Consider the reaction
$$\begin{array} { l }
M \stackrel { k _ { 1 } } { \longrightarrow } M _ { a ds} ^ { + } + e ^ { - } \
M _ { a ds } ^ { + } \stackrel { k _ { 2 } } { \longrightarrow } M _ { s o l } ^ { + }
\end{array}$$ . Frumkin isotherm is used to describe the adsorption. The kinetic parameter values are k 10 = 10 -9 mol cm -2 s -1 , b 1 = 10 V -1 , g = 15, $\beta$ 1 = -0.5 , k 20 = 10 -8 mol cm -2 s -1 , $\beta$ 2 = +0.5 and $\varGamma$ = 10 -8 mol cm -2 .
-The maximum number of 'loops' that can appear in complex plane plots is _____________

Question

Consider the reaction 
 $$\begin{array} { l } 
M \stackrel { k _ { 1 } } { \longrightarrow } M _ { a ds} ^ { + } + e ^ { - } \
M _ { a ds } ^ { + } \stackrel { k _ { 2 } } { \longrightarrow } M _ { s o l } ^ { + }
\end{array}$$ . Frumkin isotherm is used to describe the adsorption. The kinetic parameter values are k 10 = 10 -9 mol cm -2 s -1 , b 1 = 10 V -1 , g = 15, $\beta$ 1 = -0.5 , k 20 = 10 -8 mol cm -2 s -1 , $\beta$ 2 = +0.5 and $\varGamma$ = 10 -8 mol cm -2 .
-The maximum number of 'loops' that can appear in complex plane plots is _____________

Quizplus · Accepted Answer

The Answer of Consider the reaction 
 $$\begin{array} { l } 
M \stackrel { k _ { 1 } } { \longrightarrow } M _ { a ds} ^ { + } + e ^ { - } \
M _ { a ds } ^ { + } \stackrel { k _ { 2 } } { \longrightarrow } M _ { s o l } ^ { + }
\end{array}$$ . Frumkin isotherm is used to describe the adsorption. The kinetic parameter values are k 10 = 10 -9 mol cm -2 s -1 , b 1 = 10 V -1 , g = 15, $\beta$ 1 = -0.5 , k 20 = 10 -8 mol cm -2 s -1 , $\beta$ 2 = +0.5 and $\varGamma$ = 10 -8 mol cm -2 .
-The maximum number of 'loops' that can appear in complex plane plots is _____________

Consider the Reaction Frumkin Isotherm Is Used to Describe the Adsorption