Given the current landscape of challenges associated with modeling cation-π interactions, we have started exploring methods that can account for polarization effects without adding computational cost by implementing the ECC approach. ECC effectively accounts for electronic polarization in a mean field way by scaling the (partial) charges on the (molecular) ions by the reciprocal square root of the high-frequency dielectric constant. Our resulting force field incorporating implicit electronic polarizability through charge scaling, denoted as prosECCo75, has demonstrated its ability to refine ion-ion interactions in biological contexts effectively. Here, we demonstrate that this approach has also the potential to improve the quantitative accuracy of cation-π interactions while maintaining computational efficiency, making it well-suited for large-scale simulations.