Consider the Reaction Given By
-In the Same Mechanism, the Value Of }

Consider the reaction given by $$\begin{array} { l } M \stackrel { k _ { 1 } } { \longrightarrow } M _ { ads } ^ { + } + e ^ { - } \\\\M _ { a d s} ^ { + } \frac { k _ { 2 } } { \longleftarrow k _ { - 2 } } M _ { s o l } ^ { 2 + } + e ^ { - }\end{array}$$ .
-In the same mechanism, the value of $$\frac { d \theta } { d E }$$
is given by

A) $\frac {(b_{1}k_{1dc}(1-\theta _ { s s }) -{b_{2}k_{2dc}}\theta _ { s s } +b_{-2}{k_{-2dc}C_{M^{+2}_{sol}}(1-\theta _ { s s }) }}{k_{1dc}+k_{2dc}+{k_{-2d}C_{M^{+2}_{sol}}+{j??}}}$
B) $$\frac { \left( b _ { 1 } k _ { 1 dc} \left( 1 - \theta _ { s s } \right) - b _ { 2 } k _ { 2{ dc } } \theta _ { ss } \right) } { \left( k _ { 1 { dc } } + k _ { 2 dc } + k _ { - 2 dc } C _ {M _ { s ol { } } ^ { +2 } } + j \omega \Gamma \right) }$$
C) $\frac{\left(b_{1} k_{1dc}\left(1-\theta_{s s}\right) -b_{2} k_{2{dc}} \theta_{ss}+b_{-2} k_{-2 {dc}} C_{M_{sol}^{+2}}\right) }{\left(k_{1 {dc}}+k_{2{dc}}+k_{-2 {dc}} C_{M_{{ sol}}^{+2}}+j \omega \Gamma\right) }$

D) $\frac {(b_{1}k_{1dc}(1-\theta _ { s s }) +{b_{2}k_{2dc}}\theta _ { s s } -b_{-2}{k_{-2dc}C_{M^{+2}_{sol}}(1-\theta _ { s s }) }}{k_{1dc}+k_{2dc}+{k_{-2d}C_{M^{+2}_{sol}}+{j??}}}$