3. The yearly profits of a company is \( \$ 25,000 \). The profits have been decreasing by \( 6 \% \) per year. Write an exponential decay function to represent this \( \begin{array}{ll}\text { uation. } & \text { B. What will be the profits in } 8 \text { years? Round } \\ \text { answer to the nearest dollar. }\end{array} \)
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Mind Expander
To represent the yearly profits of the company that are decreasing by \(6\%\) per year, you can use the exponential decay function: \[ P(t) = 25000 \times (1 - 0.06)^t \] This simplifies to: \[ P(t) = 25000 \times (0.94)^t \] where \( P(t) \) is the profit in year \( t \). Now, to find the profits in 8 years, plug in \( t = 8 \): \[ P(8) = 25000 \times (0.94)^8 \approx 25000 \times 0.5935 \approx 14838.75 \] Rounding to the nearest dollar, the profits in 8 years will be approximately \( \$14,839 \). Additionally, it might be fun to know that exponential decay is not just for profits! This concept is also applicable in real life when looking at things like radioactive decay, where unstable isotopes lose mass at a predictable rate over time. The same principle applies, and surprising patterns can emerge from seemingly unrelated numbers! If you’re curious about how other exponential functions work, check out the famous "rule of 72." It is a quick way to estimate how long it will take for an investment to double based on a fixed annual rate of return. Simply divide 72 by the interest rate! For example, at a \(6\%\) return, it will take about \(12\) years to double your money! Fun, right?
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