Literature DB >> 17646658

Identification of a locus control region for quadruplicated green-sensitive opsin genes in zebrafish.

Taro Tsujimura1, Akito Chinen, Shoji Kawamura.   

Abstract

Duplication of opsin genes has a crucial role in the evolution of visual system. Zebrafish have four green-sensitive (RH2) opsin genes (RH2-1, RH2-2, RH2-3, and RH2-4) arrayed in tandem. They are expressed in the short member of the double cones (SDC) but differ in expression areas in the retina and absorption spectra of their encoding photopigments. The shortest and the second shortest wavelength subtypes, RH2-1 and RH2-2, are expressed in the central-to-dorsal retina. The longer wavelength subtype, RH2-3, is expressed circumscribing the RH2-1/RH2-2 area, and the longest subtype, RH2-4, is expressed further circumscribing the RH2-3 area and mainly occupying the ventral retina. The present report shows that a 0.5-kb region located 15 kb upstream of the RH2 gene array is an essential regulator for their expression. When the 0.5-kb region was deleted from a P1-artificial chromosome (PAC) clone encompassing the four RH2 genes and when one of these genes was replaced with a reporter GFP gene, the GFP expression in SDCs was abolished in the zebrafish to which a series of the modified PAC clones were introduced. Transgenic studies also showed that the 0.5-kb region conferred the SDC-specific expression for promoters of a non-SDC (UV opsin) and a nonretinal (keratin 8) gene. Changing the location of the 0.5-kb region in the PAC clone conferred the highest expression for its proximal gene. The 0.5-kb region was thus designated as RH2-LCR analogous to the locus control region of the L-M opsin genes of primates.

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Year:  2007        PMID: 17646658      PMCID: PMC1937549          DOI: 10.1073/pnas.0704061104

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


  29 in total

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2.  Proximal and distal sequences control UV cone pigment gene expression in transgenic zebrafish.

Authors:  Wenqin Luo; John Williams; Philip M Smallwood; Jeffrey W Touchman; Laura M Roman; Jeremy Nathans
Journal:  J Biol Chem       Date:  2004-02-13       Impact factor: 5.157

3.  Topography of long- and middle-wavelength sensitive cone opsin gene expression in human and Old World monkey retina.

Authors:  Maureen Neitz; Shawn D Balding; Carrie McMahon; Stacy A Sjoberg; Jay Neitz
Journal:  Vis Neurosci       Date:  2006 May-Aug       Impact factor: 3.241

Review 4.  Molecular evolution of vertebrate visual pigments.

Authors:  S Yokoyama
Journal:  Prog Retin Eye Res       Date:  2000-07       Impact factor: 21.198

5.  Role of a locus control region in the mutually exclusive expression of human red and green cone pigment genes.

Authors:  Philip M Smallwood; Yanshu Wang; Jeremy Nathans
Journal:  Proc Natl Acad Sci U S A       Date:  2002-01-02       Impact factor: 11.205

6.  Gene duplication and spectral diversification of cone visual pigments of zebrafish.

Authors:  Akito Chinen; Takanori Hamaoka; Yukihiro Yamada; Shoji Kawamura
Journal:  Genetics       Date:  2003-02       Impact factor: 4.562

7.  Green fluorescent protein expression in germ-line transmitted transgenic zebrafish under a stratified epithelial promoter from keratin8.

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8.  Negative feedback regulation ensures the one receptor-one olfactory neuron rule in mouse.

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Authors:  Takanori Hamaoka; Masaki Takechi; Akito Chinen; Yuko Nishiwaki; Shoji Kawamura
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  36 in total

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2.  Determination of the Genetic Architecture Underlying Short Wavelength Sensitivity in Lake Malawi Cichlids.

Authors:  Sri Pratima Nandamuri; Brian E Dalton; Karen L Carleton
Journal:  J Hered       Date:  2017-06-01       Impact factor: 2.645

3.  Tbx2a Modulates Switching of RH2 and LWS Opsin Gene Expression.

Authors:  Benjamin A Sandkam; Laura Campello; Conor O'Brien; Sri Pratima Nandamuri; William J Gammerdinger; Matthew A Conte; Anand Swaroop; Karen L Carleton
Journal:  Mol Biol Evol       Date:  2020-07-01       Impact factor: 16.240

4.  Genetic basis of differential opsin gene expression in cichlid fishes.

Authors:  K L Carleton; C M Hofmann; C Klisz; Z Patel; L M Chircus; L H Simenauer; N Soodoo; R C Albertson; J R Ser
Journal:  J Evol Biol       Date:  2010-03-01       Impact factor: 2.411

5.  Disparate expression specificities coded by a shared Hox-C enhancer.

Authors:  Steve W Miller; James W Posakony
Journal:  Elife       Date:  2020-04-28       Impact factor: 8.140

6.  Gene duplication and divergence of long wavelength-sensitive opsin genes in the guppy, Poecilia reticulata.

Authors:  Corey T Watson; Suzanne M Gray; Margarete Hoffmann; Krzysztof P Lubieniecki; Jeffrey B Joy; Ben A Sandkam; Detlef Weigel; Ellis Loew; Christine Dreyer; William S Davidson; Felix Breden
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7.  Analysis of the retina in the zebrafish model.

Authors:  Andrei Avanesov; Jarema Malicki
Journal:  Methods Cell Biol       Date:  2010       Impact factor: 1.441

Review 8.  The retinal mosaics of opsin expression in invertebrates and vertebrates.

Authors:  Jens Rister; Claude Desplan
Journal:  Dev Neurobiol       Date:  2011-12       Impact factor: 3.964

9.  Characterization of transgenic zebrafish lines that express GFP in the retina, pineal gland, olfactory bulb, hatching gland, and optic tectum.

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Journal:  Gene Expr Patterns       Date:  2013-03-14       Impact factor: 1.224

Review 10.  Mechanisms of Photoreceptor Patterning in Vertebrates and Invertebrates.

Authors:  Kayla Viets; Kiara Eldred; Robert J Johnston
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