Expression 1: \(\frac{5^{-10} \times 5^{112}}{25^{-1}}\)
Rewrite \(25^{-1}\) as \((5^2)^{-1} = 5^{-2}\):
\[
\frac{5^{-10} \times 5^{112}}{5^{-2}}
\]
Combine the exponents in the numerator:
\[
5^{-10 + 112} = 5^{102}
\]
Now, divide by \(5^{-2}\):
\[
5^{102} \div 5^{-2} = 5^{102 - (-2)} = 5^{102 + 2} = 5^{104}
\]
Expression 2: \(125 \times 625 \div 5^{-97}\)
Rewrite \(125\) and \(625\) as powers of 5:
\[
125 = 5^3 \quad \text{and} \quad 625 = 5^4
\]
So, the expression becomes:
\[
5^3 \times 5^4 \div 5^{-97}
\]
Combine the exponents in the numerator:
\[
5^{3 + 4} = 5^7
\]
Now, divide by \(5^{-97}\):
\[
5^7 \div 5^{-97} = 5^{7 - (-97)} = 5^{7 + 97} = 5^{104}
\]
Expression 3: \(\sqrt[3]{625^{12}} \times \sqrt{5^{176}}\)
Rewrite \(625\) as a power of 5:
\[
625 = 5^4
\]
So, the expression becomes:
\[
\sqrt[3]{(5^4)^{12}} \times \sqrt{5^{176}}
\]
Simplify the exponents:
\[
\sqrt[3]{5^{4 \times 12}} = \sqrt[3]{5^{48}} = 5^{48/3} = 5^{16}
\]
And:
\[
\sqrt{5^{176}} = 5^{176/2} = 5^{88}
\]
Now, multiply the results:
\[
5^{16} \times 5^{88} = 5^{16 + 88} = 5^{104}
\]
All three expressions simplify to \(5^{104}\), so they are equivalent.