The Nernst equation giving dependence of electrode reduction potential on concentration isA. `E=E^(@)+(2.303RT)/(nF)"log"([M])/([M^(n+)])`B. `E=E^(@)+(2.303RT)/(nF)"log"([M^(n+)])/([M])`C. `E=E^(@)-(2.303RT)/(nF)"log"([M^(n+)])/([M])`D. `E=E^(@)+(2.303RT)/(nF)"log"[M]^(n+)`

The Nernst equation giving dependence of electrode reduction potential

1.	The Nernst equation giving dependence of electrode reduction potential on concentration isA. `E=E^(@)+(2.303RT)/(nF)"log"([M])/([M^(n+)])`B. `E=E^(@)+(2.303RT)/(nF)"log"([M^(n+)])/([M])`C. `E=E^(@)-(2.303RT)/(nF)"log"([M^(n+)])/([M])`D. `E=E^(@)+(2.303RT)/(nF)"log"[M]^(n+)`
Answer» Correct Answer - B See important foumulae in Comprehensive Review.

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The Nernst equation giving dependence of electrode reduction potential on concentration isA. `E=E^(@)+(2.303RT)/(nF)"log"([M])/([M^(n+)])`B. `E=E^(@)+(2.303RT)/(nF)"log"([M^(n+)])/([M])`C. `E=E^(@)-(2.303RT)/(nF)"log"([M^(n+)])/([M])`D. `E=E^(@)+(2.303RT)/(nF)"log"[M]^(n+)`

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