Chapter 4: Problem 28
Use linear approximations to estimate the following quantities. Choose a value of a to produce a small error. $$1 / \sqrt{119}$$
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Chapter 4: Problem 28
Use linear approximations to estimate the following quantities. Choose a value of a to produce a small error. $$1 / \sqrt{119}$$
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Differentials Consider the following functions and express the relationship between a small change in \(x\) and the corresponding change in \(y\) in the form \(d y=f^{\prime}(x) d x\) $$f(x)=\sin ^{-1} x$$
Sketch the graph of a function that is continuous on \((-\infty, \infty)\) and satisfies the following sets of conditions. $$f(x)>f^{\prime}(x)>0 \text { for all } x ; f^{\prime \prime}(1)=0$$
The complexity of a computer algorithm is the number of operations or steps the algorithm needs to complete its task assuming there are \(n\) pieces of input (for example, the number of steps needed to put \(n\) numbers in ascending order). Four algorithms for doing the same task have complexities of A: \(n^{3 / 2},\) B: \(n \log _{2} n,\) C: \(n\left(\log _{2} n\right)^{2},\) and \(D: \sqrt{n} \log _{2} n .\) Rank the algorithms in order of increasing efficiency for large values of \(n\) Graph the complexities as they vary with \(n\) and comment on your observations.
Linear approximation a. Write an equation of the line that represents the linear approximation to the following functions at a. b. Graph the function and the linear approximation at a. c. Use the linear approximation to estimate the given quantity. d. Compute the percent error in your approximation. $$f(x)=\tan x ; a=0 ; \tan 3^{\circ}$$
Evaluate one of the limits l'Hôpital used in his own textbook in about 1700: \(\lim _{x \rightarrow a} \frac{\sqrt{2 a^{3} x-x^{4}}-a \sqrt[3]{a^{2} x}}{a-\sqrt[4]{a x^{3}}},\) where \(a\) is a real number.
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