Finite element formulations via the theorem of expended power in the Lagrangian, Hamiltonian and total energy frameworks

Keyphrases

• Lagrangian 100%
• Total Energy 100%
• Finite Element Formulation 100%
• Flutter 100%
• Hamiltonian Energy 100%
• Energy Frameworks 100%
• Postcritical 100%
• Aerodynamics 66%
• Vibration Mode 66%
• Piston Theory 66%
• Aerodynamic Damping 66%
• Aerodynamic Nonlinearity 66%
• Flutter Behaviors 66%
• Aerodynamic Model 33%
• Numerical Model 33%
• Galerkin Method 33%
• Finite Element Method 33%
• Semi-analytical 33%
• Axial Direction 33%
• Solution Set 33%
• Low Amplitude 33%
• Nonlinear Component 33%
• Three-frequency 33%
• Limit Cycle 33%
• Accuracy Analysis 33%
• Vibration State 33%
• Particular Solution 33%
• Whole Frequency Range 33%
• Odd Order 33%
• Cycle Condition 33%
• Damped Beam 33%
• Minimum Frequency 33%
• Flutter Model 33%
• Supersonic Airflow 33%
• Simply Supported 33%
• Modal Shape 33%
• Vibrating Mode 33%
• Modal Amplitude 33%
• Coupling Components 33%
• Rayleigh-Ritz Method 33%
• Even Order 33%
• Transversal Force 33%
• Vibrating Beam 33%
• Damping Component 33%
• Aerodynamic Analysis 33%

Engineering

• Energy Engineering 100%
• Finite Element Formulation 100%
• Aerodynamic Damping 100%
• Aerodynamic Force 100%
• Vibration Mode 100%
• Good Agreement 50%
• Axial Direction 50%
• State Solution 50%
• Special Attention 50%
• Simply Supported Beam 50%
• Damping Component 50%
• Aerodynamic Model 50%
• Aerodynamic Analysis 50%
• Numerical Model 50%
• Limit Cycle 50%
• Finite Element Analysis 50%
• Air Flow 50%