To solve the problem, we need to determine the maximum weight that each box can weigh without exceeding the elevator's weight limit.
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Identify the total weight limit: The maximum weight of the elevator is 2,000 pounds.
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Account for Lionel's weight: Lionel weighs 170 pounds, so we must subtract his weight from the total weight limit to determine the weight limit for the boxes: \[ \text{Weight limit for boxes} = \text{Total weight limit} - \text{Lionel's weight} = 2000 - 170 = 1830 \text{ pounds} \]
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Determine the weight per box: Since there are 10 boxes, we can divide the total weight limit for the boxes by the number of boxes to find the maximum weight each box can hold: \[ \text{Maximum weight per box} = \frac{\text{Weight limit for boxes}}{\text{Number of boxes}} = \frac{1830}{10} = 183 \text{ pounds} \]
Thus, each box can weigh a maximum of 183 pounds.
Graphing the Solution
Since we found that each box can weigh up to 183 pounds, we can show this on a number line:
- The number line should range from 0 to at least 200 pounds (or more if specified).
- We would plot a closed point at 183 and then indicate that boxes can weigh anywhere from 0 up to 183 pounds but not more.
Final Representation:
- A closed point at 183 on the number line with a line extending to the left (indicating weights from 0 to 183 pounds).
Based on the options provided, the correct representation corresponds to the one that shows a closed point at 183 with a line extending to the right beyond 300 pounds, indicating that boxes can weigh up to 183 pounds and there is no restriction on weights greater than that point.
Correct answer: An illustration shows a number line labeled Weight of Each Box in the Elevator. The number line ranges from 50 to 300 in 50 unit increments. A closed point is plotted at 183. A line extends from that point to the right and goes beyond 300.