Sentence examples for the development of a planar from inspiring English sources

The development of a planar texture suggests that the transformation results from transverse crystal slip.

Post mortem X-ray analysis of biaxially drawn samples reveal the development of a planar texture and a loss of the hexagonal symmetry of mesophases and HT forms.

These range from the development of a planar laser imaging system for sensing fluorescent microstructure to swarms of underwater autonomous floats, to a current generation of underwater microscopes.

We found that with increasing shear strain, the dominant flow mechanism of the serpentinite evolves from (1) inhomogeneous semi-brittle flow by strain localization into sample-scale shear bands to (2) homogeneous ductile flow by intracrystalline deformation within individual serpentine grains, with the development of a planar shape fabric and a strong crystallographic-preferred orientation.

Herein, we describe the development of a planar all-polymer transistor based on the conducting polymer PEDOT PSS, compatible with low-cost production techniques such as ink-jet printing, or roll-to roll processing.

We report on the development of a new planar electromagnetic energy harvesting transducer.

We exploited SCBD for the development of a flexible, planar μSC featuring nanostructured carbon (ns-C) electrodes deposited on a plastic Mylar substrate and N-trimethyl-N-propyl-ammonium bis trifluoromethanesulfonyl) imide (N1113TFSI) ionic liquid electrolyte.

This paper presents the development of a collagen-coated planar interdigitated ring electrode (PIRE) array utilizing positive dielectrophoresis to pattern cells uniformly.

Furthermore, during the development of a cellular pattern starting from a planar interface, the crossover wavelength under different solidification speeds, where the deformation is comparable to the wavelength, agrees reasonably well with the Warren Langer theory.

This concept involves the development of a 3 10 kW size core planar SOFC module that can be mass produced and then combined for different size applications in stationary power generation, transportation, and military market sectors, thus eliminating the need to produce custom-designed and inherently more expensive fuel cell stacks to meet a specific power rating.

The challenge here lies not only in the development of a geometric strategy for generating quadrilateral planar facet solutions, but also in the fact that said solutions must closely match the designs created initially in physical model form by the architects.