The　primary　resonance　and　nonlinear　vibrations　of　the　functionally　graded　graphene　platelet　(FGGP)-reinforced　rotating　pretwisted　composite　blade　under　combined　the　external　and　multiple　parametric　excitations　are　investigated　with　three　different　distribution　patterns.　The　FGGP-reinforced　rotating　pretwisted　composite　blade　is　simplified　to　the　rotating　pretwisted　composite　cantilever　plate　reinforced　by　the　functionally　graded　graphene　platelet.　It　is　novel　to　simplify　the　leakage　of　the　airflow　in　the　tip　clearance　to　the　non-uniform　axial　excitation.　The　rotating　speed　of　the　steady　state　adding　a　small　periodic　perturbation　is　considered.　The　aerodynamic　load　subjecting　to　the　surface　of　the　plate　is　simulated　as　the　transverse　excitation.　Utilizing　the　first-order　shear　deformation　theory,　von　Karman　nonlinear　geometric　relationship,　Lagrange　equation　and　mode　functions　satisfying　the　boundary　conditions,　three-degree-of-freedom　nonlinear　ordinary　differential　equations　of　motion　are　derived　for　the　FGGP-reinforced　rotating　pretwisted　composite　cantilever　plate　under　combined　the　external　and　multiple　parametric　excitations.　The　primary　resonance　and　nonlinear　dynamic　behaviors　of　the　FGGP-reinforced　rotating　pretwisted　composite　cantilever　plate　are　analyzed　by　Runge-Kutta　method.　The　amplitude-frequency　response　curves,　force-frequency　response　curves,　bifurcation　diagrams,　maximum　Lyapunov　exponent,　phase　portraits,　waveforms　and　Poincare　map　are　obtained　to　investigate　the　nonlinear　dynamic　responses　of　the　FGGP-reinforced　rotating　pretwisted　composite　cantilever　plate　under　combined　the　external　and　multiple　parametric　excitations.