The　assembly　of　hybrid　nanomaterials　has　opened　up　a　new　direction　for　the　construction　of　high-performance　anodes　for　lithium-ion　batteries　(LIBs).　In　this　work,　we　present　a　straightforward,　eco-friendly,　one-step　hydrothermal　protocol　for　the　synthesis　of　a　new　type　of　Fe2O3-SnO2/graphene　hybrid,　in　which　zero-dimensional　(0D)　SnO2　nanoparticles　with　an　average　diameter　of　8　nm　and　one-dimensional　(1D)　Fe2O3　nanorods　with　a　length　of　similar　to　150　nm　are　homogeneously　attached　onto　two-dimensional　(2D)　reduced　graphene　oxide　nanosheets,　generating　a　unique　point-line-plane　(0D-1D-2D)　architecture.　The　achieved　Fe2O3-SnO2/graphene　exhibits　a　well-defined　morphology,　a　uniform　size,　and　good　monodispersity.　As　anode　materials　for　LIBs,　the　hybrids　exhibit　a　remarkable　reversible　capacity　of　1,530　mA　center　dot　g(-1)　at　a　current　density　of　100　mA　center　dot　g(-1)　after　200　cycles,　as　well　as　a　high　rate　capability　of　615　mAh　center　dot　g(-1)　at　2,000　mA　center　dot　g(-1).　Detailed　characterizations　reveal　that　the　superior　lithium-storage　capacity　and　good　cycle　stability　of　the　hybrids　arise　from　their　peculiar　hybrid　nanostructure　and　conductive　graphene　matrix,　as　well　as　the　synergistic　interaction　among　the　components.