Size-Dependent Effects in the Modified Green–Lindsay Thermoelasticity Model: Analysis of Ultrashort Pulse Interactions in the Presence of Electromagnetic Fields

Keyphrases

• Size Dependence 100%
• Electromagnetic Field 100%
• Ultrashort Pulses 100%
• Pulse Interaction 100%
• Thermoelastic Model 100%
• Wave Propagation 66%
• Generalized Thermoelasticity 66%
• Laser Pulse 33%
• Thermal Stress 33%
• Temperature Rate 33%
• Materials Experience 33%
• Short Pulse 33%
• Wave Reflection 33%
• Wave Behavior 33%
• Strain Rate 33%
• Iterative Approach 33%
• Thermal Gradient 33%
• Nonlinear Equations 33%
• Ultrashort Laser Pulses 33%
• Detailed Model 33%
• Governing Equation 33%
• Finite Element Method 33%
• Nonlocal Continuum Theory 33%
• Pulse Duration 33%
• Nonlocal Approach 33%
• Interaction Prediction 33%
• Applied Electric Field 33%
• Electronic Heat Conduction 33%
• Wave Transmission 33%
• Pure Metals 33%
• Thermal Wave 33%
• Thermodynamic Framework 33%
• Heat Conduction Theory 33%
• Strong Magnetic Field 33%
• Fast Electrons 33%
• Nonlocal Heat Conduction 33%
• Green-Lindsay 33%
• External Electric Field 33%
• Time-marching Schemes 33%
• Return Time 33%
• Applied Magnetic Field 33%
• Wave Propagation Speed 33%
• Nonlocality 33%
• Changes in Mechanical Properties 33%
• External Magnetic Field 33%
• Thermoelasticity 33%
• Programming Techniques 33%
• Advanced Programming 33%

Engineering

• Finite Element Analysis 100%
• Dependent Effect 100%
• Material Experience 100%
• Thermal Stress 100%
• Magnetic Field 100%
• Pulse Duration 100%
• Applied Electric Field 100%
• Applied Magnetic Field 100%
• Detailed Model 100%
• External Electric Field 100%
• External Magnetic Field 100%
• Thermal Gradient 100%
• Thermodynamic Framework 100%
• Nonlinear Equation 100%
• Ultrashort laser pulse 100%
• wave propagation speed 100%