Microbial NAD metabolism: lessons from comparative genomics.
about
NADPH-generating systems in bacteria and archaeaNutrient salvaging and metabolism by the intracellular pathogen Legionella pneumophilaThe evolutionary portrait of metazoan NAD salvageIdentification of Isn1 and Sdt1 as glucose- and vitamin-regulated nicotinamide mononucleotide and nicotinic acid mononucleotide [corrected] 5'-nucleotidases responsible for production of nicotinamide riboside and nicotinic acid riboside.Gene transfers shaped the evolution of de novo NAD+ biosynthesis in eukaryotesComparative Functional Genomic Analysis of Two Vibrio Phages Reveals Complex Metabolic Interactions with the Host CellGenomics-guided analysis of NAD recycling yields functional elucidation of COG1058 as a new family of pyrophosphatases.Identification of novel components of NAD-utilizing metabolic pathways and prediction of their biochemical functions.NAD+ metabolite levels as a function of vitamins and calorie restriction: evidence for different mechanisms of longevity.Outer membrane protein P4 is not required for virulence in the human challenge model of Haemophilus ducreyi infectionIt takes two to tango: NAD+ and sirtuins in aging/longevity controlPnc1p supports increases in cellular NAD(H) levels in response to internal or external oxidative stress.Genomics-driven reconstruction of acinetobacter NAD metabolism: insights for antibacterial target selectionSequence divergence and diversity suggests ongoing functional diversification of vertebrate NAD metabolism.The natural history of ADP-ribosyltransferases and the ADP-ribosylation system.Systematic genome assessment of B-vitamin biosynthesis suggests co-operation among gut microbes.Identification of nicotinamide mononucleotide deamidase of the bacterial pyridine nucleotide cycle reveals a novel broadly conserved amidohydrolase family.A novel metabolite of antituberculosis therapy demonstrates host activation of isoniazid and formation of the isoniazid-NAD+ adduct.Identification of the Genes Required for the Culture of Liberibacter crescens, the Closest Cultured Relative of the Liberibacter Plant Pathogens.Quinolinate salvage and insights for targeting NAD biosynthesis in group A streptococci.Nickel-pincer cofactor biosynthesis involves LarB-catalyzed pyridinium carboxylation and LarE-dependent sacrificial sulfur insertion.Nicotinamide riboside is uniquely and orally bioavailable in mice and humans.An NAD(+) biosynthetic pathway enzyme functions cell non-autonomously in C. elegans development.Mechanistic Characterization of Escherichia coli l-Aspartate Oxidase from Kinetic Isotope Effects.Novel assay for simultaneous measurement of pyridine mononucleotides synthesizing activities allows dissection of the NAD(+) biosynthetic machinery in mammalian cells.The NAD+ metabolism of Leishmania, notably the enzyme nicotinamidase involved in NAD+ salvage, offers prospects for development of anti-parasite chemotherapy.Vibrio Phage KVP40 Encodes a Functional NAD+ Salvage Pathway.Exploring the biocombinatorial potential of benzoxazoles: generation of novel caboxamycin derivatives.Regulation of the expression of genes involved in NAD de novo biosynthesis in Corynebacterium glutamicum.Stable isotope labeling by essential nutrients in cell culture (SILEC) for accurate measurement of nicotinamide adenine dinucleotide metabolism.A Key Enzyme of the NAD+ Salvage Pathway in Thermus thermophilus: Characterization of Nicotinamidase and the Impact of Its Gene Deletion at High Temperatures.Essential role of Bordetella NadC in a quinolinate salvage pathway for