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Target Concepts:
Gene/Protein
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Query: EC:3.6.3.14 (
ATP synthase
)
7,042
document(s) hit in 31,850,051 MEDLINE articles (0.00 seconds)
The alpha subunit of the mitochondrial
ATP synthase
is part of the F1 enzymatic complex known to bind ADP, phosphate and ATP and is at the heart of the mitochondrial energy-producing mechanism. The mouse
embryonal carcinoma
variant of the alpha subunit cDNA was cloned and the complete nucleotide sequences of two different lengths of clones were determined. Two distinct polyadenylation sites in the cDNA sequence were detected and two sizes of mRNAs were confirmed by Northern blot hybridization. Two putative ATP-binding motifs - A and B, have been hypothesized for this enzyme based on previous NMR work on another ATP-binding enzyme, adenylate kinase. We have constructed four deletion mutants of the alpha subunit of the mouse F1-
ATP synthase
to examine the putative role of these domains. The resulting recombinant proteins were expressed and purified. Functional studies with the immobilized mutants proved the significance of both sites for ATP binding.
...
PMID:Cloning and functional expression analysis of the alpha subunit of mouse ATP synthase. 791 1
Energy metabolism in the adult brain consumes large quantities of glucose, but little is known to date regarding how glucose metabolism changes during neuronal differentiation, a process that is highly demanding energetically. We studied changes in glucose metabolism during neuronal differentiation of P19 mouse
embryonal carcinoma
cells, E14Tg2A embryonic stem cells as well as during brain development of BLC57 mice. In all these models, we find that neurogenesis is accompanied by a shift from oxidative to fermentative glucose metabolism. This shift is accompanied by both a decrease in mitochondrial enzymatic activities and mitochondrial uncoupling. In keeping with this finding, we also observe that differentiation does not require oxidative metabolism, as indicated by experiments demonstrating that the process is preserved in cells treated with the
ATP synthase
inhibitor oligomycin. Overall, we provide evidence that neuronal differentiation involves a shift from oxidative to fermentative metabolism, and that oxidative phosphorylation is not essential for this process.
...
PMID:Neuronal differentiation involves a shift from glucose oxidation to fermentation. 2183 2