The　strong　electrostatic　interaction　between　high-charge-density　zinc　ions　(112　C　mm(-3))　and　the　fixed　crystallinity　of　traditional　oxide　cathodes　with　delayed　charge　compensation　hinders　the　development　of　high-performance　aqueous　zinc-ion　batteries　(AZIBs).　Herein,　to　intrinsically　promote　electron　transfer　efficiency　and　improve　lattice　tolerance,　a　revolutionary　family　of　high-entropy　oxides　(HEOs)　materials　with　multipath　electron　transfer　and　remarkable　structural　stability　as　cathodes　for　AZIBs　is　proposed.　Benefiting　from　the　unique　＂cock-tail＂　effect,　the　interaction　of　diverse　type　metal-atoms　in　HEOs　achieves　essentially　broadened　d-band　and　lower　degeneracy　than　monometallic　oxides,　which　contribute　to　convenient　electron　transfer　and　one　of　the　best　rate-performances　(136.2　mAh　g(-1)　at　10.0　A　g(-1))　in　AZIBs.　In　addition,　the　intense　lattice　strain　field　of　HEOs　is　highly　tolerant　to　the　electrostatic　repulsion　of　high-charge-density　Zn2+,　leading　to　the　outstanding　cycling　stability　in　AZIBs.　Moreover,　the　super　selectability　of　elements　in　HEOs　exhibits　significant　potential　for　AZIBs.