Unknown

Dataset Information

0

Krypton oxides under pressure.


ABSTRACT: Under high pressure, krypton, one of the most inert elements is predicted to become sufficiently reactive to form a new class of krypton compounds; krypton oxides. Using modern ab-initio evolutionary algorithms in combination with Density Functional Theory, we predict the existence of several thermodynamically stable Kr/O species at elevated pressures. In particular, our calculations indicate that at approx. 300?GPa the monoxide, KrO, should form spontaneously and remain thermo- and dynamically stable with respect to constituent elements and higher oxides. The monoxide is predicted to form non-molecular crystals with short Kr-O contacts, typical for genuine chemical bonds.

SUBMITTER: Zaleski-Ejgierd P 

PROVIDER: S-EPMC4735652 | biostudies-literature | 2016 Feb

REPOSITORIES: biostudies-literature

altmetric image

Publications

Krypton oxides under pressure.

Zaleski-Ejgierd Patryk P   Lata Pawel M PM  

Scientific reports 20160202


Under high pressure, krypton, one of the most inert elements is predicted to become sufficiently reactive to form a new class of krypton compounds; krypton oxides. Using modern ab-initio evolutionary algorithms in combination with Density Functional Theory, we predict the existence of several thermodynamically stable Kr/O species at elevated pressures. In particular, our calculations indicate that at approx. 300 GPa the monoxide, KrO, should form spontaneously and remain thermo- and dynamically  ...[more]

Similar Datasets

| S-EPMC4648296 | biostudies-literature
| S-EPMC6914732 | biostudies-literature
2024-03-12 | GSE261063 | GEO
| S-EPMC3776230 | biostudies-literature
| S-EPMC3511768 | biostudies-literature
| S-EPMC5818503 | biostudies-literature
| S-EPMC6334844 | biostudies-literature
| S-EPMC4942569 | biostudies-literature
| S-EPMC4640612 | biostudies-literature
| S-EPMC9172294 | biostudies-literature