To determine which graph represents the equation \( y = 13x - 4 \), we can analyze the slope and y-intercept from the equation.
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Identify the slope and y-intercept: The equation \( y = 13x - 4 \) is in slope-intercept form \( y = mx + b \), where:
- \( m \) (slope) = 13
- \( b \) (y-intercept) = -4
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Y-Intercept: The y-intercept means that when \( x = 0 \), \( y = -4 \). Therefore, one point on the line is \( (0, -4) \).
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Finding another point: The slope of 13 indicates that for every 1 unit you move to the right (in the x-direction), you move up 13 units (in the y-direction). We can choose \( x = 1 \):
- If \( x = 1 \): \[ y = 13(1) - 4 = 13 - 4 = 9 \]
- Therefore, another point on the line is \( (1, 9) \).
Let's check which of the provided options contains the points \( (0, -4) \) and another point consistent with the slope of 13 or is related to those points:
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Option A: Includes the points \( (0, -4) \) and \( (-2, 1) \). This does not fit as \( (-2, 1) \) does not correspond to the line based on the steep slope of 13.
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Option B: Includes \( (0, -4) \) and \( (3, -3) \). Here, \( (3, -3) \) does not align with the expected direction or steepness of the line.
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Option C: Includes the points \( (-4, 0) \) and \( (-3, 3) \). This also does not match our line.
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Option D: Includes \( (-4, 0) \) and \( (3, -3) \). Similar to the previous options, this does not fit with the line we established from the equation.
None of the graphs provided match the line defined by the equation \( y = 13x - 4 \) properly, as they don't propose points reflecting the rapid growth in \( y \) relative to \( x \).
So, the correct line representation should have points that reflect a very steep slope, like those iterating the pattern established above. Unfortunately, based on the choices given, none correctly meet the characteristics determined from \( y = 13x - 4 \). If you have further options or a clarifying statement about the graphs, it might yield a more accurate identification.