Limiting molar conductivity for some ions is given below (in S `cm^(2) mol^(-1)` ) :
`Na^+ -50.1 , Cl^(-) - 76.3 , H^(+) - 349.6 , CH_3COO^(-) -40.9 , Ca^(2+) -119.0`
What will be the limiting molar conductivities `(Lambda_m^@)` of `CaCl_2, CH_3COONa ` and NaCl respectively ?

The limiting molar conductivities Lambda_m^- for NaCl, KBr and KCl are 126,152 and 150 ~cm^2 mol^-1 respectively. The Lambda_s ,for Na Br is

The limiting molar conductivities (Lambda^(0)) for NaCl, KBr and KCl are 126, 152 and 150 S. cm^(2) "mol"^(-1) respectively. Then A for NaBr is

The limiting molar conductivities Lambda^(@) for NaCl,KBr nd KCl are 126,152 and 150 S cm^(2) "mol"^(-1) respectively. The Lambda^(@) for NaBr is:

(a) Calculate the degree of dissociation of 0.0024 M acetic acid if conductivity of this solution is 8.0 xx 10^(-5)" S "cm^(-1) . Given . lambda_(H^(+))^(@) = 349.6" S " cm^(2)" mol"^(-1), lamda_(CH_(3)COO^(-))^(@)= 40.9" S " cm^(2) " mol "^(-1) (b) Solutions of two electrolytes ‘A’ and ‘B’ are diluted. The limiting molar conductivity of ‘B’ increases to a smaller extent while that of ‘A’ increases to a much larger extent comparatively. Which of the two is a strong electrolyte? Justify your answer.

(a) Calculate the degree of dissociation of 0.0024 M acetic acid if conductivity of this solution is 8.0 xx 10^(-5)" S "cm^(-1) . Given . lambda_(H^(+))^(@) = 349.6" S " cm^(2)" mol"^(-1), lamda_(CH_(3)COO^(-))^(@)= 40.9" S " cm^(2) " mol "^(-1) (b) Solutions of two electrolytes ‘A’ and ‘B’ are diluted. The limiting molar conductivity of ‘B’ increases to a smaller extent while that of ‘A’ increases to a much larger extent comparatively. Which of the two is a strong electrolyte? Justify your answer.

If limiting molar conductivity of Ca^(2+) and Cl^(-) are 119.0 and 76.3 S cm^2 mol^(-1) , then the value of limiting molar conductivity of CaCl_2 will be :

Limiting molar conductivity of Mg^(2+) and Cl^(-) ions in water is 106.0 and 76.3 S cm^2 "mol"^(-1) . The limiting molar conductivity of magnesium chloride (in Scm^2 " mol"^(-1) ) in water is