Question
Simplify log15log5
log
15
log
5
.(1 point)
Responses
log3
log
3
logarithm 3
3
3
log515
log
5
15
logarithm subscript 5 baseline 15
log155
log
15
log
5
.(1 point)
Responses
log3
log
3
logarithm 3
3
3
log515
log
5
15
logarithm subscript 5 baseline 15
log155
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To simplify \( \log_{15} \log_{5} \), we can use the change of base formula for logarithms.
Using the change of base formula, we have:
\[
\log_{a} b = \frac{\log_{c} b}{\log_{c} a}
\]
For \( \log_{15} \) and \( \log_{5} \), we can use any base (commonly base 10 or base \( e \)). Choosing base \( 10 \) for simplicity, we can write:
\[
\log_{15} = \frac{\log_{10}}{\log_{10} 15}
\]
\[
\log_{5} = \frac{\log_{10}}{\log_{10} 5}
\]
Now, substituting \( \log_{5} \) into \( \log_{15} \):
\[
\log_{15} \log_{5} = \log_{15} \left(\frac{\log_{10}}{\log_{10} 5}\right)
\]
However, since we need to simplify \( \log_{15} \log_{5} \) in more manageable terms:
First, let's recognize \( \log_{15} \) itself:
\[
\log_{15} = \log_{(3 \cdot 5)} = \log_{3} + \log_{5}
\]
Thus, the original expression is just \( \log_{5} 15 \):
This is not directly in the choices given but since no additional context is given, we can also conclude that:
If we take the values to their simplest expressions in terms of single variable logarithms, we can notice:
\[
\log_{15} \log_{5} = \frac{\log_{5} 15}{\log_{5}} = \log_{5} 15
\]
None of the direct transformation yields a direct option given seems like it doesn't apply clearly to existing options.
Nonetheless:
So your correct substitution is \( \log_{5} 15\) represents your final equation.
However, considering the options:
- Log base 3 might be a misinterpret; there could be typographical absence as nothing precisely matches the transformation in logarithms.
In summary, double-check the mentioned options since \( \log_{15} \) does not simplify into one of the choices without additional context on variable base conditions that influence the logarithmic gradient across given transformations.
Using the change of base formula, we have:
\[
\log_{a} b = \frac{\log_{c} b}{\log_{c} a}
\]
For \( \log_{15} \) and \( \log_{5} \), we can use any base (commonly base 10 or base \( e \)). Choosing base \( 10 \) for simplicity, we can write:
\[
\log_{15} = \frac{\log_{10}}{\log_{10} 15}
\]
\[
\log_{5} = \frac{\log_{10}}{\log_{10} 5}
\]
Now, substituting \( \log_{5} \) into \( \log_{15} \):
\[
\log_{15} \log_{5} = \log_{15} \left(\frac{\log_{10}}{\log_{10} 5}\right)
\]
However, since we need to simplify \( \log_{15} \log_{5} \) in more manageable terms:
First, let's recognize \( \log_{15} \) itself:
\[
\log_{15} = \log_{(3 \cdot 5)} = \log_{3} + \log_{5}
\]
Thus, the original expression is just \( \log_{5} 15 \):
This is not directly in the choices given but since no additional context is given, we can also conclude that:
If we take the values to their simplest expressions in terms of single variable logarithms, we can notice:
\[
\log_{15} \log_{5} = \frac{\log_{5} 15}{\log_{5}} = \log_{5} 15
\]
None of the direct transformation yields a direct option given seems like it doesn't apply clearly to existing options.
Nonetheless:
So your correct substitution is \( \log_{5} 15\) represents your final equation.
However, considering the options:
- Log base 3 might be a misinterpret; there could be typographical absence as nothing precisely matches the transformation in logarithms.
In summary, double-check the mentioned options since \( \log_{15} \) does not simplify into one of the choices without additional context on variable base conditions that influence the logarithmic gradient across given transformations.
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