While this role of nodal planes in molecular orbitals may be surprising in the realm of current density, the significance of nodal planes is not a novelty in chemical theory. They act as delineations within MOs, carving out regions of electron probability density, and thus, are instrumental in explaining a multitude of fundamental chemical phenomena such as bonding and spectroscopic properties. Our study does not merely elucidate the behavior of current density in dynamical systems; instead, it provides a connection between current density and the age-old concept of MOs and nodal planes. Consequently, this work bolsters the foundational understanding of chemical theory, uniting static and dynamic phenomena under a simple principle. By using MOs as a direct explanation for current density, we hope to narrow the gap between chemists and physicists, enabling a more diverse approach to single-molecule electronic devices.