In contrast to the two commercial solutions, the shifts of the DFT and ML network require a C-H correlation step to generate a 2D HSQC spectrum, a process that requires an additional layer of computational interpretation. This process must respect molecule symmetry and chirality to perform peak splitting or peak consolidation. In an HSQC NMR experiment, the number of peaks appearing in the spectrum correspond to the unique carbon-hydrogen pairs present in the molecule. Consequently, in symmetric molecules, peaks of distinct H-C couplings can coincide in the same position. However, in chiral compounds, these symmetric peaks may experience different chemical environments and, as a result, not merge into a single peak.