Sentence examples for molecular structures involved from inspiring English sources

Identification of molecular structures involved in expression of neuroplasticity in the auditory system in tinnitus and modeling the binding sites of local anesthetics could lead to the design of subtype-specific inhibitors that could provide new pharmacological targets for treatment.

Although dedicated studies clearly need to be performed to fully address the issues of the molecular structures involved in the transfer of PM-associated materials during trogocytosis, our results provide arguments against various potential pathways such as exosomes or nanotubes leading to the establishment of cytoplasmic continuity.

It remains a matter of speculation whether the molecular structures involved in contemporary biochemistry are fundamental or were derived during evolution (Pace, 2001; Davila and McKay, 2014).

In view of the currently incomplete understanding of the molecular structures involved in agonist/receptor-operated control of Ca2+ entry into many native tissues, it is highly desirable to identify potent inhibitors for specific Ca2+ channel pore structures that are controlled via receptor-phospholipase C-dependent mechanisms.

Hemicelluloses constitute an extremely heterogeneous fraction of the plant cell wall, as their molecular structures involve multiple monosaccharide components, glycosidic linkages, and decoration patterns.

In addition, the extracellular presence of PAD4 on NETs may further promote the prodigious generation of citrullinated antigens, because molecular structures involving the attachment of enzymes to DNA lattices have been shown to increase their catalytic activity enormously, and thereby form the basis of nano-machines or nano-factories, generating such autoantigens [ 34].

Transient receptor potential (TRP) channels represent interesting molecular target structures involved in a number of different physiological and pathophysiological systems.

Thus, there is great interest in techniques which allow noninvasive monitoring of molecular target structures involved in these angiogenic processes [ 4].

The isoporous lattices completely covering the cell surface provide organisms with various selection advantages including functioning as protective coats, molecular sieves and ion traps, as structures involved in surface recognition and cell adhesion, and as antifouling layers.

It was confirmed by the calculation of the total energy using molecular orbital methods that resonance structures involving the double-bond and hydroxyl group provide significant stabilization of the radical anions.

The protein folding process that leads to such structures involves very complex molecular dynamics [ 4] and unknown energy factors.