The specific conductance of saturated solution of AgCl is found to be `1.86xx10^(-6) ohm^(-1) cm^(-1)` and that of water is `6 xx 10^(-8) ohm^(-1) cm^(-1)`. The solubility of agCl is ... .
Given, `Lambda_(AgCl)^(@)=137.2 ohm^(-1) cm^(2) eq^(-1)`

The conductivity of saturated solution of AgCl is found to be 1.86 xx 10^(-6) ohm^(-1)cm^(-1) and that of water is 6xx 10^(-8) ohm^(-1)cm^(-1) . If lamda^0 AgCl is

The conductivity of a saturated AgCl solution is found to be 1.86 xx 10^(-6) S cm^(-1) and that for water is 6.0 xx 10^(-8) S cm^(-1) . The solubility of AgCl is (molar conductivity =137.2 )

The specific conductivity of a saturated AgCl solution if found to be 2.12 xx 10^(-6)S cm^(-1) and that for water is 6 xx 10^(-8)S cm^(-1) . The solubility of AgCl is: (lambda_(eq)^(prop) = 103 S "equiv"^(-1) cm^(2))

The specific conductivity of a saturated AgCI solution if found to be 2.12 xx 10^(-6)S cm^(-1) and that for water is 6 xx 10^(-8)S cm^(-1) . The solubility of AgCI is: (lambda_(eq)^(prop) = 103 S "equiv"^(-1) cm^(2))

The specific conductivity of a saturated AgCI solution if found to be 2.12 xx 10^(-6)S cm^(-1) and that for water is 6 xx 10^(-8)S cm^(-1) . The solubility of AgCI is: (lambda_(eq)^(prop) = 103 S "equiv"^(-1) cm^(2))

The specific conductance of saturated solution of CaF_2 is 3.86 xx 10^(-5) ohm ch^(-1) and that of water used for solution is 1.15 xx 10^(-5) . The specific conductance of CaF_2 along is

The specific conductance of a saturated solution of AgCl in water is 1.826xx10^(-6)"ohm"^(-1)cm^(-1) at 25^(@)C . Calculate its solubility in water at 25^(@)C . [Given Lambda_(m)^(oo)(Ag^(+))=61.92" ohm"^(-1)cm^(2)mol^(-1) "and" Lambda_(m)^(oo)(Cl^(-))=76.34" ohm"^(-1)cm^(2)mol^(-1)] .

The specific conductance of a salt of 0.01M solution is 1.061xx10^(-4)ohm^(-1)cm^(-1) . Molar conductance of a same solution is ( in ohm^(-1)cm^(2)"mole"^(-1) )