The standard reduction potential for \(Cu^{2+} / Cu\) is + 0.34. Calculate the reduction potential at pH = 14 for the above couple is:
\(K_{sp}\space of \space Cu(OH)_2\space is \space 1.0\times10^{-19}\).
A balloon filled with an air sample occupies \( 3 \, \text{L} \) volume at \( 35^\circ \text{C} \). On lowering the temperature to \( T \), the volume decreases to \( 2.5 \, \text{L} \). The temperature \( T \) is: [Assume \( P \)-constant]
This equation relates the equilibrium cell potential (also called the Nernst potential) to its concentration gradient across a membrane. If there is a concentration gradient for the ion across the membrane, an electric potential will form, and if selective ion channels exist the ion can cross the membrane.