Stiffness, strength, anisotropy, and buckling of lattices derived from TPMS and Platonic and Archimedean solids

Keyphrases

• Stiffness 100%
• Relative Density 100%
• Platonic Solids 100%
• Archimedean Solids 100%
• Strength Anisotropy 100%
• Numerical Results 50%
• Deformation Behavior 50%
• Multifunctional Properties 50%
• Strut-based Lattice 50%
• Finite Element Analysis 25%
• Anisotropy 25%
• Optimization Techniques 25%
• Poisson's Ratio 25%
• Structure-property Relationships 25%
• Loading Conditions 25%
• Shear Modulus 25%
• Topology Optimization 25%
• Uniaxial Compression 25%
• Periodic Boundary Conditions 25%
• Lattice Structure 25%
• Bifurcation Analysis 25%
• Engineering Application 25%
• Quasi-static 25%
• Bulk Modulus 25%
• Deformation Mode 25%
• Topological Structure 25%
• Sintering Additive 25%
• Novel Types 25%
• Buckling Strength 25%
• Effective Behavior 25%
• Effective Mechanical Properties 25%
• Anisotropic Mechanical Properties 25%
• Lattice Architecture 25%
• Archimedean 25%
• Bending-dominated 25%
• Triply Periodic Minimal Surface 25%
• Uniaxial Modulus 25%
• Bulk Strength 25%
• Additive Manufacturing Techniques 25%
• Archimedean Lattice 25%
• Selective Laser Sintering 25%
• Lattice Metamaterials 25%
• Latticed Structures 25%

Engineering

• Deformation Behavior 100%
• Anisotropic 50%
• Poisson Ratio 50%
• Loading Condition 50%
• Shear Modulus 50%
• Bulk Modulus 50%
• Engineering Application 50%
• Periodic Boundary 50%
• Bifurcation Analysis 50%
• Buckling Strength 50%
• Optimization Technique 50%
• Additive Manufacturing Technique 50%
• Selective Laser Sintering 50%
• Finite Element Analysis 50%
• Boundary Condition 50%
• Triply Periodic Minimal Surface 50%

Material Science

• Density 100%
• Anisotropy 100%
• Elastic Moduli 50%
• Finite Element Method 25%
• Crystal Structure 25%
• Three Dimensional Printing 25%
• Poisson Ratio 25%
• Metamaterial 25%
• Bifurcation Analysis 25%
• Selective Laser Sintering 25%
• Surface (Surface Science) 25%