SnO2　is　considered　as　a　promising　anode　material　for　sodium-ion　storage.　However,　the　low　electrical　conductivity　and　large　volume　expansion　during　repeated　cycling　process　hinder　its　practical　application.　To　address　these　issues,　we　designed　a　hybrid　structure　in　which　SnO2　nanosheets　were　grown　on　in-situ　formed　N-doped　branched　TiO2/C　nanofibers　(NBT/C@SnO2　NFs).　This　unique　design　can　improve　the　conductivity　and　structural　stability　of　the　electrode,　provide　enough　space　for　volume　expansion,　and　accelerate　the　transfer　rate　of　electrons　and　ions,　thereby　enhancing　the　electrochemical　performance.　As　a　result,　when　directly　used　as　an　anode　for　sodium-ions　batteries,　the　binder-free　NBT/C@SnO2　NFs　electrode　exhibits　outstanding　cycling　stability,　with　a　reversible　discharge　capacity　of　420.7　mA　h　g(-1)　after　500　cycles　at　200　mA　g(-1)　and　still　achieves　330.6　mA　h　g(-1)　at　a　very　high　current　density　of　2000　mA　g(-1).　This　work　provides　a　novel　strategy　for　the　design　of　electrode　materials　for　other　high-performance　battery　systems.