In　this　study,　the　nonlinear　dynamic　behaviors　are　investigated　for　the　functionally　graded　graphene　platelet　(FGGP)　reinforced　composite　rotating　warping　blade　under　combined　the　aerodynamic　force　and　centrifugal　force.　The　blade　is　simplified　to　a　FGGP　reinforced　composite　rotating　warping　cantilever　plate　with　a　rectangular　cross-section.　Four　distribution　patterns　of　the　graphene　platelets　(GPLs)　along　the　thickness　of　the　plate　are　considered　when　establishing　the　dynamic　model.　The　effective　material　parameters,　Poisson＇s　ratio,　mass　density　and　Young＇s　modulus　of　the　FGGP　reinforced　composite　rotating　warping　cantilever　plate　are　calculated　based　on　the　modified　Halpin-Tsai　model　and　mixture　rule.　Considering　the　warping　effect,　the　dynamic　governing　equations　of　motion　for　the　rotating　FGGP　reinforced　composite　cantilever　plate　subjected　to　the　aerodynamic　force　and　centrifugal　force　are　established　by　using　the　first-order　shear　deformation　theory　and　Hamilton＇s　principle.　Galerkin　approach　is　exploited　to　transform　the　partial　differential　equations　of　motion　to　the　ordinary　differential　equations　of　motion　the　FGGP　reinforced　composite　rotating　warping　cantilever　plate.　Four-dimensional　autonomous　averaging　equations　of　the　system　are　obtained　by　using　the　asymptotic　perturbation　method.　The　parameter　analyzes　on　the　amplitude-frequency　and　force-amplitude　responses　of　the　FGGP　reinforced　composite　rotating　warping　cantilever　plate　are　carried　out　by　considering　the　1:2　internal　resonance　and　principal　parametric　resonance.　The　stability　of　the　steady　solution　of　the　autonomous　system　is　discussed.　The　influences　of　the　GPL　distribution　patterns,　rotating　speed,　aerodynamic　force　and　damping　on　the　chaotic　dynamics　are　investigated　for　the　FGGP　reinforced　composite　rotating　warping　cantilever　plate.　©　2022　Elsevier　Inc.