A proton motive force is generated using only the quinone pool.
2.
This proton motive force then drives ATP synthesis.
3.
ATP, not the proton motive force, appears to be required for NR uptake.
4.
In all cases, however, a proton motive force is generated and used to drive ATP production via an ATPase.
5.
Rest two electrons are used to generate a proton motive force and reduce NAD ( P ) through reverse electron transport.
6.
These two proteins form pores that harvest energy for flagellar mechanical movement by proton motive force ( PMF ) across the membrane.
7.
Reducing power in the form of quinones and NADH is produced during these oxidations to produce a proton motive force and therefore ATP generation.
8.
This creates a proton motive force that is the net effect of a pH gradient and an electric potential gradient across the inner mitochondrial membrane.
9.
This builds up a proton motive force that is used by ATP synthase to produce ADP and phosphate . The ATP is finally used in biosynthesis.
10.
Biochemically, aerobic iron oxidation is a very energetically poor process which therefore requires large amounts of iron to be oxidized by the enzyme rusticyanin to facilitate the formation of proton motive force.
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