Literature DB >> 22349213

Anion sensitivity and spectral tuning of middle- and long-wavelength-sensitive (MWS/LWS) visual pigments.

Wayne I L Davies1, Susan E Wilkie, Jill A Cowing, Mark W Hankins, David M Hunt.   

Abstract

The long-wavelength-sensitive (LWS) opsins form one of four classes of vertebrate cone visual pigment and exhibit peak spectral sensitivities (λ(max)) that generally range from 525 to 560 nm for rhodopsin/vitamin-A(1) photopigments. Unique amongst the opsin classes, many LWS pigments show anion sensitivity through the interaction of chloride ions with a histidine residue at site 197 (H197) to give a long-wavelength spectral shift in peak sensitivity. Although it has been shown that amino acid substitutions at five sites (180, 197, 277, 285 and 308) are useful in predicting the λ(max) values of the LWS pigment class, some species, such as the elephant shark and most marine mammals, express LWS opsins that possess λ(max) values that are not consistent with this 'five-site' rule, indicating that other interactions may be involved. This study has taken advantage of the natural mutation at the chloride-binding site in the mouse LWS pigment. Through the use of a number of mutant pigments generated by site-directed mutagenesis, a new model has been formulated that takes into account the role of charge and steric properties of the side chains of residues at sites 197 and 308 in the function of the chloride-binding site in determining the peak sensitivity of LWS photopigments.

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Year:  2012        PMID: 22349213     DOI: 10.1007/s00018-012-0934-4

Source DB:  PubMed          Journal:  Cell Mol Life Sci        ISSN: 1420-682X            Impact factor:   9.261


  40 in total

1.  The retinal conformation and its environment in rhodopsin in light of a new 2.2 A crystal structure.

Authors:  Tetsuji Okada; Minoru Sugihara; Ana-Nicoleta Bondar; Marcus Elstner; Peter Entel; Volker Buss
Journal:  J Mol Biol       Date:  2004-09-10       Impact factor: 5.469

2.  The SWISS-MODEL workspace: a web-based environment for protein structure homology modelling.

Authors:  Konstantin Arnold; Lorenza Bordoli; Jürgen Kopp; Torsten Schwede
Journal:  Bioinformatics       Date:  2005-11-13       Impact factor: 6.937

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

4.  Ethanolamine attack of the bovine rhodopsin chromophore.

Authors:  R S Fager; S L Goldman; E W Abrahamson
Journal:  Exp Eye Res       Date:  1979-10       Impact factor: 3.467

5.  Elephants and human color-blind deuteranopes have identical sets of visual pigments.

Authors:  Shozo Yokoyama; Naomi Takenaka; Dalen W Agnew; Jeheskel Shoshani
Journal:  Genetics       Date:  2005-03-21       Impact factor: 4.562

6.  Ionochromic behavior of Grecko visual pigments.

Authors:  F Crescitelli
Journal:  Science       Date:  1977-01-14       Impact factor: 47.728

7.  The cone visual pigments of an Australian marsupial, the tammar wallaby (Macropus eugenii): sequence, spectral tuning, and evolution.

Authors:  Samir S Deeb; Matthew J Wakefield; Takashi Tada; Lauren Marotte; Shozo Yokoyama; Jenny A Marshall Graves
Journal:  Mol Biol Evol       Date:  2003-07-28       Impact factor: 16.240

8.  The visual pigments of the bottlenose dolphin (Tursiops truncatus).

Authors:  J I Fasick; T W Cronin; D M Hunt; P R Robinson
Journal:  Vis Neurosci       Date:  1998 Jul-Aug       Impact factor: 3.241

9.  Adaptive gene loss reflects differences in the visual ecology of basal vertebrates.

Authors:  Wayne L Davies; Shaun P Collin; David M Hunt
Journal:  Mol Biol Evol       Date:  2009-04-27       Impact factor: 16.240

10.  A single amino acid substitution in rhodopsin (lysine 248----leucine) prevents activation of transducin.

Authors:  R R Franke; T P Sakmar; D D Oprian; H G Khorana
Journal:  J Biol Chem       Date:  1988-02-15       Impact factor: 5.157

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  6 in total

1.  Cone monochromacy and visual pigment spectral tuning in wobbegong sharks.

Authors:  Susan M Theiss; Wayne I L Davies; Shaun P Collin; David M Hunt; Nathan S Hart
Journal:  Biol Lett       Date:  2012-09-19       Impact factor: 3.703

2.  Hypothesis on monochromatic vision in scorpionflies questioned by new transcriptomic data.

Authors:  Alexander Böhm; Karen Meusemann; Bernhard Misof; Günther Pass
Journal:  Sci Rep       Date:  2018-06-29       Impact factor: 4.379

3.  Evolution of Vertebrate Phototransduction: Cascade Activation.

Authors:  Trevor D Lamb; Hardip Patel; Aaron Chuah; Riccardo C Natoli; Wayne I L Davies; Nathan S Hart; Shaun P Collin; David M Hunt
Journal:  Mol Biol Evol       Date:  2016-05-11       Impact factor: 16.240

4.  Spectral tuning mediated by helix III in butterfly long wavelength-sensitive visual opsins revealed by heterologous action spectroscopy.

Authors:  Tomoka Saito; Mitsumasa Koyanagi; Tomohiro Sugihara; Takashi Nagata; Kentaro Arikawa; Akihisa Terakita
Journal:  Zoological Lett       Date:  2019-12-16       Impact factor: 2.836

5.  Visual adaptation of opsin genes to the aquatic environment in sea snakes.

Authors:  Takashi Seiko; Takushi Kishida; Mina Toyama; Takahiko Hariyama; Takashi Okitsu; Akimori Wada; Mamoru Toda; Yoko Satta; Yohey Terai
Journal:  BMC Evol Biol       Date:  2020-11-26       Impact factor: 3.260

6.  Short-wavelength-sensitive 2 (Sws2) visual photopigment models combined with atomistic molecular simulations to predict spectral peaks of absorbance.

Authors:  Dharmeshkumar Patel; Jonathan E Barnes; Wayne I L Davies; Deborah L Stenkamp; Jagdish Suresh Patel
Journal:  PLoS Comput Biol       Date:  2020-10-21       Impact factor: 4.475

  6 in total

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