To analyze the equation \( m(p) = 20(2^p) \), let's break down the statements:
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Domain of the function: The variable \( p \) represents the number of people who decide to pass on the money. In this context, \( p \) can start from 0 and increase indefinitely (0 is when Mason keeps the money, and it can continue to increase as more people pass it on). Therefore, the domain of \( p \) is all non-negative integers \( (p \geq 0) \). The statement "The domain (p-values) include the values greater than or equal to 20 (p ā„ 20)" is incorrect since \( p \) can take values from 0 and upwards.
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Behavior of the function as \( p \) increases: The equation \( m(p) = 20(2^p) \) indicates that as \( p \) increases, \( m \) increases as well because \( 2^p \) grows exponentially. Specifically, it increases quite quickly since it's an exponential function. Thus the statement "As p increases, m increases quickly at first and then slowly" is not accurate either, because as \( p \) increases, \( m \) will continue to increase quickly without slowing down.
Given these evaluations, the correct conclusion is:
- The domain of \( p \) is starting from zero and extending to positive infinity, and as \( p \) increases, \( m \) increases quickly as \( p \) increases.
Therefore, none of the provided statements are true based on your description of the equation.