To understand the behavior of specific conductance and equivalent conductance when a strong electrolyte solution is diluted, let's delve into the concepts of conductance in solutions:
Upon dilution, the concentration of ions per unit volume decreases, leading to the following observations:
These explanations align with Kohlrausch's Law, which states that at infinite dilution, the equivalent conductance of an electrolyte is the sum of the equivalent conductances of its isolated ions.
Based on these principles, the correct answer to the question is: The specific conductance decreases and equivalent conductance increases.
List I | List II | ||
|---|---|---|---|
| A | \(\Omega^{-1}\) | I | Specific conductance |
| B | \(∧\) | II | Electrical conductance |
| C | k | III | Specific resistance |
| D | \(\rho\) | IV | Equivalent conductance |
List I | List II | ||
|---|---|---|---|
| A | Constant heat (q = 0) | I | Isothermal |
| B | Reversible process at constant temperature (dT = 0) | II | Isometric |
| C | Constant volume (dV = 0) | III | Adiabatic |
| D | Constant pressure (dP = 0) | IV | Isobar |