Step 1:

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The integral is \"\".

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Rewrite the integral as \"\"

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Consider the first integral on right side \"\".

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From the interval \"\" above integral has a finite value, it is convergent.

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\"\" is convergent.

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Consider the second integral on right side \"\".

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Now we can apply comparison value theorem for above integral.

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Consider the fact \"\" and it implies that  \"\".

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\"\"

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Comparison theorem:

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Suppose that \"\" are continuous functions with \"\",

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1. If \"\" is convergent, then \"\" is convergent.

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2.If \"\" is divergent, then \"\" is also divergent.

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Here \"\" and \"\"

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\"\"

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Hence \"\" is a finite value, it is convergent.

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By comparison theorem, \"\" is convergent.

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\"\" is convergent.

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Since the two integrals on right side part of Equation (1) is convergent, So the left side part is also convergent.

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\"\" is convergent.

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Solution:

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\"\"is convergent.

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