NERNST EQUATIONA. `E_(RP) = E_(RP)^(@) - (0.059)/(n) "log" ("[oxidant]")/("[reductant]")`B. `E_(OP) = E_(OP)^(@) - (0.059)/(n) "log" ("[oxidant]")/("[reductant]")`C. `E_(OP) = E_(OP)^(@) - (0.059)/(n) "log" ("[reductant]")/("[oxidant]")`D. `E_(RP) = E_(RP)^(@) + (0.059)/(n) "log" ("[reductant]")/("[oxidant]")`

NERNST EQUATIONA. `E_(RP) = E_(RP)^(@) - (0.059)/(n) "log" ("[oxidant]

1.	NERNST EQUATIONA. `E_(RP) = E_(RP)^(@) - (0.059)/(n) "log" ("[oxidant]")/("[reductant]")`B. `E_(OP) = E_(OP)^(@) - (0.059)/(n) "log" ("[oxidant]")/("[reductant]")`C. `E_(OP) = E_(OP)^(@) - (0.059)/(n) "log" ("[reductant]")/("[oxidant]")`D. `E_(RP) = E_(RP)^(@) + (0.059)/(n) "log" ("[reductant]")/("[oxidant]")`
Answer» Correct Answer - B A/c to Nernst equation .

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What are elementary reactions ?

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