The results indicated that the ductility of titanium materials is dramatically improved by electropulse while remaining uniaxial tensile strength unchanged, with the increased volume fraction of fine recrystallized grains through electron back-scattered diffraction analysis.
Advances in the technologies associated with the so-called smart materials are dramatically reducing the cost, weight and complexity of active structural control and make it feasible to consider active schemes in an increasing number of applications.
In the case of densely crosslinked networks, the relevant loss peak of the antiplasticized material is dramatically reduced compared with that of the pure resin.
Here we investigate the physical origin of an inverse notch effect in a Zr-based metallic glass, where the tensile strength of the material is dramatically enhanced, rather than decreased (as expected from the stress concentration point of view), by introduction of a notch.
After several cycles of ARB, ultra-fine (sub-micron) grain structure with large misorientations, i.e. polycrystal, was formed and the materials were strengthened dramatically.
However, in Sac1RNAi and DVAPRNAi GD3990 brains, the expression levels of PtdIns4P were dramatically increased (Supplementary Material, Fig. S11B).
Indeed, PtdIns4P levels were dramatically elevated in salivary glands, brains and muscles expressing the DVAP-P58S transgene (Supplementary Material, Fig. S11A C).
Both were dramatically intense.
The results were dramatically different.
Some bosses, however, were dramatically underpaid.
