A comparison of partial detachment and divertor heat loads is made for n = 3 and n = 4 toroidal mode resonant magnetic perturbation (RMP) scenarios for ITER. X-point displacement , a figure of merit for edge localized mode suppression calculated by the MARS-F plasma response code, is used to select RMP configurations. For equivalent ξX the resulting intersection of the perturbed helical corrugations of the magnetic separatrix and divertor target (i.e. the magnetic footprints) extend from the original strike point for the n = 4 scenario, compared to for the n = 3. A hybrid mode which superimposes contributions from both modes is also explored. For each RMP scenario and a no-RMP reference, a 7-step scan of the main ion injection rate transitions EMC3-EIRENE simulations of the perturbed scrape-off layer (SOL) from attached to partially detached solutions. The low-density (i.e. attached regime) simulations show that the reorganization of the SOL into the toroidally discrete helical lobes localizes power deposition on the target, increasing peak heat loads from in no-RMP reference to in the n = 3 and n = 4 scenarios respectively. The peak heat load increases to in the scenario because the heat load becomes further biased towards a single lobe structure. The partially detached SOL simulations show that it is more difficult to mitigate peak heat loads in the larger magnetic footprint scenario (n = 4) where the peak heat load occurs further along the lobe structure, away from the original equilibrium strike point.