To determine which point is a solution to the simultaneous inequalities \( y < 12x \) and \( y > 13x + 3 \), we need to test each point against both inequalities.
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Point (2, 2):
- For \( y < 12x \): \( 2 < 12(2) \) \( 2 < 24 \) - True
- For \( y > 13x + 3 \): \( 2 > 13(2) + 3 \) \( 2 > 26 + 3 \) \( 2 > 29 \) - False
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Point (25, 12):
- For \( y < 12x \): \( 12 < 12(25) \) \( 12 < 300 \) - True
- For \( y > 13x + 3 \): \( 12 > 13(25) + 3 \) \( 12 > 325 + 3 \) \( 12 > 328 \) - False
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Point (3, 6):
- For \( y < 12x \): \( 6 < 12(3) \) \( 6 < 36 \) - True
- For \( y > 13x + 3 \): \( 6 > 13(3) + 3 \) \( 6 > 39 + 3 \) \( 6 > 42 \) - False
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Point (10, 5):
- For \( y < 12x \): \( 5 < 12(10) \) \( 5 < 120 \) - True
- For \( y > 13x + 3 \): \( 5 > 13(10) + 3 \) \( 5 > 130 + 3 \) \( 5 > 133 \) - False
Since none of the points satisfy both inequalities, it seems there is no solution among the given options.