To determine the maximum number of games Kelly can play, we need to set up an inequality based on her total budget and the costs involved.
- Kelly has $10 to spend.
- The admission to the carnival costs $3.
- Each game costs $0.25.
So, after paying for admission, the amount Kelly has left to spend on games is:
\[ 10 - 3 = 7 \]
Let \(x\) represent the number of games Kelly plays. Since each game costs $0.25, the total cost for \(x\) games would be \(0.25x\).
Thus, the inequality that models how much money she can spend on games is:
\[ 0.25x \leq 7 \]
Now, if you consider the original context of how much money she has in total, we would include the admission cost in the inequality:
\[ 0.25x + 3 \leq 10 \]
Rearranging this gives:
\[ 0.25x \leq 7 \]
This means the inequality that can be used to determine the maximum number of games Kelly can play is:
\[ 0.25x + 3 \leq 10 \]
For Question 2, to find the maximum number of games she can play, we can solve the inequality \(0.25x + 3 \leq 10\):
Subtract 3 from both sides:
\[ 0.25x \leq 7 \]
Now, divide both sides by 0.25 (or multiply by 4):
\[ x \leq 28 \]
So Kelly can play at most 28 games.