NAD biosynthesis.Structural and biochemical characterization of the biuret hydrolase (BiuH) from the cyanuric acid catabolism pathway of Rhizobium leguminasorum bv. viciae 3841.The transcriptional regulator BpsR controls the growth of Bordetella bronchiseptica by repressing genes involved in nicotinic acid degradation.Kinetics and structural features of dimeric Gln-dependent bacterial NAD+ synthetases suggest evolutionary adaptation to available metabolites.Purification and characterization of the enzymes involved in nicotinamide adenine dinucleotide degradation by Penicillium brevicompactum NRC 829.The Emergence of the Nicotinamide Riboside Kinases in the regulation of NAD+ Metabolism.NADH-Mediated Gene Expression in Streptococcus pneumoniae and Role of Rex as a Transcriptional Repressor of the Rex-Regulon.NAD+biosynthesis and salvage - a phylogenetic perspectivePathway analysis of NAD+metabolism
P2860
Q26797359-B794475D-DC68-4327-8BD7-5B37B541E4DBQ26864957-AC89F98F-441E-4AC8-925E-A04AFA3FD853Q27318392-B84CBB84-B34D-4674-9C30-EA38D1D1C6ADQ27932210-3552A65B-CC3E-4C2A-BAC9-9962F7401C64Q28652784-F9397E53-79E7-403B-9908-9583D6E74FD0Q28821515-0C386596-2048-412E-8764-2AD8008622CAQ30649953-B47A374A-BF90-4998-9ACE-27EC23ED6E86Q31049613-AD04DEFB-5837-4056-9B26-13E2FFECBAAFQ33533467-67571DA8-CD84-4912-B492-9E3F7AB5B3D9Q33844421-A3DAA3D9-4063-4290-8F41-E87C238E4811Q33914309-4CAB1FF6-091F-43A4-9D86-797385DF90B1Q34029648-D9151102-3D48-454E-B4D6-3B6AC4905C50Q34385910-934C22D2-E4BF-4ABB-B675-07BB3CCF52FDQ34588927-FE36A666-C3F2-4F97-8142-E9ADC860F746Q35207356-0BB40EAA-97BE-45D2-A6FC-83A16F55FC5CQ35489763-6F7ABD41-55EE-47A3-A41B-9C48ED6082E2Q35562858-10C44F3C-FC6B-4A60-907A-0CB0A6D99137Q35666603-5328E65C-7FB7-47F4-BA5F-0D30F9ED1CC1Q36009144-4A35B520-A297-40F9-82F2-95AB596DFEA8Q36581224-C8F9500D-0968-48E6-A41C-18E207D3F92CQ36931105-2B744F07-70B5-474F-82D5-A8FB7107452CQ37336045-75C11859-E2E6-4530-A194-5122191992B9Q37594264-EDD6E92A-E920-45E2-B367-C926D289F802Q38682568-9A47E8DC-BA71-4BA6-B756-EEEC26C86E90Q38956419-ECB9F81A-D775-4B1B-A0CC-FA7C326CF28CQ39249827-EC42FE65-41E2-421A-937B-EF12187EAC1EQ40342767-EE52E19F-4E2E-4E47-BD8E-FCF20F0E799DQ41840626-D907789A-60C7-4EF3-A574-5E0E4BC503FAQ41906675-9090A5D1-CC28-4C14-BDCB-A9CE0FD77B6DQ42517453-171C9929-7A3C-4749-A14C-81A516F5BF5CQ43031094-9C6CD51D-A5E2-43D0-B69C-2698031F57EAQ46470713-617CF108-D401-4908-B50C-747506D96396Q50099304-B725C903-0FE8-4C28-A1E4-79FACFE48293Q51144553-306BBAF4-0E66-4021-9C74-654E0D1B6A4CQ52629642-D7EAD35C-2016-4FC6-82FB-0996C1A79363Q53777587-B2540AFC-7C94-4D0C-A5B7-EA0F8EE7603CQ54977650-39EEFE32-4927-49E4-8CE3-0ACD1FB320EBQ55494401-5AC5733E-9BC2-4E3D-94F7-F39032221BF5Q56987253-1180B665-AC8C-4B58-86C5-DD23CC59D58CQ56987263-BEF49DBF-002E-4E8A-9BA2-14AD690DAAF8
P2860
Microbial NAD metabolism: lessons from comparative genomics.
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on September 2009
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Microbial NAD metabolism: lessons from comparative genomics.
@en
Microbial NAD metabolism: lessons from comparative genomics.
@nl
type
label
Microbial NAD metabolism: lessons from comparative genomics.
@en
Microbial NAD metabolism: lessons from comparative genomics.
@nl
prefLabel
Microbial NAD metabolism: lessons from comparative genomics.
@en
Microbial NAD metabolism: lessons from comparative genomics.
@nl
P2093
P2860
P356
P1476
Microbial NAD metabolism: lessons from comparative genomics.
@en
P2093
Francesca Gazzaniga
Mark A McPeek
Rebecca Stebbins
Sheila Z Chang
P2860
P304
529-41, Table of Contents
P356
10.1128/MMBR.00042-08
P577
2009-09-01T00:00:00Z