$\left(\frac{16}{5}\right)^{13} \times \left(\frac{5}{16}\right)^{16} \times \left(\frac{16}{5}\right)^{5} = \left(\frac{5}{16}\right)^{6m + 16}$
The problem asks to find the value of the variable $m$ that satisfies the given exponential equation:
$ \left(\frac{16}{5}\right)^{13} \times \left(\frac{5}{16}\right)^{16} \times \left(\frac{16}{5}\right)^{5} = \left(\frac{5}{16}\right)^{6m + 16} $
To solve this equation efficiently, we need a common base for all terms. We observe that $\frac{5}{16}$ is the reciprocal of $\frac{16}{5}$. Using the property $\frac{a}{b} = \left(\frac{b}{a}\right)^{-1}$, we can rewrite $\frac{5}{16}$ as $\left(\frac{16}{5}\right)^{-1}$.
Substitute this into the original equation:
$ \left(\frac{16}{5}\right)^{13} \times \left(\left(\frac{16}{5}\right)^{-1}\right)^{16} \times \left(\frac{16}{5}\right)^{5} = \left(\left(\frac{16}{5}\right)^{-1}\right)^{6m + 16} $
Simplify the equation using the rules of exponents:
Applying Rule 1:
$ \left(\frac{16}{5}\right)^{13} \times \left(\frac{16}{5}\right)^{-1 \times 16} \times \left(\frac{16}{5}\right)^{5} = \left(\frac{16}{5}\right)^{-1 \times (6m + 16)} $
$ \left(\frac{16}{5}\right)^{13} \times \left(\frac{16}{5}\right)^{-16} \times \left(\frac{16}{5}\right)^{5} = \left(\frac{16}{5}\right)^{-(6m + 16)} $
Applying Rule 2 to the left side:
$ \left(\frac{16}{5}\right)^{13 + (-16) + 5} = \left(\frac{16}{5}\right)^{2} $
After simplification, the equation is:
$ \left(\frac{16}{5}\right)^{2} = \left(\frac{16}{5}\right)^{-(6m + 16)} $
Since the bases ($\frac{16}{5}$) are identical on both sides, the exponents must be equal:
$ 2 = -(6m + 16) $
Now, solve the resulting linear equation for $m$:
$ 2 = -6m - 16 $
Isolate the term with $m$ by adding 16 to both sides:
$ 2 + 16 = -6m $
$ 18 = -6m $
Finally, divide by -6 to find the value of $m$:
$ m = \frac{18}{-6} $
$ m = -3 $
Thus, the value of $m$ satisfying the equation is -3.
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