To determine the correct equation that describes the relationship between the side length \( l \) and the total area \( A(l) \), we can analyze the values provided in the table.
From the table:
- For \( l = 2 \), \( A(2) = 8 \)
- For \( l = 4 \), \( A(4) = 16 \)
- For \( l = 6 \), \( A(6) = 24 \)
- For \( l = 8 \), \( A(8) = 32 \)
We can observe that as \( l \) increases, the total area \( A(l) \) appears to increase in a linear fashion.
To identify the relationship, let's look at the changes in \( A(l) \):
- When \( l = 2 \), \( A(2) = 4 \times 2 = 8 \)
- When \( l = 4 \), \( A(4) = 4 \times 4 = 16 \)
- When \( l = 6 \), \( A(6) = 4 \times 6 = 24 \)
- When \( l = 8 \), \( A(8) = 4 \times 8 = 32 \)
From this, we can see that the area is four times the side length (which can be interpreted as a scaling factor).
Thus, the equation that describes this relationship is:
\[ A(l) = 4l \]
Therefore, the correct response is:
A(l) = 4l