Natale, Paolo López Montero, Iván
H2 -Fueled ATP Synthesis on an Electrode: Mimicking Cellular Respiration. [artículo] - Angewandte Chemie, 2016 - 55(21):6216-20.
Formato Vancouver:
Gutiérrez Sanz Ó, Natale P, Márquez I, Marques MC, Zacarias S, Pita M et al. H2 -Fueled ATP Synthesis on an Electrode: Mimicking Cellular Respiration. Angew Chem Int Ed Engl. 2016 May 17;55(21):6216-20.
PMID: 26991333
PMC5132028
Contiene 28 referencias
ATP, the molecule used by living organisms to supply energy to many different metabolic processes, is synthesized mostly by the ATPase synthase using a proton or sodium gradient generated across a lipid membrane. We present evidence that a modified electrode surface integrating a NiFeSe hydrogenase and a F1 F0 -ATPase in a lipid membrane can couple the electrochemical oxidation of H2 to the synthesis of ATP. This electrode-assisted conversion of H2 gas into ATP could serve to generate this biochemical fuel locally when required in biomedical devices or enzymatic synthesis of valuable products.
H2 -Fueled ATP Synthesis on an Electrode: Mimicking Cellular Respiration. [artículo] - Angewandte Chemie, 2016 - 55(21):6216-20.
Formato Vancouver:
Gutiérrez Sanz Ó, Natale P, Márquez I, Marques MC, Zacarias S, Pita M et al. H2 -Fueled ATP Synthesis on an Electrode: Mimicking Cellular Respiration. Angew Chem Int Ed Engl. 2016 May 17;55(21):6216-20.
PMID: 26991333
PMC5132028
Contiene 28 referencias
ATP, the molecule used by living organisms to supply energy to many different metabolic processes, is synthesized mostly by the ATPase synthase using a proton or sodium gradient generated across a lipid membrane. We present evidence that a modified electrode surface integrating a NiFeSe hydrogenase and a F1 F0 -ATPase in a lipid membrane can couple the electrochemical oxidation of H2 to the synthesis of ATP. This electrode-assisted conversion of H2 gas into ATP could serve to generate this biochemical fuel locally when required in biomedical devices or enzymatic synthesis of valuable products.
