27. \( \frac{15^{7} \times 8^{6}}{5^{6} \times 24} \) 28. \( \frac{2^{2005} \times 5^{2000}}{100^{1000}} \) 29. \( \frac{7^{2 x}-1}{3 \times 7^{x}+3} \) 30. \( \frac{16^{x}-1}{5 \times 4^{x}-5} \) 31. \( \frac{25^{x}-4}{2 \times 5^{x}-4} \) 32. \( \frac{9^{x}-3^{x}-2}{6^{x}-2^{x+1}} \)
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Beyond the Answer
The problems you’ve presented are great for illustrating how exponents, factoring, and simplification can be applied in mathematics. For instance, with expressions like \(\frac{15^{7} \times 8^{6}}{5^{6} \times 24}\), one can simplify first by breaking down the components into their prime factors for easier calculation—a nifty skill to save time and frustration! As for real-world applications, understanding these expressions often comes in handy in fields such as finance and science. For instance, when calculating compound interest, the use of exponentiation comes into play. Similarly, physics equations often use exponents to describe exponential decay or growth, so mastering these problems translates directly into skills useful in everyday problem-solving scenarios!
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