Molecular Field-Coupling Nanocomputing (mFCN) stands out as a promising solution to address the challenges associated with CMOS scaling. The mFCN uses the charge distribution of molecules to encode information, which is then transmitted through electrostatic intermolecular interactions. This cutting-edge technology offers the potential for achieving switching frequencies in the order of terahertz at room temperature while minimizing power dissipation. At present, the conducted studies have successfully provided a comprehensive understanding of the static behavior related to the propagation of information through molecules in mFCN technology. However, there is a limited investigation into the dynamic aspects related to the transient response of the molecules involved, in particular for what concerns the dynamic of the electronic motion in mFCN technology.