The phrase "abilities of the amorphous" is correct and usable in written English.
It can be used in contexts discussing the characteristics or skills associated with something that lacks a defined shape or form, often in a metaphorical sense.
Example: "The abilities of the amorphous can be seen in how it adapts to various environments without a fixed structure."
Alternatives: "capabilities of the formless" or "skills of the shapeless".
Fourthly, the energy difference between the solid solution and the amorphous counterpart is defined as the driving force for the crystal-to-amorphous transition, and the amount of the driving force could thus be considered as a comparative measure of the glass-forming ability of the amorphous alloy.
The formation of a mixed nano-crystal and amorphous silicon structure during the Ar+ ion implantation improves the ability of the amorphous carbon coating to resist plastic deformation, and hence increase the adhesion strength and antiwear-life of the amorphous carbon film.
The data suggest a correlation between the glass forming ability and stability of the amorphous drug and the nature of the final formulation.
Briefly, a diffractogram of amorphous cellulose was subtracted from the diffractograms of the test samples so as to remove the influence of the amorphous component in the diffractograms.
All these applications exploit the ability of amorphous silicon to be vapour-deposited in the form of large-area thin films.
The improvement of the amorphous-forming ability is discussed in term of the competition effect and the eutectic theory.
The ability of amorphous intergranular films to mitigate damage formation at grain boundaries is studied with molecular dynamics simulations.
This mineral was added in a denitrification column experiment in order to assess the ability of amorphous Fe(OH 3 to prevent or mitigate microbiological SO42− reduction.
The results show that no amorphous structure is detected in the as-spun Mg2Ni alloy, whereas the as-spun Mg2Ni0.6Mn0.4 alloy displays a nanocrystalline and amorphous structure, confirming that the substitution of Mn for Ni notably intensifies the amorphous forming ability of the Mg2Ni-type alloy.
The effect of the remelting scanning speed on the amorphous forming ability of the Ni-based alloy was studied systematically by experimental and numerical simulation methods.
