A Mechanism of Extreme Growth and Reliable Signaling in Sexually Selected Ornaments and Weapons

Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a...

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Published inScience (American Association for the Advancement of Science) Vol. 337; no. 6096; pp. 860 - 864
Main Authors Emlen, Douglas J., Warren, Ian A., Johns, Annika, Dworkin, Ian, Lavine, Laura Corley
Format Journal Article
LanguageEnglish
Published Washington, DC American Association for the Advancement of Science 17.08.2012
The American Association for the Advancement of Science
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Abstract Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals—critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection.
AbstractList Exaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to sexual selection because they signal the quality of an individual's breeding status—but how? Emlen et al. (p. 860 , published online 26 July) present a general mechanistic model for the evolution of exaggerated traits, proposing that sensitivity to the insulin response pathway can explain variation among individuals. The exaggerated size of such ornaments and their increased variability between individuals are a result of sexual selection for traits that are honest signals of the fitness of the individual. Rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and reliably indicate male quality. Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals—critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection.
Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals—critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection.
Exaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to sexual selection because they signal the quality of an individual's breeding status--but how? Emlen et al. (p. 860, published online 26 July) present a general mechanistic model for the evolution of exaggerated traits, proposing that sensitivity to the insulin response pathway can explain variation among individuals. The exaggerated size of such ornaments and their increased variability between individuals are a result of sexual selection for traits that are honest signals of the fitness of the individual. [PUBLICATION ABSTRACT] Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals--critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection. [PUBLICATION ABSTRACT]
Truthful Embellishments Exaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to sexual selection because they signal the quality of an individual's breeding status—but how? Emlen et al. (p. 860, published online 26 July) present a general mechanistic model for the evolution of exaggerated traits, proposing that sensitivity to the insulin response pathway can explain variation among individuals. The exaggerated size of such ornaments and their increased variability between individuals are a result of sexual selection for traits that are honest signals of the fitness of the individual.
Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals--critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection.Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the insulin/insulin-like growth factor (IGF) pathway may be responsible for the extreme growth of these structures. We document how rhinoceros beetle horns, a sexually selected weapon, are more sensitive to nutrition and more responsive to perturbation of the insulin/IGF pathway than other body structures. We then illustrate how enhanced sensitivity to insulin/IGF signaling in a growing ornament or weapon would cause heightened condition sensitivity and increased variability in expression among individuals--critical properties of reliable signals of male quality. The possibility that reliable signaling arises as a by-product of the growth mechanism may explain why trait exaggeration has evolved so many different times in the context of sexual selection.
Truthful EmbellishmentsExaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to sexual selection because they signal the quality of an individual's breeding status-but how? Emlen et al. (p. 860, published online 26 July) present a general mechanistic model for the evolution of exaggerated traits, proposing that sensitivity to the insulin response pathway can explain variation among individuals. The exaggerated size of such ornaments and their increased variability between individuals are a result of sexual selection for traits that are honest signals of the fitness of the individual.
Author Warren, Ian A.
Johns, Annika
Emlen, Douglas J.
Dworkin, Ian
Lavine, Laura Corley
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  givenname: Laura Corley
  surname: Lavine
  fullname: Lavine, Laura Corley
BackLink http://pascal-francis.inist.fr/vibad/index.php?action=getRecordDetail&idt=26264629$$DView record in Pascal Francis
https://www.ncbi.nlm.nih.gov/pubmed/22837386$$D View this record in MEDLINE/PubMed
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Keywords Insulin like growth factor
Vertebrata
Secondary sexual character
Sexual selection
Biological evolution
Morphology
Male
Invertebrata
Mechanism of action
Language English
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Snippet Many male animals wield ornaments or weapons of exaggerated proportions. We propose that increased cellular sensitivity to signaling through the...
Exaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to sexual selection because...
Truthful EmbellishmentsExaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to...
Truthful Embellishments Exaggerated ornaments such as beetle horns, deer antlers, and extreme tail lengths in birds are typically assumed to be subject to...
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jstor
SourceType Aggregation Database
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Enrichment Source
Publisher
StartPage 860
SubjectTerms Animal wings
Animals
antlers
Beetles
Biological and medical sciences
Biological evolution
birds
Body size
breeding
Breeding status
Cell growth
Coleoptera
Coleoptera - anatomy & histology
Coleoptera - genetics
Coleoptera - growth & development
Deer
Evolution
Fitness
Fundamental and applied biological sciences. Psychology
Gene Knockdown Techniques
Genetics of eukaryotes. Biological and molecular evolution
Genitalia
Growth traits
Horns
Horns - anatomy & histology
Horns - growth & development
insulin
Insulin - physiology
Insulin-like growth factors
Male
Male animals
Mating Preference, Animal
mechanistic models
Molecular Sequence Data
Online
Pathways
Phenotypic traits
Receptor, Insulin - genetics
Receptor, Insulin - physiology
Sexual selection
Signal Transduction
Somatomedins - physiology
Weapons
Title A Mechanism of Extreme Growth and Reliable Signaling in Sexually Selected Ornaments and Weapons
URI https://www.jstor.org/stable/23268384
https://www.ncbi.nlm.nih.gov/pubmed/22837386
https://www.proquest.com/docview/1033734437
https://www.proquest.com/docview/1034518149
https://www.proquest.com/docview/1551641829
https://www.proquest.com/docview/1808084487
https://www.proquest.com/docview/2000341693
Volume 337
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