To analyze the inequality \(-2x + 5y > 15\), we first convert the inequality into an equation to find the corresponding line:
\[ -2x + 5y = 15 \]
Rearranging this gives us:
\[ 5y = 2x + 15 \]
\[ y = \frac{2}{5}x + 3 \]
This line has a positive slope of \(\frac{2}{5}\) and a y-intercept at \(3\).
Now, we need to determine the region that satisfies the inequality \( -2x + 5y > 15\). Since this is a "greater than" inequality, we will shade the region above the line (as \(y > \frac{2}{5}x + 3\)).
Next, let's evaluate the options:
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First option: A dashed line with a positive slope and going through \((0, 3)\) and \((10, 7)\). This fits our line's description, and the shaded region above and to the left indicates \(y > \frac{2}{5}x + 3\), which matches our requirement.
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Second option: A dashed line with a negative slope going through \((0, 3)\) and \((5, 1)\). This does not have a positive slope and does not match our line.
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Third option: A dashed line with a positive slope going through \((0, 5)\) and \((10, 9)\). This line's intercept (5) is higher than ours (3); therefore, it does not represent our solution set as it is possibly for a different inequality.
Based on this analysis, the only graph that correctly represents the solution set of the inequality \(-2x + 5y > 15\) is:
Option 1.