To analyze the given situation described by the equation \( m(p) = 20(2)^p \):
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Understanding the function:
- The function starts with \( m(0) = 20(2^0) = 20 \).
- Each time a person opts to double the money, the value of \( m \) doubles with respect to the number of people \( p \). Thus, as \( p \) increases, \( m \) increases rapidly because \( 2^p \) grows exponentially.
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Assessing the statements:
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First statement: "As p increases, m decreases slowly at first and then quickly."
- This statement is false. As we established, \( m \) increases as \( p \) increases, not decreases.
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Second statement: "As p increases, m increases quickly at first and then slowly."
- This statement is partially true but not fully accurate regarding the behavior of exponential growth. Exponential growth actually increases quickly and continues to increase quickly as \( p \) increases.
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Third statement: "The range (m-values) includes the values (m ≥ 20)."
- This statement is true. The minimum value \( m \) can take is 20 (when \( p = 0 \)), and as \( p \) increases, \( m \) will only increase.
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Fourth statement: "The domain (p-values) includes the values greater than or equal to 20 (p ≥ 20)."
- This statement is false. The domain of \( p \) is typically non-negative integers (0, 1, 2, ...), meaning \( p \) can be 0 or any positive integer, not restricted to values greater than or equal to 20.
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Based on this analysis, the correct statement is:
The range (m-values) includes the values (m ≥ 20).