To determine which candle burns for the longest period of time, we need to analyze both functions.
For the first candle (Function 1): The height of the candle is given by the function: \[ f(x) = -2.5x + 25 \] To find out when the candle burns out (i.e., when the height is 0), we can set the function equal to 0 and solve for \( x \): \[ 0 = -2.5x + 25 \] \[ 2.5x = 25 \] \[ x = \frac{25}{2.5} = 10 \]
This means the first candle burns for 10 hours.
For the second candle (Function 2): Since no specific equation is given, we need to look at the graph. Typically, the x-coordinate at which the height first reaches 0 indicates when this candle burns out. Since we don’t have a visual of this graph, we will assume it does not exceed the provided range on the x-axis (from -1 to 10).
However, if it drops to 0 before reaching 10 hours (for example, at 5 hours or earlier), that would indicate a shorter burn time than the first candle.
Since we cannot analyze the graph directly without seeing it, we can assume a few scenarios. However, since the first candle clearly has an endpoint at 10 hours:
Conclusion:
- If the second candle burns out before 10 hours, then the first candle (with a burn time of 10 hours) will last longer.
- If the second candle reaches 0 height exactly at 10 hours too, then they will burn the same time.
Given the typical representation and that we often see functions decreasing linearly representing burning candles, we can tentatively conclude:
The first candle will burn for the longest period of time.
So, the correct response is: The first candle will burn for the longest period of time.