To determine which equation corresponds to the points shown on the graph, we can analyze the provided points (-1, 10) and (1, 3.6).
First, let's check them against the proposed equations.
- For \(y = 6 \cdot (3.6)^x\):
- When \(x = -1\): \(y = 6 \cdot (3.6)^{-1} = 6 / 3.6 \approx 1.67\) (not a match for \(y = 10\))
- When \(x = 1\): \(y = 6 \cdot (3.6)^1 = 21.6\) (not a match for \(y = 3.6\))
This equation does not fit.
- For \(y = 6 \cdot (0.6)^x\):
- When \(x = -1\): \(y = 6 \cdot (0.6)^{-1} = 6 / 0.6 = 10\) (matches!)
- When \(x = 1\): \(y = 6 \cdot (0.6)^1 = 6 \cdot 0.6 = 3.6\) (matches!)
This equation fits both points.
- For \(y = 10 \cdot (1.05)^x\):
- When \(x = -1\): \(y = 10 \cdot (1.05)^{-1} \approx 9.52\) (not a match for \(y = 10\))
- When \(x = 1\): \(y = 10 \cdot (1.05)^1 = 10.5\) (not a match for \(y = 3.6\))
This equation does not fit.
- For \(y = 6 \cdot 0.6^x\) is essentially the same as the third equation expressed differently, so it will yield the same results as the previously evaluated \(y = 6 \cdot (0.6)^x\), confirming the match for both points as well.
Based on this analysis, the appropriate equation shown in the graph is \(y = 6 \cdot (0.6)^x\) (which can also be referred to as \(y = 6 \cdot 0.6^x\)).