Find the derivative of
Foundations:
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This problem is best approached through properties of logarithms. Remember that
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while
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and
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You will also need to apply
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The Chain Rule: If and are differentiable functions, then
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Finally, recall that the derivative of natural log is
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
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Solution:
Step 1:
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We can use the log rules to rewrite our function as
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
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Step 2:
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We can differentiate term-by-term, applying the chain rule to each term to find
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
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Final Answer:
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