Some of the spin-scaled double hybrids tested here, especially those with range-separation, give a more robust description of noncovalent excited-state interactions corroborating their success in excitations of single chromophores. Despite their enhanced robustness, these TD-DFT methods remain limited by an inaccurate description of dispersion, important to the noncovalent excited-state interactions of excimer binding. Ground-state parametrised dispersion corrections, like the DFT-D types tested here, cannot adequately describe dispersion within these excited-state interactions. This further supports the call for excited-state specific dispersion corrections to best exploit the overall robustness of double hybrids for ground-and excited-state interactions. Following their success here, spin-scaled double hybrids in combination with an appropriately parametrised excited-state dispersion correction have potential to be one step closer towards a robust electronic structure method that works equally well for ground and excited-state problems. Tests on ground-state problems with our SCS/SOS DHDFs are underway and results will be reported separately.