Size-dependent dynamic pull-in analysis of beam-type MEMS under mechanical shock based on the modified couple stress theory

Keyphrases

• Size Dependence 100%
• Mechanical Shock 100%
• Modified Couple Stress Theory 100%
• Beam Type 100%
• Shock Acceleration 100%
• Dynamic Pull-in 100%
• Microbeam 66%
• Single Degree of Freedom 66%
• Finite Element Method 33%
• Differential Equations of Motion 33%
• Classical Theory 33%
• Model Prediction 33%
• Computationally Efficient 33%
• Prediction Method 33%
• Euler-Bernoulli Beam 33%
• Size Stability 33%
• Size Effect 33%
• Stability Analysis 33%
• Theoretical Formulation 33%
• Micromechanics 33%
• Geometric Nonlinearity 33%
• Couple Stress 33%
• Governing Differential Equation 33%
• Hamilton's Principle 33%
• Stress Components 33%
• Fully Clamped 33%
• Material Length Scale Parameter 33%
• Voltage Amplitude 33%
• Beam Oscillation 33%
• Galerkin Approximation 33%
• Acceleration Pulse 33%
• High-shock 33%
• Maximum Amplitude 33%
• Beam Thickness 33%

Engineering

• Degree of Freedom 100%
• Microelectromechanical System 100%
• Mechanical Shock 100%
• Modified Couple Stress 100%
• Single Degree 100%
• Scale Parameter 50%
• Finite Element Analysis 50%
• Parametric Study 50%
• Classical Theory 50%
• Beam Model 50%
• Model Prediction 50%
• Stability Analysis 50%
• Length Scale 50%
• Bernoulli Beam 50%
• Size Effect 50%
• Governing Differential Equation 50%
• Hamilton's Principle 50%
• Stress Component 50%
• Geometric Nonlinearity 50%
• Pull-in Voltage 50%