Chapter 3: Problem 1
Without using a calculator or computer, give a rough estimate of \(2^{83}\).
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Chapter 3: Problem 1
Without using a calculator or computer, give a rough estimate of \(2^{83}\).
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Explain why every function \(f\) with exponential growth can be represented by a formula of the form \(f(x)=c \cdot 2^{k x}\) for appropriate choices of c and \(k\).
Explain why $$ 10^{100}\left(\sqrt{10^{200}+1}-10^{100}\right) $$ is approximately equal to \(\frac{1}{2}\).
Evaluate the given quantities assuming that $$ \begin{array}{l} \log _{3} x=5.3 \text { and } \log _{3} y=2.1 \\ \log _{4} u=3.2 \text { and } \log _{4} v=1.3 \end{array} $$ $$ \log _{3} \frac{x}{3 y} $$
Find the smallest integer \(n\) such that \(7^{n}>10^{100}\).
The 1994 Northridge earthquake in Southern California, which killed several dozen people, had Richter magnitude \(6.7 .\) What would be the Richter magnitude of an earthquake that was 100 times more intense than the Northridge earthquake?
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