To rewrite \( \log_4\left(\frac{9m^3}{n}\right) \) using the properties of logarithms, we will apply the Quotient Rule, Product Rule, and Power Rule as follows:
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Quotient Rule: \( \log_b\left(\frac{A}{B}\right) = \log_b A - \log_b B \)
- In this case, \( A = 9m^3 \) and \( B = n \).
- So, \( \log_4\left(\frac{9m^3}{n}\right) = \log_4(9m^3) - \log_4(n) \).
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Product Rule: \( \log_b(AB) = \log_b A + \log_b B \)
- Now applying this to \( \log_4(9m^3) \) where \( A = 9 \) and \( B = m^3 \).
- This gives us \( \log_4(9m^3) = \log_4(9) + \log_4(m^3) \).
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Power Rule: \( \log_b(A^c) = c \cdot \log_b A \)
- For \( \log_4(m^3) \), we can rewrite it as \( 3 \cdot \log_4(m) \).
- Therefore, \( \log_4(9m^3) = \log_4(9) + 3 \cdot \log_4(m) \).
Combining everything together, we have:
\[ \log_4\left(\frac{9m^3}{n}\right) = \left(\log_4(9) + 3 \cdot \log_4(m)\right) - \log_4(n) \]
Now simplifying this, we get:
\[ \log_4(9) + 3 \cdot \log_4(m) - \log_4(n) \]
This matches with Option #2:
\[ \log_4(9) + 3 \cdot \log_4(m) - \log_4(n) \]
So the correct answer is:
Option #2.