\"\"

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The function has a vertical asymtote at \"\" and \"\".

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The function has a oblique asymtote at \"\".

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Vertical Asymptotes :

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The rational function has vertical asymptotes at \"\" and \"\", therefore the zeros of the denominator should not be \"\" and \"\".

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Therefore the factors of the denominator are \"\" and \"\".

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Oblique Asymptote :

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Since there is an oblique asymptote \"\", the degree of the numerator is exactly \"\" greater than the degree of the denominator.

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Additionally, when the numerator is divided by the denominator, the quotient polynomial \"\" is \"\".

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The function can be written as \"\", where \"\" is numerator of the function.

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\"\", where \"\" is remainder of the function.

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\"\"

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\"\".

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The denominator of \"\" can be written as \"\",which is used to solve the equation \"\".

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\"\".

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Multiply each side by \"\".

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\"\".

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\"\"

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The degree of the remainder has to be less than the degree of the denominator, so it will either be \"\" or \"\".

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Thus, the sum of \"\" cannot be determined, but the first two terms of \"\" must be \"\".

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Substitute this expression for \"\" and use long division to verify that the quotient is \"\".

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\"\"

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Long Division Method :

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The dividend is \"\".

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The divisor is \"\".

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Rewrite the expression in long division form \"\".

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Divide the first term of the dividend by the first term of the divisor \"\".

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So, the first term of the quotient is \"\".

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Multiply \"\" by \"\" and subtract.

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\"\"

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The remainder is the last entry in the last row.

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Therefore, the remainder \"\".

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The quotient is \"\".

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Thus the function is \"\".

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\"\"

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\"\".