Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans

The Wamide neuropeptide superfamily is of interest due to its distinctive functions in regulating life cycle transitions, metamorphic hormone signaling, and several aspects of digestive system function, from gut muscle contraction to satiety and fat storage. Due to variation among researchers in nam...

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Main Author: Elizabeth A. Williams
Format: Article
Language:English
Published: Frontiers Media S.A. 2020-05-01
Series:Frontiers in Endocrinology
Subjects:
Online Access:https://www.frontiersin.org/article/10.3389/fendo.2020.00344/full
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spelling doaj-3e0c6e19406449108f6ef78afda87f302020-11-25T03:14:48ZengFrontiers Media S.A.Frontiers in Endocrinology1664-23922020-05-011110.3389/fendo.2020.00344535422Function and Distribution of the Wamide Neuropeptide Superfamily in MetazoansElizabeth A. WilliamsThe Wamide neuropeptide superfamily is of interest due to its distinctive functions in regulating life cycle transitions, metamorphic hormone signaling, and several aspects of digestive system function, from gut muscle contraction to satiety and fat storage. Due to variation among researchers in naming conventions, a global view of Wamide signaling in animals in terms of conservation or diversification of function is currently lacking. Here, I summarize the phylogenetic distribution of Wamide neuropeptides based on current data and describe recent findings in the areas of Wamide receptors and biological functions. Common trends that emerge across Cnidarians and protostomes are the presence of multiple Wamide receptors within a single organism, and the fact that Wamide signaling likely functions across an extensive variety of biological systems, including visual, circadian, and reproductive systems. Important areas of focus for future research are the further identification of Wamide-receptor pairs, confirmation of the phylogenetic distribution of Wamides through largescale sequencing and mass spectrometry, and assignment of different functions to specific subsets of Wamide-expressing neurons. More extensive study of Wamide signaling throughout larval development in a greater number of phyla is also important in order to understand the role of Wamides in hormonal regulation. Defining the evolution and function of neuropeptide signaling in animal nervous systems will benefit from an increased understanding of Wamide function and signaling mechanisms in a wider variety of organisms, beyond the traditional model systems.https://www.frontiersin.org/article/10.3389/fendo.2020.00344/fullneuropeptidewamidemyoinhibitory peptideGLWamideallatostatin B
collection DOAJ
language English
format Article
sources DOAJ
author Elizabeth A. Williams
spellingShingle Elizabeth A. Williams
Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
Frontiers in Endocrinology
neuropeptide
wamide
myoinhibitory peptide
GLWamide
allatostatin B
author_facet Elizabeth A. Williams
author_sort Elizabeth A. Williams
title Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
title_short Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
title_full Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
title_fullStr Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
title_full_unstemmed Function and Distribution of the Wamide Neuropeptide Superfamily in Metazoans
title_sort function and distribution of the wamide neuropeptide superfamily in metazoans
publisher Frontiers Media S.A.
series Frontiers in Endocrinology
issn 1664-2392
publishDate 2020-05-01
description The Wamide neuropeptide superfamily is of interest due to its distinctive functions in regulating life cycle transitions, metamorphic hormone signaling, and several aspects of digestive system function, from gut muscle contraction to satiety and fat storage. Due to variation among researchers in naming conventions, a global view of Wamide signaling in animals in terms of conservation or diversification of function is currently lacking. Here, I summarize the phylogenetic distribution of Wamide neuropeptides based on current data and describe recent findings in the areas of Wamide receptors and biological functions. Common trends that emerge across Cnidarians and protostomes are the presence of multiple Wamide receptors within a single organism, and the fact that Wamide signaling likely functions across an extensive variety of biological systems, including visual, circadian, and reproductive systems. Important areas of focus for future research are the further identification of Wamide-receptor pairs, confirmation of the phylogenetic distribution of Wamides through largescale sequencing and mass spectrometry, and assignment of different functions to specific subsets of Wamide-expressing neurons. More extensive study of Wamide signaling throughout larval development in a greater number of phyla is also important in order to understand the role of Wamides in hormonal regulation. Defining the evolution and function of neuropeptide signaling in animal nervous systems will benefit from an increased understanding of Wamide function and signaling mechanisms in a wider variety of organisms, beyond the traditional model systems.
topic neuropeptide
wamide
myoinhibitory peptide
GLWamide
allatostatin B
url https://www.frontiersin.org/article/10.3389/fendo.2020.00344/full
work_keys_str_mv AT elizabethawilliams functionanddistributionofthewamideneuropeptidesuperfamilyinmetazoans
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