Chapter 4: Problem 7
Simplify each expression. $$\log \left(10^{y+1}\right)$$
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Chapter 4: Problem 7
Simplify each expression. $$\log \left(10^{y+1}\right)$$
These are the key concepts you need to understand to accurately answer the question.
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Solve each problem. Find the annual percentage rate compounded continuously to the nearest tenth of a percent for which \(\$ 10\) would grow to \(\$ 30\) for each of the following time periods. a. 5 years b. 10 years c. 20 years d. 40 years
Use the following definition. In chemistry, the \(\mathrm{pH}\) of a solution is defined to be $$\mathrm{pH}=-\log \left[H^{+}\right],$$ where \(H^{+}\) is the hydrogen ion concentration of the solution in moles per liter. Distilled water has a pH of approximately 7. A substance with a pH under 7 is called an acid, and one with a pH over 7 is called a base. Tomato juice has a hydrogen ion concentration of \(10^{-4.1}\) moles per liter. Find the \(\mathrm{pH}\) of tomato juice.
Solve each problem. When needed, use 365 days per year and 30 days per month. Periodic Compounding Melinda invests her \(\$ 80,000\) winnings from Publishers Clearing House at a \(9 \%\) annual percentage rate. Find the amount of the investment at the end of 20 years and the amount of interest earned during the 20 years if the interest is compounded a. annually b. quarterly c. monthly d. daily.
Solve each equation. Find the exact solutions. $$3^{x+1}=7$$
Calculators that perform exponential regression often use \(y=a \cdot b^{x}\) as the exponential growth model instead of \(y=a \cdot e^{c x} .\) For what value of \(c\) is \(a \cdot b^{x}=a \cdot e^{c x} ?\) If a calculator gives \(y=500(1.036)^{x}\) for a growth model, then what is the continuous growth rate to the nearest hundredth of a percent?
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