Ultra-Clear 3D Electrochemical Cell

Drag touch across the canvas to rotate the mobile view model.

Standard Potential (E°cell): 1.10 V
Actual Potential (Ecell): 1.10 V
Gibbs Energy (ΔG): -212.3 kJ

About this simulation

This model demonstrates how oxidation and reduction are coupled in an electrochemical cell. Change half-cells, concentration, and temperature to explore a simplified cell-potential calculation.

Anode and cathode

Oxidation occurs at the anode and reduction at the cathode. In a spontaneous galvanic cell, electrons move through the external circuit from anode to cathode.

Cell potential

Using reduction potentials, E°cell = E°cathode − E°anode. A positive E°cell indicates a favorable reaction under standard conditions.

Nernst equation

E = E° − (RT/nF) ln Q. R is the gas constant, T absolute temperature, F Faraday’s constant, and Q the reaction quotient.

Gibbs energy

For a reversible cell, ΔG = −nFE. Under standard conditions, ΔG° = −nFE°.

Model limitations

Real cells can include non-ideal activities, resistance, junction potentials, and electrode kinetics; this simulation is intentionally simplified.

Safety

This is an educational model, not a substitute for supervised laboratory procedures.