\"\"

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(a)

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The function is \"\".

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Domain of logarithm function \"\" is defined for all  \"\" or \"\".

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Therefore, the domain of the function \"\" is \"\".

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\"\"

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Therefore, domain of \"\" is \"\".

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 The \"\"-intercept of the function is \"\".

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\"\"

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(b) Graph the function \"\" :

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Graph:

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\"\"

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\"\"

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(c)

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Range of the logarithm function \"\" is defined as \"\".

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Observe the graph range of \"\" is \"\".

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Vertical asymptote of the logarithmic function \"\" is  \"\".

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Therefore, vertical asymptote of \"\" is \"\".

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The vertical asymptote is \"\".

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\"\"

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(d)

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Find the inverse function of \"\".

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Consider \"\".

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Solve for \"\".

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\"\"

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\"\"

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Interchange the terms \"\" and \"\".

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\"\"

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Therefore, \"\".

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The inverse function of the \"\" is \"\".

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\"\"

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(e)

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Find the domain and range of inverse function.

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The inverse function is \"\".

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The domain of the inverse function \"\" is the range of the function \"\".

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The range of the inverse function \"\" is the domain of the function \"\".

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The domain of \"\" is \"\".

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Range of \"\" is \"\".

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 The \"\"-intercept of the function is \"\".

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\"\"

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(f)

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Graph the function \"\" :

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Graph:

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\"\".

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\"\"

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(a) The domain of \"\" is \"\".

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    The \"\"-intercept of the function is \"\".

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(b)  Graph of the function \"\" is :

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\"\"

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(c) The range of \"\" is \"\".

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     The vertical asymptote is \"\".

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(d) The inverse function is \"\". 

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(e) The domain of \"\" is \"\".

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     Range set of \"\" is \"\".

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      The \"\"-intercept of the function is \"\".

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(f) Graph of  the function \"\" is :

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\"\"