The phrase "atomic thickness" is correct and usable in written English.
It can be used in scientific or technical contexts, particularly in discussions about materials, nanotechnology, or physics, where the measurement of thickness at the atomic level is relevant.
Example: "The researchers were able to create a film with an atomic thickness, allowing for unprecedented control over its properties."
Alternatives: "nanoscale thickness" or "molecular thickness".
The atomic thickness endows TiO2 with ultrahigh fraction of surface atoms, which ensures stronger UV light absorption compared with its bulk counterpart.
In this way, the researchers can quickly and easily build layers of any desired atomic thickness.
In particular, the graphene-based membrane is an emerging subject mainly due to the atomic thickness, simple processing and the compatibility with other materials.
Especially, the inherent advantage of scaling semiconductor into atomic thickness has raised the prospect of possible extension of the Moore's law.
LDHs in atomic thickness (mono-/bi-layers) usually exhibit novel physicochemical properties, especially in surface-dependent energy storage and catalysis areas.
Different from conventional plate fillers, the embedded graphene fillers exhibit various morphologies (e.g. folded, crumpled, and distorted sheets) inside matrix because of its atomic thickness.
Graphene is a layer of sp2 hybridized carbon of a single-atomic thickness, which exposes most of its atoms to the surrounding medium.
Graphene, a two-dimensional graphite plane with one-atomic thickness, has attracted tremendous attention due to its unique physical, chemical, and mechanical properties [16].
Due to its atomic scale thickness, the deformation energy in a free standing graphene sheet can be easily released through out-of-plane wrinkles which, if controllable, may be used to tune the electrical and mechanical properties of graphene.
The use of two-dimensional nanosheets as the catalyst core is a promising approach since the nanosheets offer high utilization and stability owing to their atomic scale thickness and extended surface.
After the GMM optimum parameter determination, each atomic column thickness was assigned to a Gaussian distribution.
