We also assessed the effects of MD-sampling time on the effectiveness of the RDF corrections, and have shown that for the cross-term RDFs, the significant reduction in particle-pairs that can be sampled for each frame compared to the solvent-solvent RDFs necessitates higher requirements on sampling-time for the corrections to make S(0; R) converge. For the Ag + ion in water, roughly 20 ns sampling time was needed. Water correlations are on the 1-10 ps range, meaning that roughly 2,000-20,000 uncorrelated frames were needed for robust evaluations of the corrections. Since the computational cost of classical MD simulations has been greatly reduced with the advent of performing calculations on GPUs, it has become a routine operation to produce >20 ns trajectories on a single GPU node, and we therefore recommend always assessing the convergence of the corrections against sampling time, before continuing to employ the simulated signal in further modeling, if the computational cost of the employed potential allows for it.