These events are known as terminal respiration and oxidative phosphorylation (for details of this process, see below Biological energy transduction).
Biological implications for energy transduction have been discussed in detail.
Chloroplasts and mitochondria perform energy transduction in photosynthesis and respiration.
Sulfur is critical to the functioning of all living organisms, including energy transduction, enzyme catalysis, and protein synthesis [1].
These results can be relevant for energy transduction and storage procedures with nanopores immersed in electrolyte solutions.
Moreover, one of the possible mechanisms of energy transduction, called Brownian ratchet, does not even have any macroscopic counterpart.
Background: Membrane-bound ion pumps are involved in metabolic regulation, osmoregulation, cell signalling, nerve transmission and energy transduction.
Within the entire tripartite complex, homotrimeric AcrB plays a central role in energy transduction and substrate selection.
This structural context has helped set paradigms in modern biology about the origins of life, including: molecular genetics, enzymology, and energy transduction.
Previous study has shown that Chls plays a central and indispensable role in the processes of photosynthetic light-harvesting and energy transduction of photosynthesis (Bollivar 2006).
Changes occurring in the lipid composition of these membranes will certainly modify their permeability, energy transduction capacity, and the activities of membrane-bound enzymes (Wang and Lin [2006]).
