Chapter 4: Problem 39
Show that if \(t>0\), then \(1+t
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Chapter 4: Problem 39
Show that if \(t>0\), then \(1+t
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(a) Using a calculator, verify that $$ \log (1+t) \approx 0.434294 t $$ for some small numbers \(t\) (for example, try \(t=0.001\) and then smaller values of \(t\) ). (b) Explain why the approximation above follows from the approximation \(\ln (1+t) \approx t\)
Estimate the indicated value without using a calculator. $$ e^{0.00092} $$
Find the equation of the circle centered at the origin in the \(u v\) -plane that has twice the circumference of the circle whose equation equals $$ u^{2}+v^{2}=10 $$
Using a calculator, discover a formula for a good approximation for $$ \ln (2+t)-\ln 2 $$ for small values of \(t\) (for example, try \(t=0.04\), \(t=0.02, t=0.01,\) and then smaller values of \(t\) ). Then explain why your formula is indeed a good approximation.
Suppose a colony of bacteria has doubled in five hours. What is the approximate continuous growth rate of this colony of bacteria?
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