Which graph correctly correlates `E_(cell)` as a function of concentration for the cell
`Zn(s)+2Ag^+(aq)toZn^(2+)(aq)+2Ag(s), E_(cell)^(@)=1.56V`
y-axis: `E_(cell)`, X-axis: `log_(10)"([Zn^(2+)])/([Ag^+]^2)`

Which graph correctly correlates E_(cell) as a function of concentrations for the cell (for deifferent values of M and M): Zn(s) +Cu^(2+)(M) rarr Zn^(2+)(M) + Cu(s),E_(cell)^@=1.10V X- axis:log_(10)[Zn^(2+)]/[Cu^(2+)],Y-axis : E_(cell)

Which graph correctly correlates E_("cell") as a function of concentration for the cell (for different values of M nad M' Zn(s)+Cu^(2+)(M)rarrZn^(2+(M')+Cu(s), E_("cell")^(@)=1.10V X - axis : log_(10).([Zn^(2+)])/([Cu^(2+)]), Y - axis : E_("cell")

Which graph correctly correlates E_("cell") as a function of concentration for the cell (for different values of M nad M' Zn(s)+Cu^(2+)(M)rarrZn^(2+(M')+Cu(s), E_("cell")^(@)=1.10V X - axis : log_(10).([Zn^(2+)])/([Cu^(2+)]), Y - axis : E_("cell")

Which graph correctly correlates E_(cell) as a funcation of concentrations for the cell (for different values of M and M' )? Zn(s) + Cu^(2+) (M) rarr Zn^(2+) (M') + Cu(s), E_(cell)^(@) = 1.10 V X -axis : (log_(10)[Zn^(2+)])/([Cu^(2+)]) Y-axis : E_("cell")

The equilibrium constant of the reaction : Zn(s)+2Ag^(+)(aq)toZn(aq)+2Ag(s),E^(@)=1.50V at 298 K is

The equilibrium constant of the reaction : Zn(s)+2Ag^(+)(aq)toZn(aq)+2Ag(s),E^(@)=1.50V at 298 K is

Calculate the equilibrium constant for the reaction Cu(s)+2Ag+(aq)rarrCu^(+2)(aq)+2Ag(s),E_("cell")^(@)=0.46V .

For the cell reaction Zn(s) + Cu^(2+)(aq) rarr Cu(s) + Zn^(2+)(aq) E_("cell")^(@) = 1.10 V, DeltaG^(@) is :

The cell reaction Zn(s)+2Ag^(+)(aq)rarrZn^(2+)(aq)+2Ag(s) is best represented by