Modeling and Experiment Reveal Structure and Nanomechanics across the Inverse Temperature Transition in B. mori Silk-Elastin-like Protein Polymers

Medicine & Life Sciences

• silk-like protein polymer 100%
• Morus 62%
• Transition Temperature 58%
• Silk 55%
• Elastin 50%
• Polymers 25%
• Temperature 16%
• Biomimetic Materials 15%
• Proteins 12%
• Protein Unfolding 6%
• Molecular Models 6%
• Peptides 6%
• Phase Transition 5%
• Steel 5%
• Molecular Dynamics Simulation 5%
• Biocompatible Materials 4%
• Pharmaceutical Preparations 1%

Engineering & Materials Science

• Nanomechanics 75%
• Elastin 72%
• Silk 56%
• Superconducting transition temperature 46%
• Proteins 38%
• Polymers 31%
• Experiments 15%
• Polypeptides 15%
• Biomimetics 11%
• Temperature 9%
• Energy barriers 7%
• Drug delivery 6%
• Biomaterials 5%
• Free energy 5%
• Molecular dynamics 5%
• Phase transitions 4%
• Molecules 4%
• Materials properties 3%
• Sampling 3%
• Mechanical properties 3%
• Steel 2%

Chemical Compounds

• Elastin 28%
• Protein 17%
• Polypeptide 8%
• Simulation 6%
• Aromatic Polyamide 6%
• Energy Barrier 5%
• Secondary Structure 4%
• Biomaterial 4%
• Sampling 4%
• Flexibility 4%
• Gibbs Free Energy 4%
• Molecular Dynamics 3%
• Block Like Crystal 3%
• Shape 3%
• Application 3%
• Drug 2%
• Molecule 1%