Equivalent weight of `N_(2)` in the change
`N_(2) rarr NH_(3)` is

Equivalent weight of NH_(3) in the change N_(2)rarrNH_(3) is :

Equivalent weight of NH_(3) in the change N_(2)rarrNH_(3) is :

Equivalent weight of N_2 in the change is : N_2 rarr NH_3

Equivalent weight of NH_3 in the change is : N_2 rarrNH_3

Assertion :- Equivalent weight of NH_(3) in the reaction N_(2) rarrNH_(3) is 17//3 while that of N_(2) is 28//6 . Reason :- "Equivalent weight" =("Molecular weight")/("number of "e^(-)" lost or gained/mole")

Assertion :- Equivalent weight of NH_(3) in the reaction N_(2) rarrNH_(3) is 17//3 while that of N_(2) is 28//6 . Reason :- "Equivalent weight" =("Molecular weight")/("number of "e^(-)" lost or gained/mole")

Equivalent weight of N_(2)H_(4) is

The equivalent weight of a species if acts as oxidant or reductant should be derived by : Eq. weight of oxidant or reductant = ("Mol. wt. of oxidant or reductant")/{("Number of electrons lost or gained by one"),("moleculae of oxidant or reductant"):} During chemical reactions, equal equivalents of one species react with same number of equivalents of other species giving same number of equivalent of products. However this is not true for reactants if they react in terms of moles. Also Molarity can be converted to normality by multiplying the molarity with valence factor or 'n' factor. Equivalent weight of N_(2) and NH_(3) in the change N_(2)rarrNH_(3) respectively is:

Equivalent weight of FeC_2O_4 in the change : FeC_2O_4 rarr Fe^(3+) + CO_2 is :

Equivalent mass of N, in the change N_(2)- NH_3 is