Calculate standard potential of cell `E_(cell)^(0)` by using `E^(0)_(Al^(3+) | Al)` and `E_(Cu^(2+)| Cu )^(0)` as –1.66V and + 0.34V respectively

Calculate E^(@) for the cell : Al|Al^(3+)(1 M)||Cu^(2+)(1M)|Cu Given : E_(Al^(3+)//Al)^(@) and E_(Cu^(2+)//Cu)^(@) as -1.66 V and + 0.34 V respectively

Calculate the emf of cell, Al|Al^(3+)||Cu^(2+)|Cu Given : E^(@) (Al^(3)|Al) = - 1.66V and E^(@) (Cu^(2+)|Cu) = + 0.34 V

The standard cell potential for the cell Zn|Zn^(2+) (1 M)|| Cu^(2+) (1 M)| Cu Given E_(Cu^(2+)//Cu)^(@) = 0.34 V and E_(Zn^(2+)//Zn)^(@) = - 0.76 V is

Calculate the reduction potentials for the following half cells: Cu|Cu^(2+)(0.2M), E_(Cu^(2+),Cu)^@=0.34V

The standard reduction potential of Zn^(2+)|Zn and Cu^(2+)|Cu are -0.76V and +0.34 V respectively. What is the cell e.m.f (in V) of the following cell? ((RT)/(F)=0.059) Zn//Zn^(2+)" "(0.05M)//Cu^(2+)(0.005M)//Cu

Given that the standard potentials ((E^(@))) of CU^(2+)//Cu and CU^(+)//Cu are 0.34V and 0.522V respectively , the E^(@) of CU^(2+)//CU^(+) is :