The image $(h, k)$ of point $P(2, -3)$ with respect to the line $5x - 3y = 2$ satisfies: 1. The midpoint of $PQ$ lies on the line. 2. Line $PQ$ is perpendicular to the given line. Midpoint condition: Midpoint $M\left( \frac{2 + h}{2}, \frac{-3 + k}{2} \right)$ lies on $5x - 3y = 2$: \[ 5 \left( \frac{2 + h}{2} \right) - 3 \left( \frac{-3 + k}{2} \right) = 2 \] \[ 5 (2 + h) - 3 (-3 + k) = 4 \implies 10 + 5h + 9 - 3k = 4 \implies 5h - 3k = -15 \] Perpendicularity condition: Slope of the line $5x - 3y = 2$ is $\frac{5}{3}$. Slope of $PQ$: \[ \frac{k - (-3)}{h - 2} = \frac{k + 3}{h - 2} \] Perpendicularity gives: \[ \left( \frac{k + 3}{h - 2} \right) \cdot \frac{5}{3} = -1 \implies 5 (k + 3) = -3 (h - 2) \] \[ 5k + 15 = -3h + 6 \implies 3h + 5k = -9 \] Solve: \[ 5h - 3k = -15 \quad (1) \] \[ 3h + 5k = -9 \quad (2) \] Multiply (1) by 5 and (2) by 3: \[ 25h - 15k = -75 \] \[ 9h + 15k = -27 \] Add: \[ 34h = -102 \implies h = -3 \] Substitute $h = -3$ into (2): \[ 3(-3) + 5k = -9 \implies -9 + 5k = -9 \implies k = 0 \] \[ h + k = -3 + 0 = -3 \] Option (1) is correct. Options (2), (3), and (4) do not match.