The phrase "atomistic scale" is correct and usable in written English.
It is typically used in scientific contexts to refer to phenomena or properties at the level of individual atoms or molecules.
Example: "The researchers conducted experiments to observe the behavior of materials at the atomistic scale."
Alternatives: "molecular level" or "atomic level".
Graphene was modeled in the atomistic scale and polymer as a continuum.
However, little effort has been made to study this challenging issue at nano- or atomistic scale.
A molecular-mechanics-based approach was employed to estimate properties for graphene in the atomistic scale.
Graphene was herein modeled in the atomistic scale, whereas the polymer deformation was analyzed as a continuum.
In the proposed technique, graphene was modeled in the atomistic scale, whereas polymer deformation was analyzed as a continuum.
The simulations are connected to the atomistic scale via recently developed, temperature-dependent dislocation mobility relations.
The macroscopic and the atomistic scales are combined in the proposed finite element modeling approach.
In atomistic scales, owing to the increasing ratio of surface area to volume, the stress and strain effects on surface physics become very important [2].
The challenge is centered on the multi-scale character of the immune system that spans from atomistic scales, during peptide-epitope and protein interactions, to macroscopic scales, for lymph transport and organ organ reactions.
Continuum electrostatic models have had quantitative success in describing electrostatic-mediated phenomena on atomistic scales; however, there continues to be significant disagreement about how to assign dielectric constants in mixed, nonhomogeneous systems.
The methodology detailed herein provides a framework for incorporation of results from atomistic-scale models of dislocation creep and diffusion.
