The phrase "amorphous hydrocarbon" is correct and usable in written English.
It can be used in scientific or technical contexts, particularly in chemistry or materials science, to describe a type of hydrocarbon that lacks a defined crystalline structure.
Example: "The researchers discovered that the amorphous hydrocarbon exhibited unique properties compared to its crystalline counterparts."
Alternatives: "non-crystalline hydrocarbon" or "disordered hydrocarbon".
It is an amorphous hydrocarbon and may contain particles of various foreign materials, trapped insects, and air bubbles.
Amorphous hydrocarbon (a-C H) a-C Hetandcontaining amorphous hydrocarbon (metal-containingms possess moderately hydrocarbonss, cheMe-C Hinertness, low coefficient of friction and low wear rate, and are potentially useful in a wide range of Me-C Hevice applicathins.
Amorphous hydrocarbon (aCH) material is receiving plenty of attention due to its possible wide application.
The coatings tested were tungsten carbide amorphous hydrocarbon and chromium nitride.
High resolution transmission electron microscopy (HRTEM) revealed a nanocomposite structure with chromium carbide nanocrystallites embedded in an amorphous hydrocarbon matrix.
These coatings consist of 2 5 nm TiC nanocrystallites embedded in an amorphous hydrocarbon (a-C H) ma-C H.
The metal to carbon ratio has been varied to study changes in the metal carbide formation and distribution within the amorphous hydrocarbons (a-C H) ma-C H.
Since amorphous oxygenated hydrocarbon (COxHy) films are promising engineering materials a study of the structure and composition of the films depending on the conditions of synthesis is important for controlling of their physicochemical properties.
In this investigation, we used the ReaxFF force field to investigate the initial reaction pathways involved in hydrocarbon cracking over amorphous silica, hydrated amorphous silica, and amorphous aluminosilicate nanoparticles.
Hydrogen is more suitable because it is highly thermally conductive and the uses of hydrogen could ensure highly pure CNT, since it could reduce amorphous carbon by forming hydrocarbon with them [124].
Strongly adsorbed hydrocarbons and amorphous polymeric carbon seem to contribute to catalyst deactivation.
