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Bidirectional sex change and plasticity of gonadal phases in the goby Lubricogobius exiguus

Of the ca. 500 known hermaphroditic fish species, bidirectional sex change and simultaneous hermaphroditism are currently known in 69 and 57 species, respectively. Both bidirectional sex change and simultaneous hermaphroditism are predicted to evolve when mating opportunities are limited, such as in...

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Published in:Journal of fish biology 2023-05, Vol.102 (5), p.1079-1087
Main Authors: Oyama, Takumi, Sonoyama, Takayuki, Kasai, Miku, Sakai, Yoichi, Sunobe, Tomoki
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cited_by cdi_FETCH-LOGICAL-c4543-ea00e07f14bf147db543b80278e50e5efb372f06ad6f4e40cfbfb033644b1beb3
cites cdi_FETCH-LOGICAL-c4543-ea00e07f14bf147db543b80278e50e5efb372f06ad6f4e40cfbfb033644b1beb3
container_end_page 1087
container_issue 5
container_start_page 1079
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creator Oyama, Takumi
Sonoyama, Takayuki
Kasai, Miku
Sakai, Yoichi
Sunobe, Tomoki
description Of the ca. 500 known hermaphroditic fish species, bidirectional sex change and simultaneous hermaphroditism are currently known in 69 and 57 species, respectively. Both bidirectional sex change and simultaneous hermaphroditism are predicted to evolve when mating opportunities are limited, such as in cases of low‐density distribution and low mobility of individuals. However, the plasticity of sex is adaptive in obtaining mating opportunities, especially when there is mate loss. Pair‐rearing experiments and histological observations of gonads of the goby Lubricogobius exiguus, which has low‐density distributions and low mobility, showed bidirectional sex change. The male‐role individuals in pairs had gonads in which only the testis was functional (male‐phase), whereas the female‐role individuals had two types of gonads: only the ovary was functional (female‐phase) or both testis and ovary were functional (simultaneously hermaphroditic phase, SH‐phase). In addition, single‐rearing experiments showed SH‐phase gonads in all individuals, and some cyclic spawning but no self‐fertilization occurred. These results revealed that L. exiguus has an unusual sexual pattern among hermaphroditic fishes because they undergo bidirectional sex change and some maintain SH‐phase gonads. These findings indicate that the low‐density distribution and low mobility of L. exiguus in their natural habitat may have influenced the evolution of this unique sexual pattern.
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identifier ISSN: 0022-1112
ispartof Journal of fish biology, 2023-05, Vol.102 (5), p.1079-1087
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1095-8649
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subjects Animals
bidirectional sex change
Biological fertilization
Density
Density distribution
Disorders of Sex Development
Distribution
Female
Females
Fertilization
Fish
Fishes
Gonads
Hermaphroditic Organisms
Hermaphroditism
low‐density distribution
Lubricogobius exiguus
Male
Males
Marine fishes
Mating
Mobility
Ovaries
Ovary
Plastic properties
Plasticity
Reproductive behaviour
Self-fertilization
Sex
Sex Determination Processes
sexual plasticity
simultaneous hermaphrodite
Spawning
Testes
Testis
title Bidirectional sex change and plasticity of gonadal phases in the goby Lubricogobius exiguus
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