$M X_{2}$ dissocites into $M^{2 +}$ and $X^{-}$ ions in an aquesous solution, with a degree of dissociation $(α)$ of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .

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M X_{2}

dissocites into

M^{2 +}

and

X^{-}

ions in an aquesous solution, with a degree of dissociation

(α)

of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .

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M X_{2}

dissocites into

M^{2 +}

and

X^{-}

ions in an aquesous solution, with a degree of dissociation

(α)

of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .

$M X_{2}$ dissocites into $M^{2 +}$ and $X^{-}$ ions in an aquesous solution, with a degree of dissociation $(α)$ of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .

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MX2​ dissocites into M2+ and X− ions in an aquesous solution, with a degree of dissociation (α) of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .

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$M X_{2}$ dissocites into $M^{2 +}$ and $X^{-}$ ions in an aquesous solution, with a degree of dissociation $(α)$ of 0.5. The ratio of the observed depression of freezing point of the aqueous solution to the value of the depression of freezing point in the absence of ionic dissociation is .