According of Kohlrausch law, the limiting value of molar conductivity of an electrolyte `A_(2)B` isA. `lambda^(oo)._(A^(o+))+lambda^(oo)._((B^(-))`B. `lambda^(oo)._(A^(o+))-lambda^(oo)._(B^(-))`C. `2lambda^(oo)._(A^(o+))+(1)/(2)lambda^(oo)._((B^(-))`D. `2lambda^(oo)._(A^(o+))+lambda^(oo)._(B^(-))`

According of Kohlrausch law, the limiting value of molar conductivity

1.	According of Kohlrausch law, the limiting value of molar conductivity of an electrolyte `A_(2)B` isA. `lambda^(oo)._(A^(o+))+lambda^(oo)._((B^(-))`B. `lambda^(oo)._(A^(o+))-lambda^(oo)._(B^(-))`C. `2lambda^(oo)._(A^(o+))+(1)/(2)lambda^(oo)._((B^(-))`D. `2lambda^(oo)._(A^(o+))+lambda^(oo)._(B^(-))`
Answer» Correct Answer - d Factual statement.

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What are elementary reactions ?

According of Kohlrausch law, the limiting value of molar conductivity of an electrolyte `A_(2)B` isA. `lambda^(oo)._(A^(o+))+lambda^(oo)._((B^(-))`B. `lambda^(oo)._(A^(o+))-lambda^(oo)._(B^(-))`C. `2lambda^(oo)._(A^(o+))+(1)/(2)lambda^(oo)._((B^(-))`D. `2lambda^(oo)._(A^(o+))+lambda^(oo)._(B^(-))`

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