`Ag^(+)(aq)+e^(-)rarrAg(s) E^(@)=0.80V`
`Cu^(2+)(aq)+2e^(-)rarrCu(s) E^(@)=0.34V`

What is the value for `DeltaG^(@)` when `[Ag^(+)]=[Cu^(+)]=1.0M`?

Ag^(+)(aq)+e^(-)rarrAg(s) E^(@)=0.80V Cu^(2+)(aq)+2e^(-)rarrCu(s) E^(@)=0.34V Which expression gives the voltage for this cell if [Cu^(2+)]=1.00M and [Ag^(+)]=0.010M ?

Ag^(+)(aq)+e^(-)rarrAg(s) E^(@)=0.80V Cu^(2+)(aq)+2e^(-)rarrCu(s) E^(@)=0.34V Which increases immediately if the surface area of the silver electrode is increased?

Rh^(03+)(aq)+3e^(-)rarrRh(s) E^(@)=0.80V Cu^(+)(aq)+e^(-)rarrCu(s) E^(@)=0.52V What is the voltage of this cell if the concentrations of Cu^(+) and Rh^(3+) are each 1 M?

Rh^(03+)(aq)+3e^(-)rarrRh(s) E^(@)=0.80V Cu^(+)(aq)+e^(-)rarrCu(s) E^(@)=0.52V What is the direction of electronflow in the external circuit if the concentrations of Cu^(+) and Rh^(3+) are each 1M?

The electrotrode potentials for Cu^(2+)(aq.)+2e^(-) rarr Cu^(+)(aq.) and Cu^(+)(aq.)+e^(-) rarr Cu(s) are +0.15 V respectively. The value of E_(Cu^(2+))^(ɵ)//Cu will be:

The electrode potential for Cu^(2+) ( aq) + e^(-) rarr Cu^(+) (aq) Cu^(+) ( aq) + e^(-) rarr Cu(s) are + 0.15V and + 0.50 V respectively. The value of E_(Cu^(2+) // Cu)^(@) will be