In vivo interactome of Helicobacter pylori urease revealed by tandem affinity purification.
about
Trans-translation in Helicobacter pylori: essentiality of ribosome rescue and requirement of protein tagging for stress resistance and competenceInterplay of metal ions and ureaseThe structure of the Helicobacter pylori ferric uptake regulator Fur reveals three functional metal binding sitesAssembly of Preactivation Complex for Urease Maturation in Helicobacter pylori: CRYSTAL STRUCTURE OF UreF-UreH PROTEIN COMPLEXStructure of UreG/UreF/UreH complex reveals how urease accessory proteins facilitate maturation of Helicobacter pylori ureaseA second-generation protein-protein interaction network of Helicobacter pyloriBiochemical Characterization of Hypothetical Proteins from Helicobacter pyloriBacterial protein interaction networks: puzzle stones from solved complex structures add to a clearer picture.A subset of the diverse COG0523 family of putative metal chaperones is linked to zinc homeostasis in all kingdoms of life.The Helicobacter pylori GroES cochaperonin HspA functions as a specialized nickel chaperone and sequestration protein through its unique C-terminal extensionHpSlyD inducing CDX2 and VIL1 expression mediated through TCTP protein may contribute to intestinal metaplasia in the stomachAmmonium metabolism enzymes aid Helicobacter pylori acid resistance.Hyperthermophilic archaea produce membrane vesicles that can transfer DNA.Extracellular membrane vesicles harbouring viral genomes.Crosstalk between Helicobacter pylori and gastric epithelial cells is impaired by docosahexaenoic acid.Effects of metal on the biochemical properties of Helicobacter pylori HypB, a maturation factor of [NiFe]-hydrogenase and ureaseComplexomics study of two Helicobacter pylori strains of two pathological origins: potential targets for vaccine development and new insight in bacteria metabolism.Hierarchical regulation of the NikR-mediated nickel response in Helicobacter pyloriHelicobacter pylori recombinant UreG protein: cloning, expression, and assessment of its seroreactivity.Metallo-GTPase HypB from Helicobacter pylori and its interaction with nickel chaperone protein HypAEvolution of Helicobacter: Acquisition by Gastric Species of Two Histidine-Rich Proteins Essential for Colonization.Cell-free Determination of Binary Complexes That Comprise Extended Protein-Protein Interaction Networks of Yersinia pestis.A minimal bacterial RNase J-based degradosome is associated with translating ribosomes.Biosynthesis of the urease metallocenterPossible links between stress defense and the tricarboxylic acid (TCA) cycle in Francisella pathogenesis.An intact urease assembly pathway is required to compete with NikR for nickel ions in Helicobacter pylori.Common themes and unique proteins for the uptake and trafficking of nickel, a metal essential for the virulence of Helicobacter pyloriRole of Helicobacter pylori methionine sulfoxide reductase in urease maturation.Linking the proteins--elucidation of proteome-scale networks using mass spectrometry.Isolation and characterization of plant protein complexes by mass spectrometry.Helicobacter pylori FKBP-type PPIase promotes gastric epithelial cell proliferation and anchorage-independent growth through activation of ERK-mediated mitogenic signaling pathway.The biological activity of H. pylori SlyD in vitro.Helicobacter pylori hydrogenase accessory protein HypA and urease accessory protein UreG compete with each other for UreE recognition.Protein interactions and localization of the Escherichia coli accessory protein HypA during nickel insertion to [NiFe] hydrogenase.A putative spermidine synthase interacts with flagellar switch protein FliM and regulates motility in Helicobacter pylori.Protein-Protein Interaction: Tandem Affinity Purification in Bacteria.Coupled amino acid deamidase-transport systems essential for Helicobacter pylori colonization.Aminophosphinates against Helicobacter pylori ureolysis-Biochemical and whole-cell inhibition characteristics.Structure-function analyses of metal-binding sites of HypA reveal residues important for hydrogenase maturation in Helicobacter pylori.Multifaceted SlyD from Helicobacter pylori: implication in [NiFe] hydrogenase maturation.
