The phrase "aromatic process" is correct and usable in written English.
It can be used in contexts related to chemistry, cooking, or any field where the term "aromatic" describes a process involving fragrant compounds or flavors.
Example: "The aromatic process of brewing coffee involves extracting essential oils from the beans, resulting in a rich and flavorful beverage."
Alternatives: "fragrant process" or "scented process".
The clear clustering of sediment samples compared with water column samples (Supplementary Figure 9) provides strong evidence that the dominant hydrocarbon degradation pathways were disparate, with aliphatic degradation dominating in the plume metagenomes (Mason et al., 2012), compared with both aliphatic and aromatic processes in the sediments.
According to the PAH-MN, PAH substrates are degraded by a set of interconnected functional processes, termed ring-cleavage processes (RCPs), side-chain processes (SCPs), and central aromatic processes (CAPs).
Particularly, we have further separated the isomers of xylene and tri-methylbenzene, for a more comprehensive study than the previous works, and a consideration that para-xylene might be the most favourable product in the methanol to aromatics process via H-ZSM-5 zeolite [4, 8, 9].
The oxidative environment is pivotal in the formation of aromatics to activate the pathways involving the resonantly stabilized radicals in the aromatic growth process.
This shows that treating NFM as a single NFM group is more reasonable, and the fitted parameters are satisfactory for designing the aromatic recovery process with NFM as solvent.
The calculations show that [(L5 FeIII(OOH ]2+ should be able to initiate an aromatic hydroxylation process, although a low-energy homolytic cleavage pathway is only slightly higher in energy.
In the aromatics growth process, phenylacetylene, the 1-phenylvinyl radical, the phenyl radical, and styrene serve as major precursors of polycyclic aromatic hydrocarbons (PAHs), leading to the high sooting tendency of styrene compared to toluene and ethylbenzene.
The capability of this methodology is tested in designing minimum energy distillation column sequence for aromatics separation process.
It can be concluded that, the sequence determined by the driving force method is able to reduce energy used for aromatics separation process in an easy, practical and systematic manner.
The objective of this paper is to present the study of the optimal synthesis of energy efficient distillation columns (EEDCs) sequence of aromatics separation process by using driving force method.
