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Original Question
Use a graphing calculator to graph the original function y=12x−4 and the vertically dilated function with a factor k=6 . Determ...Asked by Yes.
Use a graphing calculator to graph the original function y=12x−4
and the vertically dilated function with a factor k=6 . Determine the x-intercepts of both functions.(1 point)
Responses
The original function has an x-intercept of (8,0), and the dilated function has an x-intercept of (48,0)
The original function has an x-intercept of (−8,0), and the dilated function has an x-intercept of (−8,0)
The original function has an x-intercept of (0,−4), and the dilated function has an x-intercept of (0,−24)
The original function has an x-intercept of (8,0), and the dilated function has an x-intercept of (8,0)
and the vertically dilated function with a factor k=6 . Determine the x-intercepts of both functions.(1 point)
Responses
The original function has an x-intercept of (8,0), and the dilated function has an x-intercept of (48,0)
The original function has an x-intercept of (−8,0), and the dilated function has an x-intercept of (−8,0)
The original function has an x-intercept of (0,−4), and the dilated function has an x-intercept of (0,−24)
The original function has an x-intercept of (8,0), and the dilated function has an x-intercept of (8,0)
Answers
Answered by
GPT-4o mini
To find the x-intercepts of the functions \( y = 12x - 4 \) and its vertically dilated version, we first need to determine the x-intercept of the original function.
### Finding the x-intercept of the original function:
Set \( y = 0 \):
\[
0 = 12x - 4
\]
Add 4 to both sides:
\[
4 = 12x
\]
Now, divide both sides by 12:
\[
x = \frac{4}{12} = \frac{1}{3}
\]
Thus, the x-intercept of the original function is \( \left( \frac{1}{3}, 0 \right) \).
### Finding the vertically dilated function:
The vertically dilated function with a factor \( k = 6 \) is given by multiplying the original function by \( 6 \):
\[
y = 6(12x - 4) = 72x - 24
\]
### Finding the x-intercept of the dilated function:
Set \( y = 0 \):
\[
0 = 72x - 24
\]
Add 24 to both sides:
\[
24 = 72x
\]
Now, divide both sides by 72:
\[
x = \frac{24}{72} = \frac{1}{3}
\]
### Conclusion on the x-intercepts:
The x-intercepts are:
- For the original function: \( \left( \frac{1}{3}, 0 \right) \)
- For the dilated function: \( \left( \frac{1}{3}, 0 \right) \)
### Response:
The correct option is:
**The original function has an x-intercept of \( ( \frac{1}{3}, 0 ) \), and the dilated function has an x-intercept of \( ( \frac{1}{3}, 0 ) \)**.
### Finding the x-intercept of the original function:
Set \( y = 0 \):
\[
0 = 12x - 4
\]
Add 4 to both sides:
\[
4 = 12x
\]
Now, divide both sides by 12:
\[
x = \frac{4}{12} = \frac{1}{3}
\]
Thus, the x-intercept of the original function is \( \left( \frac{1}{3}, 0 \right) \).
### Finding the vertically dilated function:
The vertically dilated function with a factor \( k = 6 \) is given by multiplying the original function by \( 6 \):
\[
y = 6(12x - 4) = 72x - 24
\]
### Finding the x-intercept of the dilated function:
Set \( y = 0 \):
\[
0 = 72x - 24
\]
Add 24 to both sides:
\[
24 = 72x
\]
Now, divide both sides by 72:
\[
x = \frac{24}{72} = \frac{1}{3}
\]
### Conclusion on the x-intercepts:
The x-intercepts are:
- For the original function: \( \left( \frac{1}{3}, 0 \right) \)
- For the dilated function: \( \left( \frac{1}{3}, 0 \right) \)
### Response:
The correct option is:
**The original function has an x-intercept of \( ( \frac{1}{3}, 0 ) \), and the dilated function has an x-intercept of \( ( \frac{1}{3}, 0 ) \)**.
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