Sentence examples for preparation of compact from inspiring English sources
From the battery manufacturing perspective, the superior deformability of 0.7Li(CB11H12–0.3Li(CB11H12) facilitates the preparation of compact solid electrolytes and electrode/electrolyte interface, resulting in intimate contact throughout the battery.
Preparation of compact pellet and methods of polymeric coatings are the most important strategies for modulated release and rumen bypass efficiency based on chewing behaviors and physiology of veterinary species.
For the preparation of compact TiO2 layer (c-TiO2), as the electron-transporting layer (ETL), 350 μl of titanium isopropoxide solution was diluted in 5 ml of ethanol.
(A) preparation of compact TiO2 film; (B) preparation of nanoporous TiO2 film; (C) solvothermal growth of CIS layer; (D) spin-coating of P3HT and PEDOT PSS; (E) evaporation of gold layer.
Besides the approach used for preparation of compact samples, the quantification strategy also has to be taken into consideration.
The approaches most frequently applied for the preparation of compact samples from powders include milling/grinding/sieving for sample homogenization, combined with pelletization [ 107– 112], fusion to sample disks [ 29, 107, 113– 115], or mounting/embedding [ 110, 116– 119] of the sample in a polymeric resin.
In this paper, we describe a straightforward preparation procedure of compact pellets of pure Bi2Te3, by arc melting from mixtures of the starting elements, in truly short reaction times, leading to highly oriented polycrystalline samples for which we found low thermal conductivities, probably linked to the nanostructured nature of the polycrystalline domains.
A TiO2 organic sol was synthesised for the preparation of a compact TiO2 layer on fluorine-doped tin oxide (FTO) glass by a dip-coating technique.
The design and performance of MMR show potential advantages, such as the simple preparation of a compact membrane reformer able to operate in relatively high-pressure ranges and easy enlargement of the hydrogen production capacity by stacking the modules, which is possible due to the disk-type shape of the metal catalyst and the membrane.
There are many factors which control the porosity of the final object during preparation of porous copper compact using PM (powder metallurgy) technique.
The addition of TPA additive simultaneously facilitate nucleation and modulate the kinetics of crystal growth from solutions, enabling preparation of smooth and compact perovskite morphology with improved crystallization, grain uniformity, loading of perovskite into the TiO2 mesopores and coverage area.
