Practice with "Something to a Power to a Power, Multiply the Exponents"

All the exponent laws are stated below, for completeness.
This web exercise gives practice with: $$ (x^m)^n = x^{mn} $$ Here's the motivation for this exponent law: $$ (x^2)^3 = (x^2)(x^2)(x^2) = \overset{\text{three piles, two in each}}{\overbrace{(x\cdot x)(x\cdot x)(x\cdot x)}} = x^6 = x^{2\cdot 3} $$

EXPONENT LAWS

Let

$\,x\,$, $\,y\,$, $\,m\,$, and $\,n\,$ be real numbers, with the following exceptions:

a base and exponent cannot simultaneously be zero (since $\,0^0\,$ is undefined);
division by zero is not allowed;
for non-integer exponents (like $\,\frac12\,$ or $\,0.4\,$), assume that bases are positive.

Then,

$x^mx^n = x^{m+n}$	Verbalize: same base, things multiplied, add the exponents
$\displaystyle \frac{x^m}{x^n} = x^{m-n}$	Verbalize: same base, things divided, subtract the exponents
$(x^m)^n = x^{mn}$	Verbalize: something to a power, to a power; multiply the exponents
$(xy)^m = x^my^m$	Verbalize: product to a power; each factor gets raised to the power
$\displaystyle \left(\frac{x}{y}\right)^m = \frac{x^m}{y^m}$	Verbalize: fraction to a power; both numerator and denominator get raised to the power

EXAMPLE:

$(x^3)^2 = x^p\,$ where $\,p = \text{?}$

Answer: $p = 6$

Master the ideas from this section
by practicing the exercise at the bottom of this page.

When you're done practicing, move on to:
Practice with $\,x^m/x^n = x^{m-n}$

(an even number, please)