Where the Ends Meet: An Overview of Sex Determination in Atheriniform Fishes

Abstract Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many species in this group have marked temperature-dependent sex determination (TSD) and yet many species also have a sex determinant gene t...

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Published inSexual development Vol. 15; no. 1-3; pp. 80 - 92
Main Authors Strüssmann, Carlos A., Yamamoto, Yoji, Hattori, Ricardo S., Fernandino, Juan I., Somoza, Gustavo M.
Format Journal Article
LanguageEnglish
Published Basel, Switzerland S. Karger AG 01.09.2021
Subjects
Analysis
Animals
Female
Fishes
Fishes - genetics
Genotype
Gonads
Male
Physiological aspects
Review Article
Sex Determination Analysis
Sex Determination Processes - genetics
Sex determination, Diagnostic
Sex Differentiation - genetics
Temperature
Japan
California
Temperature-dependent sex determination
Genotypic sex determination
Sex determination
Sex differentiation
Atheriniformes
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Abstract Abstract Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many species in this group have marked temperature-dependent sex determination (TSD) and yet many species also have a sex determinant gene that provides a strong drive for male differentiation. Thus, in these species the 2 forms of sex determination that were once considered to be mutually exclusive, environmental (ESD) and genotypic (GSD) sex determination, can coexist at environmentally relevant conditions. Here, we review the current knowledge on sex determination in atheriniform fishes with emphasis on the molecular and physiological mechanisms of ESD and GSD, the coexistence and cross-talk between these 2 mechanisms, the possibility of extragonadal transduction of environmental information and/or extragonadal onset of sex determination, and the results of field studies applying novel tools such as otolith increment analysis and molecular markers of genetic sex developed for selected New World and Old World atheriniform species. We also discuss the existence of molecular and histological mechanisms to prevent the discrepant differentiation in parts of the gonads because of ambiguous or conflicting environmental and genetic signals and particularly the possibility that the female is the default state in these species.
AbstractList Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many species in this group have marked temperature-dependent sex determination (TSD) and yet many species also have a sex determinant gene that provides a strong drive for male differentiation. Thus, in these species the 2 forms of sex determination that were once considered to be mutually exclusive, environmental (ESD) and genotypic (GSD) sex determination, can coexist at environmentally relevant conditions. Here, we review the current knowledge on sex determination in atheriniform fishes with emphasis on the molecular and physiological mechanisms of ESD and GSD, the coexistence and cross-talk between these 2 mechanisms, the possibility of extragonadal transduction of environmental information and/or extragonadal onset of sex determination, and the results of field studies applying novel tools such as otolith increment analysis and molecular markers of genetic sex developed for selected New World and Old World atheriniform species. We also discuss the existence of molecular and histological mechanisms to prevent the discrepant differentiation in parts of the gonads because of ambiguous or conflicting environmental and genetic signals and particularly the possibility that the female is the default state in these species.
Abstract Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many species in this group have marked temperature-dependent sex determination (TSD) and yet many species also have a sex determinant gene that provides a strong drive for male differentiation. Thus, in these species the 2 forms of sex determination that were once considered to be mutually exclusive, environmental (ESD) and genotypic (GSD) sex determination, can coexist at environmentally relevant conditions. Here, we review the current knowledge on sex determination in atheriniform fishes with emphasis on the molecular and physiological mechanisms of ESD and GSD, the coexistence and cross-talk between these 2 mechanisms, the possibility of extragonadal transduction of environmental information and/or extragonadal onset of sex determination, and the results of field studies applying novel tools such as otolith increment analysis and molecular markers of genetic sex developed for selected New World and Old World atheriniform species. We also discuss the existence of molecular and histological mechanisms to prevent the discrepant differentiation in parts of the gonads because of ambiguous or conflicting environmental and genetic signals and particularly the possibility that the female is the default state in these species.
Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many species in this group have marked temperature-dependent sex determination (TSD) and yet many species also have a sex determinant gene that provides a strong drive for male differentiation. Thus, in these species the 2 forms of sex determination that were once considered to be mutually exclusive, environmental (ESD) and genotypic (GSD) sex determination, can coexist at environmentally relevant conditions. Here, we review the current knowledge on sex determination in atheriniform fishes with emphasis on the molecular and physiological mechanisms of ESD and GSD, the coexistence and cross-talk between these 2 mechanisms, the possibility of extragonadal transduction of environmental information and/or extragonadal onset of sex determination, and the results of field studies applying novel tools such as otolith increment analysis and molecular markers of genetic sex developed for selected New World and Old World atheriniform species. We also discuss the existence of molecular and histological mechanisms to prevent the discrepant differentiation in parts of the gonads because of ambiguous or conflicting environmental and genetic signals and particularly the possibility that the female is the default state in these species. Keywords: Atheriniformes, Genotypic sex determination, Sex determination, Sex differentiation, Temperature-dependent sex determination
Audience Academic
Author Strüssmann, Carlos A.
Somoza, Gustavo M.
Yamamoto, Yoji
Fernandino, Juan I.
Hattori, Ricardo S.
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  givenname: Gustavo M.
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Issue 1-3
Keywords Temperature-dependent sex determination
Genotypic sex determination
Sex determination
Sex differentiation
Atheriniformes
Language English
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Snippet Abstract Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination....
Atheriniform fishes have recently emerged as attractive models for evolutionary, ecological, and molecular/physiological studies on sex determination. Many...
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SubjectTerms Analysis
Animals
Female
Fishes
Fishes - genetics
Genotype
Gonads
Male
Physiological aspects
Review Article
Sex Determination Analysis
Sex Determination Processes - genetics
Sex determination, Diagnostic
Sex Differentiation - genetics
Temperature
Title Where the Ends Meet: An Overview of Sex Determination in Atheriniform Fishes
URI https://karger.com/doi/10.1159/000515191
https://www.ncbi.nlm.nih.gov/pubmed/33951664
https://search.proquest.com/docview/2522621831
Volume 15
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