Metal　sulfide　has　been　considered　an　ideal　sodium-ion　battery　(SIB)　anode　material　based　on　its　high　theoretical　capacity.　Nevertheless,　the　inevitable　volume　expansion　during　charge-discharge　processes　can　lead　to　unsatisfying　electrochemical　properties,　which　limits　its　further　large-scale　application.　In　this　contribution,　laminated　reduced　graphene　oxide　(rGO)　successfully　induced　the　growth　of　SnCoS4　particles　and　self-assembled　into　a　nanosheet-structured　SnCoS4@rGO　composite　through　a　facile　solvothermal　procedure.　The　optimized　material　can　provide　abundant　active　sites　and　facilitate　Na+　ion　diffusion　due　to　the　synergistic　interaction　between　bimetallic　sulfides　and　rGO.　As　the　anode　of　SIBs,　this　material　maintains　a　high　capacity　of　696.05　mAh　g−1　at　100　mA　g−1　after　100　cycles　and　a　high-rate　capability　of　427.98　mAh　g−1　even　at　a　high　current　density　of　10　A　g−1.　Our　rational　design　offers　valuable　inspiration　for　high-performance　SIB　anode　materials.　©　2023　Elsevier　Inc.