To determine which set of numbers are all solutions to the inequality \( \frac{60}{g} > 3 \times 5 \), we first simplify the inequality:
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Calculate \( 3 \times 5 \): \[ 3 \times 5 = 15 \]
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Rewrite the inequality: \[ \frac{60}{g} > 15 \]
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Next, we can manipulate the inequality by multiplying both sides by \( g \) (assuming \( g > 0 \)): \[ 60 > 15g \]
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Divide both sides by 15: \[ \frac{60}{15} > g \] \[ 4 > g \] or equivalently, \[ g < 4 \]
Now we need to evaluate the sets of numbers:
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Set 1: 2, 3, and 4
- \( 2 < 4 \) ✓
- \( 3 < 4 \) ✓
- \( 4 < 4 \) ✗ (not valid)
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Set 2: 1, 2, and 3
- \( 1 < 4 \) ✓
- \( 2 < 4 \) ✓
- \( 3 < 4 \) ✓
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Set 3: 4, 5, and 6
- \( 4 < 4 \) ✗ (not valid)
- \( 5 < 4 \) ✗ (not valid)
- \( 6 < 4 \) ✗ (not valid)
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Set 4: 3, 4, and 5
- \( 3 < 4 \) ✓
- \( 4 < 4 \) ✗ (not valid)
- \( 5 < 4 \) ✗ (not valid)
Based on this evaluation, the only valid set where all numbers satisfy the condition \( g < 4 \) is Set 2: 1, 2, and 3.
So the answer is 1, 2, and 3.