We have recently performed one of the first approaches by means of quasielastic neutron scattering (QENS) to the problem of identifying the molecular motions giving rise to the secondary relaxations of engineering thermoplastics.
(2) In a higher field range, the engineering shows a relaxation and pinning effect on the magnetization behavior, which leads to a reduced magnetization.
Here, we use T-jump relaxation in conjunction with protein engineering and report mutational Φ-values (ΦM) as indicators for folding transition-state structure of 65 side chain, 7 backbone hydrogen bond, and 6 deletion and /or insertion mutants within loop 1 of the 34-residue hPin1 WW domain.
Here, I describe the development and application of NMR spectroscopic techniques in my laboratory for characterizing the dynamic properties of nucleic acids that tightly integrate a broad set of NMR measurements, including residual dipolar couplings, spin relaxation, and relaxation dispersion with sample engineering and computational approaches.
Introduction to the physical mechanisms that give rise to mechanical properties of engineering materials: stiffness, creep, stress-relaxation, strength, fracture-toughness, and fatigue.
Understanding structural relaxations is an important task for materials engineering in biological, food, polymer and pharmaceutical areas.
One approach is to utilize substrate engineering in order to delay plastic relaxation.
Stress relaxation is one of the main concerns in geotechnical engineering, especially in permafrost regions with warm frozen soil.
The low temperature for the onset of stress relaxation has attracted attention regarding the performance of transparent MgAl2O4 nano-ceramics as an engineering material.
More importantly, the low temperature (400°C) for the onset of stress relaxation has attracted attention regarding the performance of transparent MgAl2O4 nano-ceramics as an engineering material.
