The molar conductance of NaCl vauies with the concentration as shown in the following table. And all values follows the equation `lambda_(m)^(C)=lambda_(m)^(oo)-bsqrtC` Where `lambda_(m)^(C)`= molar specific conductance `lambda_(m)^(oo)`=molar specific conductance at infinite dilution C = molar concentration `{:("Molar concentration","Molar conductance of NaCl in ohm"^(-1)"cm"^(2)"mole"^(-1)),(4xx10^(-4),107),(9xx10^(-4),97),(16xx10^(-4),87):}`
When a certain conductivity cell (C) was filled with `25xx10^(-4)(M)` NaCl solution. The resistance of the cell was found to be 1000 ohm. At Infinite dilution, conductance of `CI^(-)` and `SO_(4)^(-2)` are 80 `ohm^(-1)cm^(2)"mole"^(-1)` and 160 `ohm^(-1)cm^(2)"mole"^(-1)` respectively.
What is the molar conductance of NaCl at infinite dilution?

The molar conductance of NaCl vauies with the concentration as shown in the following table. And all values follows the equation lambda_(m)^(C)=lambda_(m)^(oo)-bsqrtC Where lambda_(m)^(C) = molar specific conductance lambda_(m)^(oo) =molar specific conductance at infinite dilution C = molar concentration {:("Molar concentration","Molar conductance of NaCl in ohm"^(-1)"cm"^(2)"mole"^(-1)),(4xx10^(-4),107),(9xx10^(-4),97),(16xx10^(-4),87):} When a certain conductivity cell (C) was filled with 25xx10^(-4)(M) NaCl solution. The resistance of the cell was found to be 1000 ohm. At Infinite dilution, conductance of CI^(-) and SO_(4)^(-2) are 80 ohm^(-1)cm^(2)"mole"^(-1) and 160 ohm^(-1)cm^(2)"mole"^(-1) respectively. What is the cell constant of the conductivity cell (C) :

The molar conductance of NaCl vauies with the concentration as shown in the following table. And all values follows the equation lambda_(m)^(C)=lambda_(m)^(oo)-bsqrtC Where lambda_(m)^(C) = molar specific conductance lambda_(m)^(oo) =molar specific conductance at infinite dilution C = molar concentration {:("Molar concentration","Molar conductance of NaCl in ohm"^(-1)"cm"^(2)"mole"^(-1)),(4xx10^(-4),107),(9xx10^(-4),97),(16xx10^(-4),87):} When a certain conductivity cell (C) was filled with 25xx10^(-4)(M) NaCl solution. The resistance of the cell was found to be 1000 ohm. At Infinite dilution, conductance of CI^(-) and SO_(4)^(-2) are 80 ohm^(-1)cm^(2)"mole"^(-1) and 160 ohm^(-1)cm^(2)"mole"^(-1) respectively. It the cell (C) is filled with 5xx10^(-3)(N)Na_(2)SO_(4) the obserbed resistance was 400 ohm. What is the molar conductance of Na_(2)SO_(4) .

The molar conductance of NaCl varies with the concentration as shown in the following table and all values follows the equation lambda_m^( C)=lambda_m^(oo)-bsqrtC where lambda_(m)^( C) =molar specific conductance lambda_(m)^(oo) =molar specific conductance at infinite dilution C=molar concentration {:("Molar Concentration of NaCl","Molar Conductance" "In" "ohm"^(-1)cm^(2)"mole"^(-1)),(4xx10^(-4),107),(9xx10^(-4),97),(16xx10^(-4),87):} When a certain conductivity cell (C) was filled with 25xx10^(-4) (M) NaCl solution.The resistance of the cell was found to be 1000 ohm.At Infinite dilution, conductance of Cl^(-) and SO_4^(-2) are 80 ohm^(-1) cm^(2) "mole"^(-1) and 160 ohm^(-1) cm^2 "mole"^(-1) respectively. If the cell ( C) is filled with 5xx10^(-3)(N)Na_(2)SO_(4) the obserbed resistance was 400 ohm.What is the molar conductance of Na_(2)SO_(4) .

The molar conductance of NaCl varies with the concentration as shown in the following table and all values follows the equation. lambda_(m)^(c)=lambda_(m)^(oo)-bsqrt(C) where lambda_(m)^(c) = molar specific conductance lambda_(m)^(oo)= molar specific conductance at infinite dilution C=molar concentration When a certain conductivity cell (C) was filled with 25 xx10^(-4)(M) NaCl solution, the resistance of the cell was found to be 1000 ohm. At infinite dilution, conductance of Cl^(-) and SO_(4)^(2-) are 80ohm^(-1) cm^(2) "mole"^(-1) and 160ohm^(-1) cm^(2) "mole"^(-1) respectively. What is the molar conductance of NaCl at infinite dilution?

The molar conductance of NaCl varies with the concentration as shown in the following table and all values follows the equation. lambda_(m)^(c)=lambda_(m)^(oo)-bsqrt(C) where lambda_(m)^(c) = molar specific conductance lambda_(m)^(oo)= molar specific conductance at infinite dilution C=molar concentration When a certain conductivity cell (C) was filled with 25 xx10^(-4)(M) NaCl solution, the resistance of the cell was found to be 1000 ohm. At infinite dilution, conductance of Cl^(-) and SO_(4)^(2-) are 80ohm^(-1) cm^(2) "mole"^(-1) and 160ohm^(-1) cm^(2) "mole"^(-1) respectively. What is the molar conductance of NaCl at infinite dilution?

The molar conductance of NaCl varies with the concentration as shown in the following table and all values follows the equation. lambda_(m)^(c)=lambda_(m)^(oo)-bsqrt(C) where lambda_(m)^(c) = molar specific conductance lambda_(m)^(oo)= molar specific conductance at infinite dilution C=molar concentration When a certain conductivity cell (C) was filled with 25 xx10^(-4)(M) NaCl solution, the resistance of the cell was found to be 1000 ohm. At infinite dilution, conductance of Cl^(-) and SO_(4)^(2-) are 80ohm^(-1) cm^(2) "mole"^(-1) and 160ohm^(-1) cm^(2) "mole"^(-1) respectively. What is the cell constant of the conductivity cell (C)?