The molar conductivity at infinite dilution of a strong electrolyte can be obtained by extrapolating the curve `lambda_(m)` versus `sqrt(c )` but same cannot be done for a weak electrolyte. Explain.

The plot of molar conductance vs sqrt(C) in strong electrolyte , is

For a dilute solution of a strong electrolyte, the variation of molar conductivity with concentration is given by

Statement-I: Molar conductivity of a weak electrolyte at infinite dilution cannot be determined experimenttally. Because Statement-II: Kohlrausch law help to find the moar conductivity of a weak electrolyte at infinite dilution.

A: Molar conductivity of solution increase with dilution for weak electrolyte. R: Degree of ionization increases with dilution.

Explain with a graph the variation of molar conductivity of a strong electrolyte with dilution.

STATEMENT 1 The molar conductance of weak electrolyte at infinite dilutin is equal to sum of molar conductanced of cation and anion and STATEMENT 2 Kohlraushc 's law is applicable for both strong and weak electrolytes

The following curve is obtained when molar conductivity (wedge_(m)) is plotted against the square root of concentration, c^(1//2) for two electrolytes A and B (a) How do you account for the increase in the molar conductivity of the electrolyte A on dilution. (b) As seen from the graph, the value of limiting molar conductivity (wedge_(m)^(0)) for electrolyte B cannot be obtained graphically. How can this value be obtained?1

The molar conductance at infinite dilution for electrolytes BA and CA are 140 and 120 ohm^(-1) Cm^(2) mol^(-1) respectively. If the molar conductance at infinite dilution of BX is 198 ohm^(-1) cm^(2) mol^(-1) , then then at infinite dilution, the molar conductance of is:

The variation in Lambda_m with concentration for a strong electrolyte can be represented by the equation, Lambda_m=Lambda_m^@ -AC^(1//2) The value of constant A for a given solvent and temperature depends upon the type of electrolyte i.e., cations and anions produced on dissociation of electrolyte in the solution . NaCl, MgCl_2 and CaSO_4 are known as

The variation in Lambda_m with concentration for a strong electrolyte can be represented by the equation, Lambda_m=Lambda_m^@ -AC^(1//2) The value of constant A for a given solvent and temperature depends upon the type of electrolyte i.e., cations and anions produced on dissociation of electrolyte in the solution . Which of the following statements is correct regarding variations of molar conductivity with concentration.