To make the standard linear sweep voltammogram a little bit more complex, it can be superimposed with an ultra-low frequency sinusoidal -here on the order of fractions of a mHz with the resulting dQ/dV plot shown in Figure . The result is that there are potential areas in the dQ/dV plot that are more whilst others are or less "dense" -however, here by design and not by choice as is the case for CCCV charging. It remains to be tested if the interesting simulatively observed shape, as shown in Figure , is really going to be observed in an experiment, but programming battery cyclers with these highly non-linear voltage profiles has proven to be challenging and remains a task for future research in non-linear battery cycling. By increasing the amplitude of the superimposed sinusoidal division by 0 in the dQ/dV (as dV approaches near 0) can be triggered that remains to be elucidated experimentally as it could trigger dendrite growth or by the very least exciting morphology changes. If the resulting shape of the dQ/dV plot is not observed this could also mark an interesting edge case for some uncaptured physics in the DFN model.