K$_{sp}$ of AgBr = 4y Then, the ratio of molarity (solubility) of (1) to (2) is:
For Ag$_2$CrO$_4$ (1), \( K_{sp} = [Ag^+]^2[CrO_4^{2-}] = (2s)^2(s) = 4s^3 \). Given \( 4s^3 = 32x \), so \( s = 2\sqrt[3]{x} \).
For AgBr (2), \( K_{sp} = [Ag^+][Br^-] = (t)(t) = t^2 \). Given \( t^2 = 4y \), so \( t = 2\sqrt{y} \).
Ratio \( s/t = 2\sqrt[3]{x} / 2\sqrt{y} = \sqrt[3]{x} / \sqrt{y} \). According to given options, we identify the match.
The first and second ionization constants of $H_{2X}$ are $2.5 \times 10^{-8}$ and $1.0 \times 10^{-13}$ respectively. The concentration of $X^{2-}$ in $0.1$ M $H_{2}X$ solution is ____________\( \times 10^{-13}\) M. (Nearest Integer)