Coagulating power is inversely proportional to coagulating value, and higher charge density of ions increases coagulating efficiency
The coagulating power of an electrolyte is inversely proportional to its coagulating value:
Coagulating power ∝ \(\frac{1}{\text{Coagulating value}}\)
The ratio of their coagulating powers is given by:
\(\frac{\text{Coagulating power of AlCl}_3}{\text{Coagulating power of NaCl}} = \frac{\text{Coagulating value of NaCl}}{\text{Coagulating value of AlCl}_3}\)
\(\frac{\text{Coagulating power of AlCl}_3}{\text{Coagulating power of NaCl}} = \frac{50.04}{0.09}\)
\(x = \frac{50.04}{0.09} = 556\)
The coagulating power of AlCl3 is 556 times that of NaCl.
In Carius method for estimation of halogens, 180 mg of an organic compound produced 143.5 mg of AgCl. The percentage composition of chlorine in the compound is ___________%. [Given: Molar mass in g mol\(^{-1}\) of Ag = 108, Cl = 35.5]
Consider the following reaction occurring in the blast furnace. \[ {Fe}_3{O}_4(s) + 4{CO}(g) \rightarrow 3{Fe}(l) + 4{CO}_2(g) \] ‘x’ kg of iron is produced when \(2.32 \times 10^3\) kg \(Fe_3O_4\) and \(2.8 \times 10^2 \) kg CO are brought together in the furnace.
The value of ‘x’ is __________ (nearest integer).
