Rechargeable　aqueous　zinc-ion　batteries　(ZIBs)　are　recognized　as　a　potential　candidate　for　large-scale　energy　storage　due　to　its　high-security　and　low-expense　aspects.　However,　the　poor　structural　stability　and　sluggish　redox　kinetics　of　cathode　material　lead　to　the　serious　capacity　fading　and　bad　rate　performances,　which　hinders　its　practical　applications.　Herein,　a　novel　one-step　pyrolysis　strategy　is　conducted　for　fabricating　the　composites　of　multicomponent　active　substances　(including　WO3,　3　,　Bi　and　Bi2O3)　2　O　3　)　embedded　in　amorphous　N-doped　carbon　matrix　(BWO@C)　using　polydopamine-coated　Bi2WO6　2　WO　6　micro-flowers　as　the　precursors.　The　amorphous　nitrogen-　doped　carbon　endows　BWO@C　composite　to　possess　more　active-sites　and　higher　electrical　conductivity　for　rapid　electrons/ions　transport,　and　meanwhile　the　active　substances　could　be　effectively　utilized　even　undergoing　thousands　of　charge/discharge　cycles.　Therefore,　the　resulting　BWO@C　as　cathode　for　aqueous　ZIBs　exhibits　satisfying　rate　performances　as　well　as　outstanding　cycling　stability.　This　work　provides　a　simple　and　efficient　pathway　for　designing　the　cathode　materials　with　high　conductivity　and　high　structural　stability　to　achieve　remarkable　performances　and　long　life-span　of　aqueous　ZIBs.