Mechanical characterisation and modelling of electrospun materials for biomedical applications

INIS

• applications 100%
• tissues 100%
• mechanical properties 100%
• modeling 100%
• distribution 100%
• tools 50%
• efficiency 50%
• fibers 50%
• engineering 50%
• drug delivery 50%
• geometry 50%
• production 50%
• design 50%
• optimization 50%
• management 50%
• growth 50%
• finite element method 50%
• porous materials 50%
• randomness 50%
• wounds 50%
• mechanical tests 50%
• cell proliferation 50%

Keyphrases

• Biomedical Applications 100%
• Mechanical Characterization 100%
• Electrospun 100%
• Electrospun Materials 100%
• Mechanical Modeling 100%
• Drug Delivery 33%
• Tissue Engineering 33%
• Beneficial Properties 33%
• Mechanical Properties 33%
• Finite Element Model 33%
• Motivation 33%
• Characterization Techniques 33%
• Porous Structure 33%
• Nonwoven 33%
• Single Component 33%
• Cell Proliferation 33%
• Stress Distribution 33%
• Electrospinning Technique 33%
• Material Mechanical Properties 33%
• Mechanical Testing 33%
• Mechanical Characteristics 33%
• Wound Management 33%
• Tissue Growth 33%
• Production Ratio 33%
• Low Production 33%
• Fully Parametric Model 33%
• Biomedical Areas 33%
• Nonwoven Materials 33%

Engineering

• Electrospun 100%
• Biomedical Application 100%
• Electrospun Material 100%
• Experimental Result 33%
• Good Agreement 33%
• Input Parameter 33%
• Characterization Method 33%
• Nonwovens 33%
• Single Component 33%
• Porous Structure 33%
• Nonwoven Material 33%
• Mechanical Testing 33%
• Electrospinning Process 33%
• Component Fiber 33%
• Finite Element Modeling 33%
• Drug Delivery 33%
• Tissue Regeneration 33%