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SYSTEMATIC NAME
IUBMB Comments
NADH:acceptor oxidoreductase
A flavoprotein containing iron-sulfur centres. After preparations have been subjected to certain treatments, cytochrome c may act as an acceptor. Under normal conditions, two protons are extruded from the cytoplasm or the intramitochondrial or stromal compartment. Present in a mitochondrial complex as EC 1.6.5.3, NADH dehydrogenase (ubiquinone).
chloroplast and cyanobacterial NDHs have an electron donor-binding subcomplex that is unique to oxygenic photosynthetic organisms, backbone structure of NDH complex common in cyanobacteria and chloroplasts compared to NDH-1 in membranes in heterotrophic bacteria
chloroplast and cyanobacterial NDHs have an electron donor-binding subcomplex that is unique to oxygenic photosynthetic organisms, backbone structure of NDH complex common in cyanobacteria and chloroplasts compared to NDH-1 in membranes in heterotrophic bacteria
chloroplast and cyanobacterial NDHs have an electron donor-binding subcomplex that is unique to oxygenic photosynthetic organisms, backbone structure of NDH complex common in cyanobacteria and chloroplasts compared to NDH-1 in membranes in heterotrophic bacteria
chloroplast and cyanobacterial NDHs have an electron donor-binding subcomplex that is unique to oxygenic photosynthetic organisms, backbone structure of NDH complex common in cyanobacteria and chloroplasts compared to NDH-1 in membranes in heterotrophic bacteria
chloroplast and cyanobacterial NDHs have an electron donor-binding subcomplex that is unique to oxygenic photosynthetic organisms, backbone structure of NDH complex common in cyanobacteria and chloroplasts compared to NDH-1 in membranes in heterotrophic bacteria
the chloroplast NADH dehydrogenase-like complex shows similarity to complex I in respiratory electron transport, and is involved in electron transport from photoproduced stromal reductants such as NADPH and ferredoxin to the intersystem plastoquinone pool. Chloroplast NDH may also be involved in the electron transport from stromal reductants to oxygen in chlororesipiration. Photosynthetic NDH apparently lacks subunits involved in electron input
the chloroplast NADH dehydrogenase-like complex shows similarity to complex I in respiratory electron transport, and is involved in electron transport from photoproduced stromal reductants such as NADPH and ferredoxin to the intersystem plastoquinone pool. Chloroplast NDH may also be involved in the electron transport from stromal reductants to oxygen in chlororesipiration. Photosynthetic NDH apparently lacks subunits involved in electron input
the chloroplast NADH dehydrogenase-like complex shows similarity to complex I in respiratory electron transport, and is involved in electron transport from photoproduced stromal reductants such as NADPH and ferredoxin to the intersystem plastoquinone pool. Chloroplast NDH may also be involved in the electron transport from stromal reductants to oxygen in chlororesipiration. Photosynthetic NDH apparently lacks subunits involved in electron input
the chloroplast NADH dehydrogenase-like complex shows similarity to complex I in respiratory electron transport, and is involved in electron transport from photoproduced stromal reductants such as NADPH and ferredoxin to the intersystem plastoquinone pool. Chloroplast NDH may also be involved in the electron transport from stromal reductants to oxygen in chlororesipiration. Photosynthetic NDH apparently lacks subunits involved in electron input
the chloroplast NADH dehydrogenase-like complex shows similarity to complex I in respiratory electron transport, and is involved in electron transport from photoproduced stromal reductants such as NADPH and ferredoxin to the intersystem plastoquinone pool. Chloroplast NDH may also be involved in the electron transport from stromal reductants to oxygen in chlororesipiration. Photosynthetic NDH apparently lacks subunits involved in electron input
backbone structure of NDH complex, overview. Subcomplex structure of flowering plant NDH with specific subunits, four distinct subcomplexes: A, B, membrane-localized and lumen-localized subcomplexes. Dependence of the accumulation of nuclear-encoded NdhM-NdhO on that of NdhH-NdhL, and vice versa
backbone structure of NDH complex, overview. Subcomplex structure of flowering plant NDH with specific subunits, four distinct subcomplexes: A, B, membrane-localized and lumen-localized subcomplexes. Dependence of the accumulation of nuclear-encoded NdhM-NdhO on that of NdhH-NdhL, and vice versa
backbone structure of NDH complex, overview. Subcomplex structure of flowering plant NDH with specific subunits, four distinct subcomplexes: A, B, membrane-localized and lumen-localized subcomplexes. Dependence of the accumulation of nuclear-encoded NdhM-NdhO on that of NdhH-NdhL, and vice versa
backbone structure of NDH complex, overview. Subcomplex structure of flowering plant NDH with specific subunits, four distinct subcomplexes: A, B, membrane-localized and lumen-localized subcomplexes. Dependence of the accumulation of nuclear-encoded NdhM-NdhO on that of NdhH-NdhL, and vice versa
the enzyme is localized at the main point of electron entry into the respiratory chain. The enzyme catalyzes the transfer of electrons from NADH to the respiratory electron transport components and hence links the major catabolic and energy-producing pathways
with anaerobic NO2-, the most downregulated genes are those involved postglycolytically and include many tricarboxylic acid cycle genes and those involved in the electron transport chain, especially those encoding the NADH dehydrogenase I complex, overview
the enzyme is localized at the main point of electron entry into the respiratory chain. The enzyme catalyzes the transfer of electrons from NADH to the respiratory electron transport components and hence links the major catabolic and energy-producing pathways
with anaerobic NO2-, the most downregulated genes are those involved postglycolytically and include many tricarboxylic acid cycle genes and those involved in the electron transport chain, especially those encoding the NADH dehydrogenase I complex, overview
natural prosthetic group of the enzyme, apoenzyme catalyzed reaction with ferricyanide, FAD is required for reaction with 2,6-dichlorophenol or with cytochrome c, Km: 0.00056 mM
1:1 binding stoichiometry with protein and an association constant K of 70000 per mol. The FAD-protein interaction is energetically favorable and the addition of FAD is not necessary to induce the enzyme folded state
NdhM, NdhO, and NdhL are NDH subunits specific to photosynthetic/cyanobacterial NDH. NDH subunits form three types of complexes with different subunit compositions. NDH-1L is required for heterotrophic growth, probably via respiration and CET, while NDH-1M and NDH-1S form the NDH-1MS complex that functions in CO2 concentration
genes nuoD, nuoG, nuoM encoding components of the NADH dehydrogenase complex, construction of a signature-tagged mutagenesis library of Pseudomonas aeruginosa, genes regulated by NO2-, anaerobically induced, transcriptional profiling, overview
Study on the reduced pyridine nucleotide dehydrogenase of bovine erythrocytes. I. Crystallization and properties of the reduced pyridine nucleotide dehydrogenase of bovine erythrocytes
Engineering Escherichia coli for fermentative dihydrogen production: potential role of NADH-ferredoxin oxidoreductase from the hydrogenosome of anaerobic protozoa