Dichloromethane, an abundant and inexpensive methylene source, was first utilized in an electroreductive cyclopropanation by Perichon and co-workers in 1990. This study established proof of concept for the transformation of electron-deficient alkenes, albeit under harsh conditions due to the inert nature of the C-Cl bond. In 2001, Rusling and co-workers achieved a milder Vitamin B12mediated electroreduction of dichloromethane in a divided cell setup, demonstrating improved Faradaic efficiency. However, this method remained limited to the cyclopropanation of styrene (Scheme 1B). Building on earlier work involving nickel carbene formation from dibromomethane with zinc as a reductant, Nédélec and co-workers demonstrated an electroreductive activation of a nickel complex capable of cyclopropanating methyl maleates. Despite these advances, the synthetic potential of electroreductive cyclopropanation remains underexplored, with opportunities to further expand its scope and efficiency. Additionally, the need for more accessible and standardized electrochemical setups presents an avenue for future optimization and broader applicability in synthetic laboratories.