Asked by adaleta
Which of the following correctly identifies the quadratic function that is related to the square root function k(x)=5x−−√
?(1 point)
Responses
m(x)=15x2
m left parenthesis x right parenthesis equals Start Fraction 1 over 5 End Fraction x squared
m(x)=5x2
m left parenthesis x right parenthesis equals 5 x squared
m(x)=125x2
m left parenthesis x right parenthesis equals Start Fraction 1 over 25 End Fraction x squared
m(x)=25x2
?(1 point)
Responses
m(x)=15x2
m left parenthesis x right parenthesis equals Start Fraction 1 over 5 End Fraction x squared
m(x)=5x2
m left parenthesis x right parenthesis equals 5 x squared
m(x)=125x2
m left parenthesis x right parenthesis equals Start Fraction 1 over 25 End Fraction x squared
m(x)=25x2
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To find the quadratic function related to the square root function \( k(x) = 5\sqrt{x} \), we can express this in terms of the relationship between the square root function and its corresponding quadratic function.
Given the square root function, if we isolate \( x \), we can think of it as a square function in the following way:
1. Start with the function:
\[
k(x) = 5\sqrt{x}
\]
2. To find the corresponding quadratic function, we can square both sides:
\[
k(x)^2 = (5\sqrt{x})^2
\]
\[
m(x) = 25x
\]
However, none of the options presented corresponds directly to the expression \( m(x) = 25x \).
If we consider possible transformations without isolating \( k(x) \), we can recognize that one of the options must represent a transformation of the basic relationship \( y = x^2 \).
So, we will take a look again at the relationship:
- If \( k(x) = 5\sqrt{x} \) corresponds to squaring and yielding a parabola, then we'd consider the scaling factor due to the square root.
To summarize:
\[
k(x) = 5\sqrt{x} \implies m(x) = 25x
\]
From your choices, let's analyze them:
1. \( m(x) = \frac{1}{5}x^2 \) (not suitable)
2. \( m(x) = 5x^2 \) (also a quadratic, but does not relate directly)
3. \( m(x) = \frac{1}{25}x^2 \) (not suitable)
4. \( m(x) = 25x^2 \) (matches the form we derived).
Given the above analysis, the best match for a quadratic function corresponding to the square root function \( k(x) = 5\sqrt{x} \) is:
**\( m(x) = 25x \)**.
However, please check if the question might have been misinterpreted, since the form directly derived does not seem available. If you're looking for a transformation-based quadratic, \( m(x) = 25x^2 \) would be a conceivable evaluation for parabolic growth from our original square root function, although it oversimplifies direct correlation.
Please review to confirm the intentions behind options or context!
Given the square root function, if we isolate \( x \), we can think of it as a square function in the following way:
1. Start with the function:
\[
k(x) = 5\sqrt{x}
\]
2. To find the corresponding quadratic function, we can square both sides:
\[
k(x)^2 = (5\sqrt{x})^2
\]
\[
m(x) = 25x
\]
However, none of the options presented corresponds directly to the expression \( m(x) = 25x \).
If we consider possible transformations without isolating \( k(x) \), we can recognize that one of the options must represent a transformation of the basic relationship \( y = x^2 \).
So, we will take a look again at the relationship:
- If \( k(x) = 5\sqrt{x} \) corresponds to squaring and yielding a parabola, then we'd consider the scaling factor due to the square root.
To summarize:
\[
k(x) = 5\sqrt{x} \implies m(x) = 25x
\]
From your choices, let's analyze them:
1. \( m(x) = \frac{1}{5}x^2 \) (not suitable)
2. \( m(x) = 5x^2 \) (also a quadratic, but does not relate directly)
3. \( m(x) = \frac{1}{25}x^2 \) (not suitable)
4. \( m(x) = 25x^2 \) (matches the form we derived).
Given the above analysis, the best match for a quadratic function corresponding to the square root function \( k(x) = 5\sqrt{x} \) is:
**\( m(x) = 25x \)**.
However, please check if the question might have been misinterpreted, since the form directly derived does not seem available. If you're looking for a transformation-based quadratic, \( m(x) = 25x^2 \) would be a conceivable evaluation for parabolic growth from our original square root function, although it oversimplifies direct correlation.
Please review to confirm the intentions behind options or context!
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