Longer-range correlations can be inferred by analyzing the RDFs at greater distances. Figure presents the values of each RDF from Figure ) at a distance of r 0 = 800 pm, approximated to contain multiple solvation shells. For ease of comparison, a horizontal line representing the g = 1 value, indicative of an ideally uncorrelated pair of atoms, is included. Notably, in the Cl -ChOH interaction, the RDFs from FF1 and FF2 show significant deviations from unity with increasing LA ratios, hinting at the formation of ChCl clusters in the sample. Conversely, the FF3 force field exhibits a qualitatively di↵erent behavior, yielding RDF values closer to an ideally uncorrelated system, especially at higher LA ratios (1:5 and 1:10). The RDF values for Cl -LACOOH and Cl -LAOH interactions corroborate this idea: FF3 consistently yields values closest to g = 1, regardless of the LA ratio. This trend is particularly noticeable, again, in the 1:5 and 1:10 LA ratios. In summary, these observation further suggests that, among the three force fields, FF3 tends to significantly achieve a more homogeneous mixing of the different molecular compounds in the system as the ratio of LA molecules increases.