The nuclear ensemble approach generates spectra that include direct solute-solvent interactions but lack vibronic features, whereas the standard FC approach generates spectra that include vibronic features but lack the effects of direct solute-solvent interactions. A family of computational approaches that combine the advantages of the ensemble approach and the FC approach, which we here call E-FC methods, were introduced in previous work, where we have described these approaches for combining ensemble sampling of the environment with Franck-Condon lineshapes, outlining methods with varying degrees of computational cost. Like the ensemble approach, snapshots of chromophore-environment configurations are first obtained at the desired temperature. Each configuration corresponds to a different local environment; the effects of the environment on the FC lineshape can be captured by freezing the solvent environment and then optimizing the ground and excited state geometry and computing the normal modes of the chromophore. The three E-FC approaches we've developed to incorporate these local environment effects with vibronic transitions are given in order of decreasing computational cost: