1 mol Na2SO4 will dissociate to 2 mol Na+ and 1 mol SO42- Therefore 0.350 M Na2SO4 will dissociate to 0.350*2 = 0.700 mol Na+ and 0.350*1 = 0.350 mol SO42- Therefore the total concentration of ions is 0.700 mol + 0.350 mol = 1.050 mol.
these electrolytes will dissociate a lot less compared to the dissociation of strong electrolytes. This is due to the fact that they don't completely ionize in a moderately solution.
K2CO3 ==> 2K^+ + CO3^2-0.025 M K2CO3 = 2 x 0.025 M K^+ = 0.05 M concentration of K+ ions.
The problem with this question is that you did not provide any solutions, as stated, to calculate the freezing point for.
There are 0.225 mol dm-3 FeBr3 molecules. For each FeBr3 that fully dissociates, we get 3 Br- (and one F3+). It is fully dissociated. So 0.225 x 3 = 0.675 mol dm-3.
An electrolyte is a conductor dissolved in water!
these electrolytes will dissociate a lot less compared to the dissociation of strong electrolytes. This is due to the fact that they don't completely ionize in a moderately solution.
Mostly ions, because the dissociation is near complete.
K2CO3 ==> 2K^+ + CO3^2-0.025 M K2CO3 = 2 x 0.025 M K^+ = 0.05 M concentration of K+ ions.
The problem with this question is that you did not provide any solutions, as stated, to calculate the freezing point for.
The dissociation is not complete.
There are 0.225 mol dm-3 FeBr3 molecules. For each FeBr3 that fully dissociates, we get 3 Br- (and one F3+). It is fully dissociated. So 0.225 x 3 = 0.675 mol dm-3.
It is not an electrolyte as such. It needs to have salts in it that conduct electricity in order to be a complete electrolyte.
AlCl3 is a strong electrolyte when dissolved in water it gives complete ionisation: Al3+ + 3 Cl-
The electrolyte composition of bile includes 145mEq/L sodium, 5mEq/L potassium, 110mEq/L of chloride and 40mEq/L bicarbonate. The body secretes roughly 1-1.5L of bile per day. In order to replace bile losses, lactated ringers is the appropriate intravenous fluid to administer.
which incorporates the solvent as a reactant for the interpretation of equilibrium processes involving electrolyte, that varying the concentration of water either by hydrostatic pressuse or by dilotion with dioxane does not change the isothermal value of the complete constant in depends only on temperatures.
which incorporates the solvent as a reactant for the interpretation of equilibrium processes involving electrolyte, that varying the concentration of water either by hydrostatic pressuse or by dilotion with dioxane does not change the isothermal value of the complete constant in depends only on temperatures.
Yes: dissolving in water giving complete electryte solution: CaI2 --> Ca2+ + 2I-