Literature DB >> 7724540

In vivo assembly of rhodopsin from expressed polypeptide fragments.

K D Ridge1, S S Lee, L L Yao.   

Abstract

Rhodopsin folding and assembly were investigated by expression of five bovine opsin gene fragments separated at points corresponding to proteolytic cleavage sites in the second or third cytoplasmic regions. The CH(1-146) and CH(147-348) gene fragments encode amino acids 1-146 and 147-348 of opsin, while the TH(1-240) and TH(241-348) gene fragments encode amino acids 1-240 and 241-348, respectively. Another gene fragment, CT(147-240), encodes amino acids 147-240. All five opsin polypeptide fragments were stably produced upon expression of the corresponding gene fragments in COS-1 cells. The singly expressed polypeptide fragments failed to form a chromophore with 11-cis-retinal, whereas coexpression of two or three complementary fragments [CH(1-146) + CH(147-348), TH(1-240) + TH(241-348), or CH(1-146) + CT(147-240) + TH(241-348)] formed pigments with spectral properties similar to wild-type rhodopsin. The NH2-terminal polypeptide in these rhodopsins showed a glycosylation pattern characteristic of wild-type COS-1 cell rhodopsin and was noncovalently associated with its complementary fragment(s). Further, the CH(1-146) + CH(147-348) rhodopsin showed substantial light-dependent activation of transducin. We conclude that the functional assembly of rhodopsin is mediated by the association of at least three protein-folding domains.

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Year:  1995        PMID: 7724540      PMCID: PMC42134          DOI: 10.1073/pnas.92.8.3204

Source DB:  PubMed          Journal:  Proc Natl Acad Sci U S A        ISSN: 0027-8424            Impact factor:   11.205


  48 in total

1.  Light-induced binding of guanosinetriphosphatase to bovine photoreceptor membranes: effect of limited proteolysis of the membranes.

Authors:  H Kühn; P A Hargrave
Journal:  Biochemistry       Date:  1981-04-28       Impact factor: 3.162

Review 2.  Transduction mechanisms of vertebrate and invertebrate photoreceptors.

Authors:  S Yarfitz; J B Hurley
Journal:  J Biol Chem       Date:  1994-05-20       Impact factor: 5.157

3.  Monoclonal antibodies to rhodopsin: characterization, cross-reactivity, and application as structural probes.

Authors:  R S Molday; D MacKenzie
Journal:  Biochemistry       Date:  1983-02-01       Impact factor: 3.162

Review 4.  Folding of protein fragments.

Authors:  D B Wetlaufer
Journal:  Adv Protein Chem       Date:  1981

5.  The structure of bovine rhodopsin.

Authors:  P A Hargrave; J H McDowell; D R Curtis; J K Wang; E Juszczak; S L Fong; J K Rao; P Argos
Journal:  Biophys Struct Mech       Date:  1983

Review 6.  Rhodopsin and bacteriorhodopsin: structure-function relationships.

Authors: 
Journal:  FEBS Lett       Date:  1982-11-08       Impact factor: 4.124

7.  Refolding of an integral membrane protein. Denaturation, renaturation, and reconstitution of intact bacteriorhodopsin and two proteolytic fragments.

Authors:  K S Huang; H Bayley; M J Liao; E London; H G Khorana
Journal:  J Biol Chem       Date:  1981-04-25       Impact factor: 5.157

8.  DNA sequencing with chain-terminating inhibitors.

Authors:  F Sanger; S Nicklen; A R Coulson
Journal:  Proc Natl Acad Sci U S A       Date:  1977-12       Impact factor: 11.205

9.  Flow of information in the light-triggered cyclic nucleotide cascade of vision.

Authors:  B K Fung; J B Hurley; L Stryer
Journal:  Proc Natl Acad Sci U S A       Date:  1981-01       Impact factor: 11.205

10.  Site of attachment of 11-cis-retinal in bovine rhodopsin.

Authors:  J K Wang; J H McDowell; P A Hargrave
Journal:  Biochemistry       Date:  1980-10-28       Impact factor: 3.162

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  28 in total

1.  Topology studies with biosynthetic fragments identify interacting transmembrane regions of the human red-cell anion exchanger (band 3; AE1).

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Review 2.  Structural features of heterotrimeric G-protein-coupled receptors and their modulatory proteins.

Authors:  H LeVine
Journal:  Mol Neurobiol       Date:  1999-04       Impact factor: 5.590

3.  Quality control of transmembrane domain assembly in the tetraspanin CD82.

Authors:  K S Cannon; P Cresswell
Journal:  EMBO J       Date:  2001-05-15       Impact factor: 11.598

Review 4.  Sequence analyses of G-protein-coupled receptors: similarities to rhodopsin.

Authors:  Tara Mirzadegan; Gil Benkö; Sławomir Filipek; Krzysztof Palczewski
Journal:  Biochemistry       Date:  2003-03-18       Impact factor: 3.162

5.  Oligomeric forms of G protein-coupled receptors (GPCRs).

Authors:  Krzysztof Palczewski
Journal:  Trends Biochem Sci       Date:  2010-06-09       Impact factor: 13.807

6.  Assembling a Correctly Folded and Functional Heptahelical Membrane Protein by Protein Trans-splicing.

Authors:  Michaela Mehler; Carl Elias Eckert; Alena Busche; Jennifer Kulhei; Jonas Michaelis; Johanna Becker-Baldus; Josef Wachtveitl; Volker Dötsch; Clemens Glaubitz
Journal:  J Biol Chem       Date:  2015-09-24       Impact factor: 5.157

7.  Secondary structure, membrane localization, and coassembly within phospholipid membranes of synthetic segments derived from the N- and C-termini regions of the ROMK1 K+ channel.

Authors:  I Ben-Efraim; Y Shai
Journal:  Protein Sci       Date:  1996-11       Impact factor: 6.725

Review 8.  Vertebrate membrane proteins: structure, function, and insights from biophysical approaches.

Authors:  Daniel J Müller; Nan Wu; Krzysztof Palczewski
Journal:  Pharmacol Rev       Date:  2008-03-05       Impact factor: 25.468

9.  The effect of loops on the structural organization of alpha-helical membrane proteins.

Authors:  Oznur Tastan; Judith Klein-Seetharaman; Hagai Meirovitch
Journal:  Biophys J       Date:  2009-03-18       Impact factor: 4.033

10.  Membrane-inserted conformation of transmembrane domain 4 of divalent-metal transporter.

Authors:  Hongyan Li; Fei Li; Hongzhe Sun; Zhong Ming Qian
Journal:  Biochem J       Date:  2003-06-15       Impact factor: 3.857

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