\"\"

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The inequality is \"\".

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The radical \"\" is defined for \"\".

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The radical \"\" is defined for \"\".

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Consider \"\".

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\"\"

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Consider \"\".

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\"\"

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The domain of the equation is restricted to \"\".

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\"\"

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Now consider the original inequality equation \"\".

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Squaring on both sides.

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\"\"

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\"\"

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\"\".

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Now squaring on both sides.

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\"\".

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\"\"

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\"\"

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Consider \"\".

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\"\".

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\"\"

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Let \"\".

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\"\"

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Therefore \"\" has real zeros at \"\" and \"\".

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\"\"

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Create a sign chart using the values \"\" and \"\".

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\"\"

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Note : The hallow circle denote that the value are included in the solution set.           

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Observe the sign chart :

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The set of value of \"\" denoted in blue color represents the solution set.

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Determine whether \"\" is positive or negative on the test intervals.

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Test intervals are \"\" and \"\".

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If \"\" then \"\".

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If \"\" then \"\".

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If \"\" then \"\".

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The solutions of \"\" are \"\" values for which \"\" is positive or equal to \"\".

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The solution set is \"\".

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\"\"

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The domain of the equation is restricted to \"\".

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Create a  sign chart that includes this restriction.

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When solving inequalities that involve raising each side to a power to eliminate a radical, it is important to test every interval using the original inequality.

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Substitute a \"\" value in each test interval into the original inequality to determine if \"\" is a solution.

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The original inequality equation is \"\".

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\"\"

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If \"\" then \"\".

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If \"\" then \"\".

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If \"\" then \"\".

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If \"\" then \"\".

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Therefore the solution set is \"\".

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\"\"

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The Solution set of \"\" is \"\".