To rewrite \( \log_4(9m^3n) \) using the logarithmic rules, we can break it down using the Product Rule and the Power Rule.
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Product Rule: \( \log_b(xy) = \log_b(x) + \log_b(y) \)
- Here, \( \log_4(9m^3n) = \log_4(9) + \log_4(m^3) + \log_4(n) \)
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Power Rule: \( \log_b(x^k) = k \log_b(x) \)
- Hence, \( \log_4(m^3) = 3\log_4(m) \)
- So now we have \( \log_4(9) + 3\log_4(m) + \log_4(n) \)
This means we can write: \[ \log_4(9m^3n) = \log_4(9) + 3\log_4(m) + \log_4(n) \]
Now, we need to verify if any of the given options match this expression:
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Option #1: \( \log_4(9) - 3\log_4(m) + \log_4(n) \) (Incorrect)
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Option #2: \( \log_4(9) + 3\log_4(m) - \log_4(n) \) (Incorrect)
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Option #3: \( 3\log_4(9) - \log_4(n) \) (Incorrect)
None of the options provided directly match \( \log_4(9) + 3\log_4(m) + \log_4(n) \).
Based on my analysis, although none of the provided options correspond correctly, if I must choose one that one aligns the closest without verification of signs, I would suggest Option #2 as it has positive \( \log_4(9) \), but it has the incorrect sign with \( \log_4(n) \).
In conclusion, none of the options accurately represent the original expression, but if forced to pick one based on the workings above, I would select option #2.