Part 1: Create your own term using a rational exponent.
Part 2: Convert it to a radical expression.
Part 3: Explain, in complete sentences, how the expression was converted
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OpenStudy (anonymous):
@jim_thompson5910
OpenStudy (anonymous):
@waterineyes @nbouscal
OpenStudy (anonymous):
See, let me make the term as : \[\large x^y\]
Okay??
OpenStudy (anonymous):
Okay
OpenStudy (anonymous):
Or you want the rational exponent so you can take like this also:
\[\large x^{\frac{1}{y}}\]
Is it okay??
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OpenStudy (anonymous):
Sure no problem. Let's use x^1/y
OpenStudy (anonymous):
So, in radical form it is converted as:
\[\huge x^{\frac{1}{y}} = \sqrt[y]{x^1}\]
Getting it or not??
OpenStudy (anonymous):
Yes I get it. Okay.
OpenStudy (anonymous):
I just don't understand how I would explain how I converted it.
OpenStudy (anonymous):
See,
Numerator becomes the exponent and denominator becomes the nth root...
More examples:
For:
\[\huge x^{\frac{2}{3}} = \sqrt[3]{x^2}\]
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OpenStudy (anonymous):
K tyvm :)
OpenStudy (anonymous):
I give you the general formula for this:
\[\huge \color{blue}{x^{\frac{y}{n}}= \sqrt[n]{x^y}}\]
OpenStudy (anonymous):
Welcome dear..
All you have to do is to replace y and n according to the question..
OpenStudy (anonymous):
K. Tyvm :) I just didn't know how to explain it (Part 3) but now I do :D