P2860
Q21144203-3FEB0D6B-5134-4AD5-9596-AD8F842825BBQ24653365-75AD8C6B-41B6-483B-BD67-8C542C09A339Q27666462-9D86B17E-D15C-415A-BB96-335F3F981050Q27675136-F8EDC26E-3397-4476-A43A-D7E5F66CBC99Q27680225-66079E98-D54E-4AD9-9D85-1555ECFA426AQ28484786-8A29B338-5191-4514-9503-CBE81C951B4FQ28534122-B68FBA61-FF4C-47E9-B849-25ED12D5AC7AQ33351258-9842B0FF-A453-4980-BF0C-6516ED0FDBB6Q33509905-D2FCE9BC-960D-45AA-B3C5-2DC42E2BBC7AQ33648641-E14A0A90-8F9D-4E39-9529-049DCB2627DEQ33720199-37A02AF3-6DFE-40F3-9AE4-4C4EE8F9465CQ34056754-86904F67-FCC8-4EA7-A168-8B8D8B97BFC2Q34350188-75776771-285B-427E-85F9-923F0B712D35Q34371025-05036B7C-ADC4-4FB9-BC24-048469104883Q34663892-4C4B9A8B-E640-427B-A5A6-CCAE1B38C7F4Q34740567-57E9C4B5-CF79-4B93-9709-0046381010CFQ35006580-87B6DACB-5F30-4EE6-A1D6-375C9DCCDF71Q35224386-6A63585A-FA81-49EE-B532-0D696ADE47C9Q35433178-FEC780A6-20A5-41F4-BBC3-0872835B0760Q35838957-2F434EAE-1B67-4D30-BD6E-FCFA78AF9AF4Q35862158-6C25E928-25D6-4A48-B5D9-A78B71F30F1AQ36094538-283CA136-AAAA-4CF5-A144-A21EFD33DEDCQ36668926-0008AD49-7B4A-4C62-B0EE-50BF0FD38F26Q36832539-41ED06C4-94DF-4640-893B-1C7C9CE3D99AQ37072886-29ADC686-07EE-4B6A-A622-547562D4DAF2Q37127824-7069FA2D-37A1-44A6-B713-3CF59316652EQ37377077-CB028368-381D-4501-9583-60A99C94FED3Q37604057-2D59A5CB-A9D7-468B-AF17-677C55AF639FQ37845324-B307132E-0F6A-42A2-9D70-A9E06FC9216BQ37862657-EFAA8958-0A59-483F-AE8E-F32B09FBD6BBQ38908872-C523D518-EF89-4E81-B018-56423D8DB0ACQ39146621-68C198D7-ABBC-4A9D-93D8-1D16ED10F2A4Q39486425-B0E44B07-BC2F-49EB-BDFB-F3ACA53E718FQ39709971-B4080CE5-284B-4672-95D7-9326F0FDE48CQ40068369-C03C2BF3-9785-4D84-BFA6-BD7287C17DA0Q40138709-BD89D483-C97B-412E-AEF7-E194912BC095Q40755771-2DF2AC8D-CDB9-4826-B6A1-4DF877F4C26FQ41327355-23968B7A-C8D2-4962-B250-29FCD61D7FFAQ41414114-DB201260-C04F-45F4-8B64-9D3B15F123DBQ42610163-BE132658-D75A-4045-9AD7-D0718C252F22
P2860
In vivo interactome of Helicobacter pylori urease revealed by tandem affinity purification.
description
2008 nî lūn-bûn
@nan
2008年の論文
@ja
2008年学术文章
@wuu
2008年学术文章
@zh-cn
2008年学术文章
@zh-hans
2008年学术文章
@zh-my
2008年学术文章
@zh-sg
2008年學術文章
@yue
2008年學術文章
@zh
2008年學術文章
@zh-hant
name
In vivo interactome of Helicob ...... tandem affinity purification.
@en
In vivo interactome of Helicob ...... tandem affinity purification.
@nl
type
label
In vivo interactome of Helicob ...... tandem affinity purification.
@en
In vivo interactome of Helicob ...... tandem affinity purification.
@nl
prefLabel
In vivo interactome of Helicob ...... tandem affinity purification.
@en
In vivo interactome of Helicob ...... tandem affinity purification.
@nl
P2093
P2860
P50
P1476
In vivo interactome of Helicob ...... y tandem affinity purification
@en
P2093
Agnès Labigne
Chantal Ecobichon
Jean-Claude Rousselle
Kerstin Stingl
Pascal Lenormand
P2860
P304
P356
10.1074/MCP.M800160-MCP200
P577
2008-08-04T00:00:00Z