Hydrogen　generated　in　electrolyzers　is　discussed　as　a　key　element　in　future　energy　scenarios,　but　oxygen　evolution　as　the　standard　anode　reaction　is　a　complex　multi-step　reaction　requiring　a　high　overpotential.　At　the　same　time,it　does　not　add　value-the　oxygen　is　typically　released　into　the　atmosphere.　Alternative　anode　reactions　which　can　proceed　at　similar　current　densities　as　the　hydrogen　evolution　are,　therefore,　of　highest　interest.　We　have　discovered　a　high-performance　electrode　based　on　earth-abundant　elements　synthesized　in　the　presence　of　H2O2,　which　is　able　to　sustain　current　densities　of　close　to　1　A　cm(-2)　for　the　oxidation　of　many　organic　molecules,　which　are　partly　needed　at　high　production　volumes.　Such　anode　reactions　could　generate　additional　revenue　streams,　which　help　to　solve　one　of　the　most　important　problems　in　the　transition　to　renewable　energy　systems,　i.e.　the　cost　of　hydrogen　electrolysis.