Equivalent conductance of 0.1 M HA (weak acid) solution is 10 `Scm^2` equivalen`t^(–1)` and that at infinite dilution is 200 `Scm^(2)` equivalen`t^(–1)`. Hence pH of HA solution is

Equivalent conductane of 0.1 M HA (weak acid) solution is 10 S cm^(2) "equivalent"^(-1) and that at infinite dilution is 200 S cm^(2) " equivalent"^(-1) Hence pH of HA solution is

Equivalent conductane of 0.1 M HA (weak acid) solution is 10 S cm^(2) "equivalent"^(-1) and that at infinite dilution is 200 S cm^(2) " equivalent"^(-1) Hence pH of HA solution is

The equivalent conductance of M/36 solution of a weak monobasic acid is 6 mho cm^(2) "equivalent"^(-1) and at infinite dilution is 400 mho cm^(2)" equivalent"^(-1) . The dissociation constant of this acid is

The equivalent conductivity of 0.1 M weak acid is 100 time less than that at infinite dilution. The degree dissociation is

The equivalent conductance of M//32 solution of a weak monobasic acid is 6.0 mho cm^(2) eq^(–1) and at infinite dilution is 200 mho cm^(2) eq^(–1) . The dissociation constant of this acid is:

The equivalent conductance of M//32 solution of a weak monobasic acid is 6.0 mho cm^(2) eq^(–1) and at infinite dilution is 200 mho cm^(2) eq^(–1) . The dissociation constant of this acid is:

Equivalent conductance of an weak acid at 0-1 M concentration is 100 times less than that at infinite dilution. The degree of the acid is

At a given temperature, specific conductance of 0.001(M) acetic acid solution is 5xx10^(-5)"S.cm"^(-1) and equivalent conductivity at infinite dilution is "390.5 S.cm"^(2).mol"^(-1) . What is the value of dissociation constant of acetic acid at the same temperature.