Sentence examples for mobile electron carriers from inspiring English sources

As the reviewers wrote "This achievement can therefore be considered as a real breakthrough in the field of bioenergetics because it allows for the first time to get insight in how the small mobile electron carriers do their job between the components"., and "I believe the manuscript is a landmark study and should be of great significance".

The OXPHOS system consists of five multiprotein complexes (I V) and two mobile electron carriers (coenzyme Q and cytochrome c) embedded in the lipid bilayer of the inner mitochondrial membrane [1], [2].

It is therefore conceivable that, by enhancing quantitatively the availability of freely mobile electron carriers and qualitatively the efficacy of electron transfer across the mitochondrial respiratory chain, CoQ10 may augment the amount of tissue oxygen by reducing the leakage of electrons that form superoxide anion with oxygen.

In the supercomplex, the binding sites for the mobile electron carriers are in close proximity and face each other.

The respiratory chain is situated in the IMM and consists of four multiprotein redox complexes and two mobile electron carriers.

Two mobile electron carriers, coenzyme Q (ubiquinone) and cytochrome c, are located in the IMM and IMS, respectively.

We further employed CoQ10, a highly mobile electron carrier between the flavoproteins and cytochromes in the mitochondrial respiratory chain [21] and a potent antioxidant [22], to establish a causal relationship between mitochondrial electron transport dysfunction, bioenergetic failure and lack of resumed spontaneous circulation after cardiac arrest.

That amelioration of mitochondrial dysfunction and bioenergetic failure in RVLM by coenzyme Q10, the mobile electron carrier in mitochondrial respiratory chain, or oxygenation restored spontaneous circulation further established a causal relationship between functionality of RVLM and resumed spontaneous circulation after cardiac arrest.

CoQ10 is a lipophilic mobile electron carrier that is located in the inner mitochondrial membrane.

An increase in absorbance measured at 550 nm corresponds with the chemical reduction of this mobile electron carrier.

Because pyocyanin can cross biological membranes, it serves as a mobile electron carrier for P. aeruginosa (29).