A compound `H_(2)X` with molar mass of `80 g` is dissolved in a solvent having density of `0.4 g mL^(-1)`. Assuming no change in volume upon dissolution, the molality of a `3.2` molar solution is

A compound H_(2)X with molar weigth of 80g is dissolved in a solvent having density of 0.4 g mol^(-1) . Assuming no change in volume upon dissolution, the molarity of a 3.2 molar solution is

A compound H_(2)X with molar weigth of 80g is dissolved in a solvent having density of 0.4 g mol^(-1) . Assuming no change in volume upon dissolution, the molarity of a 3.2 molar solution is

A compound H_(2)X with molar weigth of 80g is dissolved in a solvent having density of 0.4 g mol^(-1) . Assuming no change in volume upon dissolution, the molarity of a 3.2 molar solution is

A compound H_2X with molar weight of 80 g is dissolved in a solvent having density of 0.4 g ml^-1 . Assuming no change in volume upon dissolution, the molality of a 3.2 molar solution is

A compound H_2X with molar weight of 80 g is dissolved in a solvent having density of 0.4 g ml^(-1) Assuming no change in volume upon sdissolution, the molality of a 3.2 molar solution is

A compound H_(2)X with molar mass of 80 g is dissolved in a solvent having density of 0.4 g mL^(-1) . Assuming no change in volume upon dissolution, what is the molality of 3.2 M solution of the compound ?

A compound MX_(2) with molar mass of 80 g is dissolved in a solvent having density 0.4 g mL^(-1) . Assuming that there is no change in volume upon dissociation, what is the molality of a 3.2 molar solution ?