Uncorrected candidate searches on the other hand over-sample kinetically unfavourable reactions. This leads to unphysical accumulation of some species with uncontrolled effects on the overall SEI structure. Kinetically corrected sampling takes into account both the number of candidates found and their activation barriers. As a result, the initial stages of the simulation is dominated by reduction of EC. This provides a more physical treatment of the competition between paths in the anode-electrolyte system under kinetic control. In practice, we find that higher reactive cycles can be accessed while maintaining a high level of S-5 competition. The use of corrected selection reduces the overall computational cost-per-cycle by reducing reliance on the update loop and thereby minimizing factors i) and ii) introduced in the main text. It also contributes to a near-shore aggregation mechanism of SEI growth that produces a heterogeneous SEI structure spanning tens of nanometres.