Chapter 4: Problem 1
Why is it important to determine the domain of \(f\) before graphing \(f ?\)
Chapter 4: Problem 1
Why is it important to determine the domain of \(f\) before graphing \(f ?\)
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Get started for freeGiven the following acceleration functions of an object moving along a line, find the position function with the given initial velocity and position. $$a(t)=3 \sin 2 t ; v(0)=1, s(0)=10$$
Graph several functions that satisfy the following differential equations. Then find and graph the particular function that satisfies the given initial condition. $$f^{\prime}(x)=3 x^{2}-1 ; f(1)=2$$
Residuals and errors Approximate the root of \(f(x)=x^{10}\) at \(x=0\) using Newton's method with an initial approximation of \(x_{0}=0.5 .\) Make a table showing the first 10 approximations, the error in these approximations (which is \(\left|x_{n}-0\right|=\left|x_{n}\right|\) ), and the residual of these approximations (which is \(f\left(x_{n}\right)\) ). Comment on the relative size of the errors and the residuals and give an explanation.
Interpreting the derivative The graph of \(f^{\prime}\) on the interval [-3,2] is shown in the figure. a. On what interval(s) is \(f\) increasing? Decreasing? b. Find the critical points of \(f .\) Which critical points correspond to local maxima? Local minima? Neither? c. At what point(s) does \(f\) have an inflection point? d. On what interval(s) is \(f\) concave up? Concave down? e. Sketch the graph of \(f^{\prime \prime}\) f. Sketch one possible graph of \(f\)
a. For what values of \(b>0\) does \(b^{x}\) grow faster than \(e^{x}\) as \(x \rightarrow \infty ?\) b. Compare the growth rates of \(e^{x}\) and \(e^{a x}\) as \(x \rightarrow \infty,\) for \(a>0\)
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