\"\"

\

The rational function is \"\".

\

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The function can be written as \"\".

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Find the intercepts.

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The rational function is \"\".

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Change \"\" to \"\".

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\"\".

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\"\". \ \

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To find \"\" intercept, substitute \"\" in the function.

\

\"\"

\

\"\" intercept is \"\".

\

To find \"\"-intercept, substitute \"\" in the function.

\

\"\"

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\"\" intercept is \"\".

\

\

Find the vertical Asymptotes.

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Find the vertical asymptotes by equating denominator to zero.

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\"\"

\

So the function has vertical asymptotes at \"\".

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Find the horizantal asymptotes :

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To find horizontal asymptote, first find the degree of the numerator and degree of the denominator.

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Degree of the numerator \"\" and degree of the denominator \"\".

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Because the ratio of the leading coefficients of the numerator and denominator, and the degrees of polynomial are equal, So Horizantal asymptote is \"\".

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So the function has horizantal asymptote at \"\".

\

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The rational function is \"\".

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There is a hole at \"\" because the original function is undefined when \"\".

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Graph :

\

Draw the coordinate plane.

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Graph the function \"\".

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\"\"

\

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Find the domain :

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The function is \"\".

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The domain of a  function is the set of all real numbers which makes the function mathematically correct.

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Denominator of the function should not be \"\".

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\"\"

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Therefore the function is undefined at the real zero of the denominator \"\". \ \

\

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Thus, the function is continuous for all real numbers except \"\". \ \

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

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\"\" \ \

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\"\" intercept is \"\".

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\"\" intercept is \"\".

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The function has vertical asymptotes at \"\".

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The function has horizantal asymptote at \"\". \ \

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Domain of the function is \"\". \ \

\

Graph of the function \"\" is

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\"\"