Rewrite the expression using fractional exponents.
Apply the power rule to the numerator and denominator.
Simplify the exponents.
Use the quotient rule to combine x and y terms.
Simplify the exponents further.
Rewrite the expression in radical form: y 2 6 x .
Explanation
Understanding the Problem We are asked to simplify the expression 6 x 2 y 3 x y 5 into a radical form with at most one radical. We assume that the variables x and y represent positive real numbers.
Rewriting with Fractional Exponents First, we rewrite the expression using fractional exponents. Recall that n a = a 1/ n . Thus, we have 6 x 2 y 3 x y 5 = ( x 2 y 3 ) 1/6 ( x y 5 ) 1/2 .
Applying the Power Rule Next, we apply the power rule to both the numerator and the denominator. The power rule states that ( ab ) n = a n b n . Applying this rule, we get ( x 2 y 3 ) 1/6 ( x y 5 ) 1/2 = x 2/6 y 3/6 x 1/2 y 5/2 .
Simplifying Exponents Now, we simplify the exponents. We have 2/6 = 1/3 and 3/6 = 1/2 . Thus, the expression becomes x 1/3 y 1/2 x 1/2 y 5/2 .
Applying the Quotient Rule We use the quotient rule to combine the x and y terms. The quotient rule states that a n a m = a m − n . Applying this rule, we get x 1/2 − 1/3 y 5/2 − 1/2 .
Simplifying Exponents We simplify the exponents. We have 1/2 − 1/3 = 3/6 − 2/6 = 1/6 and 5/2 − 1/2 = 4/2 = 2 . Thus, the expression becomes x 1/6 y 2 .
Rewriting in Radical Form Finally, we rewrite the expression in radical form. Recall that a 1/ n = n a . Thus, we have x 1/6 y 2 = y 2 6 x .
Final Answer Therefore, the simplified radical form of the given expression is y 2 6 x .
Examples
Imagine you are calculating the volume of a strange object that involves both square roots and sixth roots of some lengths. Simplifying such expressions, as we did here, allows you to combine these measurements into a single, manageable radical, making further calculations easier. This is useful in fields like engineering or physics where complex geometric calculations are common.