A　robust　triple-component　electrocatalyst　of　sub-2　nm　scale　consisting　of　platinum　nanoparticles　(Pt　NPs),　iron(II)　phthalocyanine　(FePc),　and　reduced　graphene　oxide　(rGO)　composite　(Pt/FePc@rGO)　was　fabricated　for　oxygen　reduction　reaction　(ORR)　evaluation.　The　catalyst　was　prepared　using　a　Suspension　Unit　for　Reactive　Evolution　(SURE)　approach.　The　merit　of　the　SURE　approach　lies　in　the　ease　of　formation　of　smaller　Pt　NPs　with　a　size　of　1.76　+/-　0.26　nm　and　uniformity　of　dispersion　on　rGO　surface　by　hydrogen　reduction.　The　Pt/FePc@rGO　catalysts　show　superior　mass　activities　of　281.29　mA　mg(pt)(-1)　at　0.86　V　in　an　alkaline　potassium　hydroxide　(KOH)　electrolyte　system.　Compared　with　the　commercial　Pt　on　carbon　(Pt/C)　catalysts,　the　ORR　current　density　of　the　Pt/FePc@rGO　catalysts　shows　2.8　times　greater　under　the　same　operating　conditions,　while　the　average　Pt　loading　is　only　approximately　one-third　of　the　commercial　catalyst　(Pt/C).　The　result　of　accelerated　durability　test　indicates　the　Pt/FePc　rGO　catalysts　show　similar　to　8　mV　decrease　in　half-wave　potential　after　10　000　cycles　0-1.23　V　(vs　reversible　hydrogen　electrode)　potential　cycling;　while　the　Pt/C　catalyst　was　subjected　much　larger　shift　(similar　to　53　mV).　Methanol　tolerance　study　also　indicates　the　Pt/FePc@rGO　shows　a　2　mV　shift　corresponding　to　a　current　density　of　2.5　mA　cm(-2),　while　the　commercial　Pt/C　shows　238　mV　shift　when　an　aliquot　of　0.1　M　methanol　and　0.1　M　KOH　aqueous　electrolyte　was　added.　All　these　results　demonstrate　that　the　obtained　catalyst　exhibited　enhanced　electrocatalytic　activity,　excellent　antimethanol　poisoning　property,　and　long-term　stability.