A hybrid, massively parallel implementation of a genetic algorithm for optimization of the impact performance of a metal/polymer composite plate

Engineering

• Laminated Composite Plate 100%
• Genetic Algorithm 100%
• Finite Element Method 100%
• Determines 66%
• Impact Velocity 66%
• High Impact Velocity 33%
• Soft Material 33%
• Constitutive Model 33%
• Strain Localization 33%
• Function Evaluation 33%
• Computational Resource 33%
• Structural Steel 33%
• File System 33%
• Optimum Number 33%
• Analysis Code 33%
• Nodes 33%
• Adiabatic Shear Band 33%
• Void Growth 33%
• Ductile Fracture 33%
• Objective Function 33%
• Viscoelasticity 33%

Keyphrases

• Metal-polymer Composite 100%
• Composite Plate 100%
• Shear Localization 66%
• Optimal Impact 66%
• Void Growth 33%
• Optimum number 33%
• Hybrid multilevel 33%
• Iterator 33%
• Computational Steering 33%
• High-velocity Impact 33%
• Structural Steel 33%
• Ductile Fracture 33%
• Polyurea 33%
• Adiabatic Shear Band 33%
• Cluster Node 33%
• Multi-level Parallelism 33%
• Steel Composite 33%
• Relative Efficiency 33%

Material Science

• Polymer Composite 100%
• Laminated Plate 100%
• Adiabatic Shear Band 50%
• Ductile Fracture 50%
• Void Growth 50%
• Viscoplastic Behavior 50%
• Viscoelasticity 50%