To determine which point is a solution to the simultaneous inequalities \( y < 12x \) and \( y > 13x + 3 \), we need to check each point against both inequalities.
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For the point \( (3, 6) \):
- Check \( y < 12x \): \( 6 < 12(3) \) → \( 6 < 36 \) (True)
- Check \( y > 13x + 3 \): \( 6 > 13(3) + 3 \) → \( 6 > 39 + 3 \) → \( 6 > 42 \) (False)
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For the point \( (25, 12) \):
- Check \( y < 12x \): \( 12 < 12(25) \) → \( 12 < 300 \) (True)
- Check \( y > 13x + 3 \): \( 12 > 13(25) + 3 \) → \( 12 > 325 + 3 \) → \( 12 > 328 \) (False)
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For the point \( (2, 2) \):
- Check \( y < 12x \): \( 2 < 12(2) \) → \( 2 < 24 \) (True)
- Check \( y > 13x + 3 \): \( 2 > 13(2) + 3 \) → \( 2 > 26 + 3 \) → \( 2 > 29 \) (False)
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For the point \( (10, 5) \):
- Check \( y < 12x \): \( 5 < 12(10) \) → \( 5 < 120 \) (True)
- Check \( y > 13x + 3 \): \( 5 > 13(10) + 3 \) → \( 5 > 130 + 3 \) → \( 5 > 133 \) (False)
None of the points satisfy both inequalities. Therefore, based on these checks, it appears that there is no solution among the provided points that satisfies both inequalities \( y < 12x \) and \( y > 13x + 3 \).