In　this　paper,　the　nonlinear　oscillations　of　a　composite　laminated　circular　cylindrical　shell　clamped　along　a　generatrix　and　with　the　radial　pre-stretched　membranes　at　both　ends　are　studied　for　the　first　time.　The　dynamic　effect　of　membranes　on　the　circular　cylindrical　shell　is　replaced　by　a　nonlinear　elastic　excitation　with　the　damping.　Meanwhile,　the　parametric　excitation　of　the　changing　temperature　is　also　considered.　Based　on　Reddy＇s　third-order　shear　deformation　theory　and　von　Karman-type　nonlinear　kinematics,　the　nonlinear　partial　differential　equations　of　motion　for　the　composite　laminated　circular　cylindrical　shell　clamped　along　a　generatrix　are　established　by　Hamilton＇s　principle,　which　are　derived　into　a　set　of　coupled　nonlinear　ordinary　differential　equations　by　the　Galerkin　discretization.　The　asymptotic　perturbation　method　is　applied　to　obtain　the　four-dimensional　nonlinear　averaged　equations　in　the　case　of　1:2　internal　resonance　and　principal　parametric　resonance-1/2　subharmonic　resonance.　Corresponding　to　several　selected　values　of　the　parameters,　the　frequency-response　curves　are　obtained　by　numerical　method.　It　is　found　that　the　static　bifurcations,　the　jump　phenomena　as　well　as　the　hardening-spring-type　nonlinearity　behaviors　are　exhibited　and　that　different　parameters　change　the　frequency-response　curve　shape.　The　numerical　results　based　on　the　averaged　equations　are　obtained　to　exhibit　some　intrinsically　nonlinear　dynamic　behaviors　of　the　composite　laminated　circular　cylindrical　shell　clamped　along　a　generatrix　using　the　bifurcation　diagram,　waveform,　phase　plots　and　Poincar,　maps.　It　is　also　found　that　there　exist　alternately　the　periodic　and　chaotic　motions　of　the　circular　cylindrical　shell　clamped　along　a　generatrix　with　the　parameter　excitation　of　temperature　increases　in　a　certain　range.