Evidence for domain motion in proteins affecting global diffusion properties: A nuclear magnetic resonance study

Keyphrases

• Nuclear Magnetic Resonance 100%
• Rotational Diffusion 100%
• Diffusion Properties 100%
• Global Diffusion 100%
• Domain Motion 100%
• Magnetic Resonance Techniques 100%
• Ca2+/calmodulin 100%
• Protein Structure 66%
• Viscosity 66%
• Hydration Layer 66%
• Activation Entropy 66%
• Mobile Proteins 66%
• Spin Relaxation 33%
• Freeform 33%
• Electrostatic Interaction 33%
• Multidomain Protein 33%
• Bulk Water 33%
• Activation Energy 33%
• Surface Water 33%
• Adenylate Kinase 33%
• Bound Form 33%
• Surface Sites 33%
• Water Viscosity 33%
• Activation Enthalpy 33%
• Staphylococcal nuclease 33%
• Obliteration 33%
• Ligand-free 33%
• Hydrodynamic Properties 33%
• Relaxation Method 33%
• H Activation 33%
• Outer Surface Protein A 33%
• Apparent Activation Energy 33%

Medicine and Dentistry

• Calcium Ion 100%
• NMR Spectroscopy 100%
• Calmodulin 100%
• Protein Structure 66%
• Entropy 66%
• Nitrogen 15 33%
• Relaxation Training 33%
• Peptide 33%
• Outer Surface Protein A 33%
• Adenylate Kinase 33%
• Micrococcal Nuclease 33%

Biochemistry, Genetics and Molecular Biology

• Motion 100%
• Calmodulin 100%
• Protein Structure 66%
• Entropy 66%
• Static Electricity 33%
• Enthalpy 33%
• Adenylate Kinase 33%
• Micrococcal Nuclease 33%
• Peptide 33%
• Hydrodynamics 33%