Consider the following equations for a cell reaction
`A+BiffC+D, E^(@)=x"volt",K_(eq)=K_1`
`2A+2Biff2C+2D, E^(@)=y"volt",K_(eq)=K_2` then:

Consider the following equations for a cell reaction {:(A+Biff C + D,E^(o)=x" volt, K"_(eq)="k"_(1)),(2A+2Biff2C+2D,E^(o)=y" volt, K"_(eq)="k"_(2)):} then which of these is the correct relation ?

Consider the following equations for a cell reaction, A + B rarr C + D , E^(@) = x "volt", Delta G= Delta G_(1) 2A + 2B rarr 2C + 2D, E^(@) = y "volt", DeltaG = DeltaG_(2) Then,

Consider the following equations for a cell reaction, A + B rarr C + D , E^(@) = x "volt", Delta G= Delta G_(1) 2A + 2B rarr 2C + 2D, E^(@) = y "volt", DeltaG = DeltaG_(2) Then,

Consider the following equilibrium reactions at 25^oC , A(g)+3B(g)hArr2C(g),K_(eq)=x A(g)+D(g)hArr2E(g),K_(eq)=y B(g)+D(g)hArrF(g),K_(eq)=z then the value of equilibrium constant for the reaction 2C+4DhArr2E+3F , at 25^oC is

Consider the following first order competing reactions: X overset(k_(1)) to A + B and Y overset(k_(2)) to C + D If 50% of the reaction of X was completed when 96% of the reaction of Y was completed, the ratio of thoir rate constant ( k_2 // k_1 ) is:

In the following equilibria I:A+2B hArr C, K_(eq)=K_(1) II: C+DhArr 3A, K_(eq)=K_(2) III, 6B+D hArr 2C, K_(eq)=K_(3) Hence,

In the following equilibria I:A+2B hArr C, K_(eq)=K_(1) II: C+DhArr 3A, K_(eq)=K_(2) III, 6B+D hArr 2C, K_(eq)=K_(3) Hence,