To determine which graph correctly represents the linear equation \(y = 23x - 1\), we can analyze the equation to find key points.
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Identify the y-intercept and slope:
- The y-intercept occurs when \(x=0\): \[ y = 23(0) - 1 = -1 \] So, one point on the line is \((0, -1)\).
- The slope of the line is 23, meaning for every unit increase in \(x\), \(y\) increases by 23.
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Find another point using the slope:
- If \(x = 1\): \[ y = 23(1) - 1 = 22 \] So, another point on the line is \((1, 22)\).
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Check which graph matches these points:
- The first option does not match because it states the line passes through \((0, -4)\) and \((1, 2)\).
- The second option states it passes through \((-2, -2)\) and \((0, 1)\), which also does not match.
- The third option mentions points \((0, -2)\) and \((1, -9)\), which does not match.
- The fourth option mentions points \((0, -1)\) and \((3, 1)\), and the point \((0, -1)\) matches one of our results, but \((3, 1)\) does not match because at \(x=3\): \[ y = 23(3) - 1 = 68 \]
Given the analysis, none of the presented options seem to accurately graph the line described by the equation \(y = 23x - 1\). However, the fourth option has one correct point \((0, -1)\), but due to changes in the second point, it remains misleading.
If you were looking for a point that best matches common linear graphing properties from your descriptions, you'd likely go with the fourth one.