Insertion of a multispanning membrane protein occurs sequentially and requires only one signal sequence
about
Importance of Arg-219 for correct biogenesis of alpha 1 homooligomeric glycine receptorsIn vivo N-glycosylation of the mep2 high-affinity ammonium transporter of Saccharomyces cerevisiae reveals an extracytosolic N-terminus.Membrane topology of the 22 kDa integral peroxisomal membrane proteinThe anticancer gene ORCTL3 targets stearoyl-CoA desaturase-1 for tumour-specific apoptosisStructure and function of haemolysin B,P-glycoprotein and other members of a novel family of membrane translocators.The multi-structural feature of the multidrug resistance gene product P-glycoprotein: implications for its mechanism of action (hypothesis).Topogenesis of membrane proteins: determinants and dynamics.Ordered membrane insertion of an archaeal opsin in vivo.Lactogen and LH receptors. Rat P-450 17 alpha, structural analysis and hormonal regulation of mRNA levels in the Leydig cell.Regulation of multispanning membrane protein topology via post-translational annealing.Glycosylation can influence topogenesis of membrane proteins and reveals dynamic reorientation of nascent polypeptides within the translocon.Molecular and functional studies of the cardiac sodium-calcium exchanger.Determination of the transmembrane topology of yeast Sec61p, an essential component of the endoplasmic reticulum translocation complex.Overexpression of integral membrane proteins for structural studies.Differential stability of biogenesis intermediates reveals a common pathway for aquaporin-1 topological maturation.Truncation releases olfactory receptors from the endoplasmic reticulum of heterologous cells.Signal peptidase can cleave inside a polytopic membrane protein.Asn-265 of frog kainate binding protein is a functional glycosylation site: implications for the transmembrane topology of glutamate receptors.Cooperativity and flexibility of cystic fibrosis transmembrane conductance regulator transmembrane segments participate in membrane localization of a charged residue.A basic cluster determines topology of the cytoplasmic M3-M4 loop of the glycine receptor alpha1 subunit.Dual topology of the hepatitis B virus large envelope protein: determinants influencing post-translational pre-S translocation.Topological and segmental phylogenetic analyses of the anion exchanger (band 3) family of transporters.Analysis of the transmembrane topology and membrane assembly of the GAT-1 gamma-aminobutyric acid transporter.Membrane topology and identification of key residues of EaDAcT, a plant MBOAT with unusual substrate specificity.Integration of deletion mutants of bovine rhodopsin into the membrane of the endoplasmic reticulum.Identification of sequence determinants that direct different intracellular folding pathways for aquaporin-1 and aquaporin-4.Topological determinants of internal transmembrane segments in P-glycoprotein sequences.Membrane targeting and determination of transmembrane topology of the human vasopressin V2 receptor.A short C-terminal tail prevents mis-targeting of hydrophobic mitochondrial membrane proteins to the ERCombinatorial Control of Prion Protein Biogenesis by the Signal Sequence and Transmembrane Domain
P2860
Q24304967-89452BF0-01E0-4268-B039-712D30579ACAQ27932169-655EB6B0-F03D-44C4-AA06-D369BB7B96C5Q28569095-3CB85158-7EB6-4C9A-8607-C5F653B0C614Q33992032-7247B1E6-7269-421D-B17A-579D520E97A2Q34019485-0D548B54-EF50-4482-B405-096FAF177861Q34313553-44391B36-0E95-447E-B485-35D702A27556Q34353219-643C7AC8-FA87-4570-8B72-7D6C37FD0714Q35169718-EFF03DDB-E08A-4966-89A8-432163E51B29Q36204818-C71DC86E-46C8-4B3E-936A-9C13769F566CQ36255160-FE1ECBBB-26E9-4573-9594-890343E50F43Q36326048-7790859B-54CC-4AC9-A8E1-381A5075A3C7Q36940921-179B6212-A931-446E-A1DC-66C81EC23B5DQ38352353-33F70A25-5086-4347-B1C2-0F49F0359D51Q40370871-196E965C-7895-4359-BF50-C35EBBBC8329Q40498191-C24C93E1-AF87-4730-A0B7-3626CC9F3004Q40951480-50651503-219F-4918-8FB4-8F5C9501DF25Q41295514-BDE70DF0-D83E-475D-BB50-C45B88A96C94Q41324785-704EED2A-947D-4510-94AB-4310C81E6DE2Q44108478-A47280F4-1FA5-46FE-B762-3465DCC7D869Q44336498-21EF2E85-7BC3-4CF8-A383-42FD4A245B99Q45737794-7D7E842E-A941-49CF-AC7E-3E613693C3B8Q46385058-FC75BCD2-C243-4F2B-8E0E-4CBBA63EBA2FQ48956982-074B5640-A3C0-42FE-A870-8E3C6A7D8130Q50886522-5DBF5621-9684-4BED-ACDB-4CAFE19019AEQ51071862-116EF283-621A-462B-9AA9-83E730F6BDE3Q52540494-717861BB-5FFE-4C20-8AB3-2A80A4816687Q54182313-DFE6FB20-136C-4EFA-9812-D8AE87FFFF00Q54577139-1860B0E8-192B-45D8-84AB-9193ED8AC2BAQ57381452-530E75D8-0A35-4006-B381-5515D4A75D2DQ57842645-9A10E67E-DECD-4595-A429-4FE500AB2EB4
P2860
Insertion of a multispanning membrane protein occurs sequentially and requires only one signal sequence
description
im Oktober 1988 veröffentlichter wissenschaftlicher Artikel
@de
scientific article published on 01 October 1988
@en
wetenschappelijk artikel
@nl
наукова стаття, опублікована в жовтні 1988
@uk
name
Insertion of a multispanning m ...... uires only one signal sequence
@en
Insertion of a multispanning m ...... uires only one signal sequence
@nl
type
label
Insertion of a multispanning m ...... uires only one signal sequence
@en
Insertion of a multispanning m ...... uires only one signal sequence
@nl
prefLabel
Insertion of a multispanning m ...... uires only one signal sequence
@en
Insertion of a multispanning m ...... uires only one signal sequence
@nl
P1433
P1476
Insertion of a multispanning m ...... uires only one signal sequence
@en
P2093
H P Wessels
P356
10.1016/0092-8674(88)90009-8
P407
P577
1988-10-01T00:00:00Z