Duplicate Question
The question on this page has been marked as a duplicate question.
Original Question
Is the equation (root(8, 4)) ^ - 24 * (sqrt(8)) ^ 16 = 8 ^ - 48 answers the question justification. true or false? Select the r...Question
Is the equation (root(8, 4)) ^ - 24 * (sqrt(8)) ^ 16 = 8 ^ - 48 answers the question justification. (1 point) true or false? Select the response that correctly True. When the bases are multiplied, the exponents are also multiplied. True, but the equation can be simplified further. False, because the Negative Exponent Rule should be applied. False, because the exponents should be added rather than multiplied.
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine whether the equation \((\sqrt[8]{4})^{-24} \cdot (\sqrt{8})^{16} = 8^{-48}\) is valid, let's simplify both sides.
1. **Simplifying the Left Side:**
- \(\sqrt[8]{4}\) can be expressed as \(4^{1/8}\).
- Then, \((\sqrt[8]{4})^{-24} = (4^{1/8})^{-24} = 4^{-24/8} = 4^{-3}\).
- \(\sqrt{8}\) can be expressed as \(8^{1/2}\).
- Thus, \((\sqrt{8})^{16} = (8^{1/2})^{16} = 8^{16/2} = 8^8\).
Now, combine these results:
\[
(\sqrt[8]{4})^{-24} \cdot (\sqrt{8})^{16} = 4^{-3} \cdot 8^8
\]
Next, express \(4^{-3}\) in terms of base \(8\):
\[
4 = 2^2 \Rightarrow 4^{-3} = (2^2)^{-3} = 2^{-6}
\]
Since \(8 = 2^3\), we can express \(8^8\) as:
\[
8^8 = (2^3)^8 = 2^{24}
\]
Therefore, the left side becomes:
\[
2^{-6} \cdot 2^{24} = 2^{-6 + 24} = 2^{18}
\]
2. **Simplifying the Right Side:**
\[
8^{-48} = (2^3)^{-48} = 2^{-144}
\]
Now we compare both sides:
- Left Side: \(2^{18}\)
- Right Side: \(2^{-144}\)
Clearly, \(2^{18} \neq 2^{-144}\).
So the original equation is **false**.
In regards to the justification:
- The correct response is: **False, because the exponents should be added rather than multiplied.**
Thus, the final answer is **False** as the equation does not hold true.
1. **Simplifying the Left Side:**
- \(\sqrt[8]{4}\) can be expressed as \(4^{1/8}\).
- Then, \((\sqrt[8]{4})^{-24} = (4^{1/8})^{-24} = 4^{-24/8} = 4^{-3}\).
- \(\sqrt{8}\) can be expressed as \(8^{1/2}\).
- Thus, \((\sqrt{8})^{16} = (8^{1/2})^{16} = 8^{16/2} = 8^8\).
Now, combine these results:
\[
(\sqrt[8]{4})^{-24} \cdot (\sqrt{8})^{16} = 4^{-3} \cdot 8^8
\]
Next, express \(4^{-3}\) in terms of base \(8\):
\[
4 = 2^2 \Rightarrow 4^{-3} = (2^2)^{-3} = 2^{-6}
\]
Since \(8 = 2^3\), we can express \(8^8\) as:
\[
8^8 = (2^3)^8 = 2^{24}
\]
Therefore, the left side becomes:
\[
2^{-6} \cdot 2^{24} = 2^{-6 + 24} = 2^{18}
\]
2. **Simplifying the Right Side:**
\[
8^{-48} = (2^3)^{-48} = 2^{-144}
\]
Now we compare both sides:
- Left Side: \(2^{18}\)
- Right Side: \(2^{-144}\)
Clearly, \(2^{18} \neq 2^{-144}\).
So the original equation is **false**.
In regards to the justification:
- The correct response is: **False, because the exponents should be added rather than multiplied.**
Thus, the final answer is **False** as the equation does not hold true.
Submit Your Answer
We prioritize human answers over AI answers.
If you are human, and you can answer this question, please submit your answer.