To analyze the exponential equation \( m(p) = 20(2)^p \), let's break down the components:
-
Understanding the context:
- \( m \) represents the money available after passing it on to the next person.
- \( p \) represents the number of people who choose to pass the money on.
-
Examining the equation:
- The equation starts with an initial value of $20 when \( p = 0 \).
- As \( p \) increases, the value of \( m \) increases because the term \( (2)^p \) grows exponentially.
-
Range of the function:
- When \( p = 0 \), \( m(0) = 20(2^0) = 20 \).
- As \( p \) increases, \( m \) continues to increase without bound, so the range of \( m \) is \( m \geq 20 \). Therefore, the statement "The range (m-values) includes the values \( m \geq 20 \)" is true.
-
Behavior of the function:
- As \( p \) increases, \( m(p) \) increases quickly at first due to the exponential nature of the function and then continues to grow quickly but at a larger scale. This means it does not decrease; it only increases.
-
Domain of the function:
- The domain of the function is not restricted to \( p \geq 20 \); instead, \( p \) can take on any non-negative integer value (typically \( p \geq 0 \) in this context).
Conclusion:
The only true statement regarding the exponential equation \( m(p) = 20(2)^p \) is:
The range (m-values) includes the values \( m \geq 20 \).