Summarize the pertinent information ublained by applying the graphing slrategy and sketch the graph of \( y=f(x) \). \[ f(x)=\ln (x+8)-1 \] Select the correct choice below and, il necessary, fill in the answer box to complete your choice. A. The function f is concave upward on the subinterval( s ) \( \square \) 1. (Type your answer in interval nolation. Type an oxacl answer. Use a comma to separate answers as noeded.) B. The function \( f \) is nover concave upward. Select the correct choice below and, if necessary, fill in the answer box to complele your chorce. A. Tho function \( f \) is concavo downward on the subinleval(s) \( (-8, \infty) \). (Type your answer in interval notation. Type an exact answer. Use a comma lo separate answers as needed.) B. The function \( f \) is never concave downward. Select the correct choive below and, if necessary, fill in the answer box to complete your choice. A. The function \( f \) has an inflection point al \( x= \) \( \square \) . (Type an exact answer. Use a comma lo separate answers as needed) B. The function I has no inflection point.
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To analyze the function \( f(x) = \ln(x + 8) - 1 \), we first identify its key characteristics. The function is defined for \( x > -8 \). To determine concavity, we find the second derivative, which reveals where the graph is concave upward or downward. By assessing the first and second derivatives, we can conclude that the function is concave upward for \( (-8, \infty) \) and concave downward nowhere, thus confirming it's always increasing after its minimum. For the inflection point, we note that since there are no changes in concavity, the function does not possess any inflection points. Graphically, expect the curve to rise steeply after passing through the point, showcasing its continually increasing nature. --- Funky Fact: The logarithmic function comes from the ancient study of exponents. It was used long ago by mathematicians trying to unravel the complexities of exponential growth, connecting math to real-world phenomena! Real-World Application: Imagine you’re a biologist studying populations of bacteria. The logarithmic function, like our \( f(x) \), can model how populations grow, giving an idea of how to manage resources effectively as numbers rise, a key to sustainable practices!
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