



To solve this problem, we need to understand the relationship between the charge (Q) on a capacitor and the potential difference (V) across its plates. The fundamental formula governing this relationship is given by:
\(V = \frac{Q}{C}\)
Where:
Given in this problem, the capacitance \(C = 2 \,\mu F = 2 \times 10^{-6} \,F\). The charge \(Q\) ranges from 0 to 5 C.
Substituting \(Q\) and \(C\) in our formula:
\(V = \frac{Q}{2 \times 10^{-6}}\)
This implies that \(V\) is directly proportional to \(Q\). Therefore, the graph of \(V\) vs. \(Q\) will be a straight line passing through the origin, indicating a linear relationship with a constant slope.
Now let's analyze the provided options to identify the correct graph:
Among the given options, only the graph which shows a straight line beginning at the origin represents the direct proportionality of \(V\) to \(Q\).
Conclusion: The correct graph is a line that passes through the origin with a positive slope, matching the image labeled as the correct answer: