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Original Question
Which expression is correctly developed to use the Power Rule of Exponents? A. (7^4)^8 B. (−5)^0 C. (7^8)⋅(7^10) D.12^9Question
Which expression is correctly developed to use the Power Rule of Exponents?
a. (-5)^0
b. 12^9
c. (7^8) x (7^10)
d. (7^4)^8
a. (-5)^0
b. 12^9
c. (7^8) x (7^10)
d. (7^4)^8
Answers
Answer
Which of the following correctly used the Power Rule of Exponents in the expression (10^9)^7?
a. 10^16
b. 10^2
c. 90^7
d. 10^63
a. 10^16
b. 10^2
c. 90^7
d. 10^63
Answer
If the expression 4^10 was simplified using the Power Rule of Exponents, what is an equivalent expanded expression?
a. (4^2)^8
b. 4 x 4 x 4 x 4 x 4 x 4 x 4
c. (4^5)^2
d. (4^12)^2
a. (4^2)^8
b. 4 x 4 x 4 x 4 x 4 x 4 x 4
c. (4^5)^2
d. (4^12)^2
Answer
Use the Power Rule of Exponents to create an expression equivalent to (15^6)^2
a. 15^12
b. 15^3
c. 15^8
d. 15^4
a. 15^12
b. 15^3
c. 15^8
d. 15^4
Answer
What exponent would make the two expression equivalent: (3^3)^x = 3^24?
a. 27
b. 8
c. 15
d. 21
a. 27
b. 8
c. 15
d. 21
Answered by
GPT-4o mini
The Power Rule of Exponents states that \( a^m \times a^n = a^{m+n} \) and \( (a^m)^n = a^{m \cdot n} \). Let's analyze each of the given options to determine which expression can be rewritten using the Power Rule:
a. \((-5)^0\) - This evaluates to 1, according to the rule that any non-zero number raised to the power of 0 is 1. It doesn't involve the power rule in a directly useful way as per your question.
b. \(12^9\) - This is simply a single term with no application of the Power Rule of Exponents involved.
c. \((7^8) \times (7^{10})\) - This can be rewritten using the Power Rule:
\[
7^8 \times 7^{10} = 7^{8 + 10} = 7^{18}.
\]
This is a correct application of the Power Rule.
d. \((7^4)^8\) - This can also be rewritten using the Power Rule:
\[
(7^4)^8 = 7^{4 \cdot 8} = 7^{32}.
\]
This is also a correct application of the Power Rule.
Both options c and d correctly use the Power Rule of Exponents, so the correct answers are:
c. \((7^8) \times (7^{10})\)
d. \((7^4)^8\)
a. \((-5)^0\) - This evaluates to 1, according to the rule that any non-zero number raised to the power of 0 is 1. It doesn't involve the power rule in a directly useful way as per your question.
b. \(12^9\) - This is simply a single term with no application of the Power Rule of Exponents involved.
c. \((7^8) \times (7^{10})\) - This can be rewritten using the Power Rule:
\[
7^8 \times 7^{10} = 7^{8 + 10} = 7^{18}.
\]
This is a correct application of the Power Rule.
d. \((7^4)^8\) - This can also be rewritten using the Power Rule:
\[
(7^4)^8 = 7^{4 \cdot 8} = 7^{32}.
\]
This is also a correct application of the Power Rule.
Both options c and d correctly use the Power Rule of Exponents, so the correct answers are:
c. \((7^8) \times (7^{10})\)
d. \((7^4)^8\)
Answered by
GPT-4o mini
To find the correct application of the Power Rule of Exponents in the expression \((10^9)^7\), we use the rule which states that \((a^m)^n = a^{m \cdot n}\).
So, in this case:
\[
(10^9)^7 = 10^{9 \cdot 7} = 10^{63}.
\]
Now, let's evaluate the given options based on this finding:
a. \(10^{16}\) - This is incorrect.
b. \(10^{2}\) - This is incorrect.
c. \(90^{7}\) - This is incorrect.
d. \(10^{63}\) - This is correct.
Therefore, the correct answer is:
**d. \(10^{63}\)**.
So, in this case:
\[
(10^9)^7 = 10^{9 \cdot 7} = 10^{63}.
\]
Now, let's evaluate the given options based on this finding:
a. \(10^{16}\) - This is incorrect.
b. \(10^{2}\) - This is incorrect.
c. \(90^{7}\) - This is incorrect.
d. \(10^{63}\) - This is correct.
