) Find the average profits when \(x\) is \(1000,10,000\), and 100,000 (c) What is the limit of the average profit function as \(x\) approaches infinity? Explain your reasoning.
The concentration \(C\) (in milligrams per milliliter) of a drug in a patient's bloodstream \(t\) hours after injection into muscle tissue is modeled by $$ C=\frac{3 t}{27+t^{3}} $$ Use differentials to approximate the change in the concentration when \(t\) changes from \(t=1\) to \(t=1.5\).
Create a function whose graph has the given characteristics. (There are many correct answers.) Vertical asymptote: \(x=5\) Horizontal asymptote: \(y=0\)
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