\begin{tabular}{l}\( \begin{array}{l}\text { function } y=\log _{b} x\end{array} \) \\ \begin{tabular}{ll} 29. \( y=\log _{4} x-3 \) & 30. \( y=\log _{5}(x-1)+2 \) \\ \hline 31. \( y=\log _{6}(x+3)-5 \) & 32. \( y=\log _{3}(x+2)+4 \) \\ \hline Problems \( 33-36 \), Find the inverse of each function. & \\ \hline\end{tabular} \\ \hline\end{tabular}
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Mind Expander
When we dive into logarithmic functions, it's fascinating to see how they relate to exponential functions! For example, the equation \( y = \log_b x \) essentially means that if you raise the base \( b \) to the power \( y \), you’ll get \( x \) (i.e., \( x = b^y \)). This mathematical relationship is the key to understanding many real-world phenomena, such as calculating pH levels in chemistry or determining the decibel level of sound. Now, when you find the inverse of a logarithmic function, you’re switching from the logarithmic relationship back to its exponential counterpart. For instance, if \( y = \log_4 x - 3 \), rearranging it gives you \( x = 4^{(y + 3)} \). So, the inverse function becomes \( y = 4^{(x + 3)} \). It's like unlocking the secrets of logarithmic puzzles, which can lead to solving real-world calculations in fields ranging from finance to engineering!
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