Therefore, the correct answer is:
**d. \(10^{63}\)**.
Answered by
GPT-4o mini
To find an equivalent expanded expression for \( 4^{10} \) using the Power Rule of Exponents, we can rewrite \( 4^{10} \) in different formats using exponents. Here’s an analysis of the given options:
a. \((4^2)^8\): This can be simplified using the Power Rule:
\[
(4^2)^8 = 4^{2 \cdot 8} = 4^{16}.
\]
This is not equivalent to \( 4^{10} \).
b. \(4 \times 4 \times 4 \times 4 \times 4 \times 4 \times 4\): This expression only contains 7 factors of 4. To equal \( 4^{10} \), we need 10 factors, so this is incorrect.
c. \((4^5)^2\): This can also be simplified using the Power Rule:
\[
(4^5)^2 = 4^{5 \cdot 2} = 4^{10}.
\]
This is equivalent to \( 4^{10} \).
d. \((4^{12})^2\): This simplifies to:
\[
(4^{12})^2 = 4^{12 \cdot 2} = 4^{24}.
\]
This is not equivalent to \( 4^{10} \).
From the analysis, the only expression that simplifies correctly to \( 4^{10} \) is:
**c. \((4^5)^2**.
a. \((4^2)^8\): This can be simplified using the Power Rule:
\[
(4^2)^8 = 4^{2 \cdot 8} = 4^{16}.
\]
This is not equivalent to \( 4^{10} \).
b. \(4 \times 4 \times 4 \times 4 \times 4 \times 4 \times 4\): This expression only contains 7 factors of 4. To equal \( 4^{10} \), we need 10 factors, so this is incorrect.
c. \((4^5)^2\): This can also be simplified using the Power Rule:
\[
(4^5)^2 = 4^{5 \cdot 2} = 4^{10}.
\]
This is equivalent to \( 4^{10} \).
d. \((4^{12})^2\): This simplifies to:
\[
(4^{12})^2 = 4^{12 \cdot 2} = 4^{24}.
\]
This is not equivalent to \( 4^{10} \).
From the analysis, the only expression that simplifies correctly to \( 4^{10} \) is:
**c. \((4^5)^2**.
Answered by
GPT-4o mini
To simplify the expression \((15^6)^2\) using the Power Rule of Exponents, we use the rule that states \((a^m)^n = a^{m \cdot n}\).
Applying this to the given expression:
\[
(15^6)^2 = 15^{6 \cdot 2} = 15^{12}.
\]
Now let's evaluate the options:
a. \(15^{12}\) - This is correct.
b. \(15^{3}\) - This is incorrect.
c. \(15^{8}\) - This is incorrect.
d. \(15^{4}\) - This is incorrect.
The correct equivalent expression is:
**a. \(15^{12}\)**.
Applying this to the given expression:
\[
(15^6)^2 = 15^{6 \cdot 2} = 15^{12}.
\]
Now let's evaluate the options:
a. \(15^{12}\) - This is correct.
b. \(15^{3}\) - This is incorrect.
c. \(15^{8}\) - This is incorrect.
d. \(15^{4}\) - This is incorrect.
The correct equivalent expression is:
**a. \(15^{12}\)**.
Answered by
GPT-4o mini
To determine the value of \( x \) that makes the two expressions \((3^3)^x\) and \(3^{24}\) equivalent, we can use the Power Rule of Exponents.
Starting with the left side, we apply the Power Rule:
\[
(3^3)^x = 3^{3x}.
\]
Now we set this equal to the right side:
\[
3^{3x} = 3^{24}.
\]
Since the bases are the same (both are powers of 3), we can equate the exponents:
\[
3x = 24.
\]
To solve for \( x \), we divide both sides by 3:
\[
x = \frac{24}{3} = 8.
\]
Thus, the exponent that would make the two expressions equivalent is:
**b. 8**.
Starting with the left side, we apply the Power Rule:
\[
(3^3)^x = 3^{3x}.
\]
Now we set this equal to the right side:
\[
3^{3x} = 3^{24}.
\]
Since the bases are the same (both are powers of 3), we can equate the exponents:
\[
3x = 24.
\]
To solve for \( x \), we divide both sides by 3:
\[
x = \frac{24}{3} = 8.
\]
Thus, the exponent that would make the two expressions equivalent is:
**b. 8**.
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