To rewrite the expression \(2 \log_6 36 - \log_8 64\) using the properties of logarithms, we can apply the following properties:
- The power rule: \(a \log_b x = \log_b (x^a)\)
- The change of base rule: \(\log_b x = \frac{\log_k x}{\log_k b}\) (for this problem, we can keep the logarithms in their original bases if applicable)
Let's proceed step by step:
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Apply the power rule to \(2 \log_6 36\): \[ 2 \log_6 36 = \log_6 (36^2) \]
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Calculate \(36^2\): \[ 36^2 = 1296 \] Thus, \[ 2 \log_6 36 = \log_6 1296 \]
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Now consider \(\log_8 64\). Since \(64 = 8^2\), we can use the property of logarithms: \[ \log_8 64 = \log_8 (8^2) = 2 \]
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Combine the two parts together: We now substitute back into the original expression: \[ 2 \log_6 36 - \log_8 64 = \log_6 1296 - 2 \]
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Express the subtraction in terms of logarithms: We can rewrite \(2\) as \(\log_6 (6^2)\), since \(2 = \log_6(36)\): \[ 2 = \log_6 36 \] Therefore: \[ \log_6 1296 - \log_6 36 = \log_6 \left(\frac{1296}{36}\right) \]
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Calculate \(\frac{1296}{36}\): \[ \frac{1296}{36} = 36 \] Hence, \[ \log_6 \left(\frac{1296}{36}\right) = \log_6 36 \]
This gives us the final expression as: \[ \log_6 36 \]
So the rewritten expression can be presented as: \[ \log_6 \left(\frac{36^2}{64}\right) \] or simply, \[ \log_6 36 \]
Thus, the responses:
- Option 1: \(\log_{-2}\left(\frac{36^2}{64}\right)\)
- Option 4: \(4\) (equivalent, if we evaluate \(\log_6 36\))
Based on the responses you provided:
- The expression corresponds to the first interpretation, but note that \(4\) is incorrect in evaluation after steps since that yields finite simple terms.
Please clarify if you need a particular option in the set responses you mentioned!