Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior

Early-life experiences have strong and long-lasting consequences for behavior in a surprising diversity of animals. Determining which environmental inputs cause behavioral change, how this information becomes neurobiologically encoded, and the functional consequences of these changes remain fundamen...

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Main Authors: Rebecca R. Westwick, Clare C. Rittschof
Format: Article
Language:English
Published: Frontiers Media S.A. 2021-04-01
Series:Frontiers in Behavioral Neuroscience
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fnbeh.2021.660464/full
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spelling doaj-06183c4b757e481594aba405dc13e26d2021-04-21T05:10:29ZengFrontiers Media S.A.Frontiers in Behavioral Neuroscience1662-51532021-04-011510.3389/fnbeh.2021.660464660464Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and BehaviorRebecca R. WestwickClare C. RittschofEarly-life experiences have strong and long-lasting consequences for behavior in a surprising diversity of animals. Determining which environmental inputs cause behavioral change, how this information becomes neurobiologically encoded, and the functional consequences of these changes remain fundamental puzzles relevant to diverse fields from evolutionary biology to the health sciences. Here we explore how insects provide unique opportunities for comparative study of developmental behavioral plasticity. Insects have sophisticated behavior and cognitive abilities, and they are frequently studied in their natural environments, which provides an ecological and adaptive perspective that is often more limited in lab-based vertebrate models. A range of cues, from relatively simple cues like temperature to complex social information, influence insect behavior. This variety provides experimentally tractable opportunities to study diverse neural plasticity mechanisms. Insects also have a wide range of neurodevelopmental trajectories while sharing many developmental plasticity mechanisms with vertebrates. In addition, some insects retain only subsets of their juvenile neuronal population in adulthood, narrowing the targets for detailed study of cellular plasticity mechanisms. Insects and vertebrates share many of the same knowledge gaps pertaining to developmental behavioral plasticity. Combined with the extensive study of insect behavior under natural conditions and their experimental tractability, insect systems may be uniquely qualified to address some of the biggest unanswered questions in this field.https://www.frontiersin.org/articles/10.3389/fnbeh.2021.660464/fullcritical periodphenotypic plasticitygenetic toolkittraumaDNA methylation
collection DOAJ
language English
format Article
sources DOAJ
author Rebecca R. Westwick
Clare C. Rittschof
spellingShingle Rebecca R. Westwick
Clare C. Rittschof
Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
Frontiers in Behavioral Neuroscience
critical period
phenotypic plasticity
genetic toolkit
trauma
DNA methylation
author_facet Rebecca R. Westwick
Clare C. Rittschof
author_sort Rebecca R. Westwick
title Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
title_short Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
title_full Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
title_fullStr Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
title_full_unstemmed Insects Provide Unique Systems to Investigate How Early-Life Experience Alters the Brain and Behavior
title_sort insects provide unique systems to investigate how early-life experience alters the brain and behavior
publisher Frontiers Media S.A.
series Frontiers in Behavioral Neuroscience
issn 1662-5153
publishDate 2021-04-01
description Early-life experiences have strong and long-lasting consequences for behavior in a surprising diversity of animals. Determining which environmental inputs cause behavioral change, how this information becomes neurobiologically encoded, and the functional consequences of these changes remain fundamental puzzles relevant to diverse fields from evolutionary biology to the health sciences. Here we explore how insects provide unique opportunities for comparative study of developmental behavioral plasticity. Insects have sophisticated behavior and cognitive abilities, and they are frequently studied in their natural environments, which provides an ecological and adaptive perspective that is often more limited in lab-based vertebrate models. A range of cues, from relatively simple cues like temperature to complex social information, influence insect behavior. This variety provides experimentally tractable opportunities to study diverse neural plasticity mechanisms. Insects also have a wide range of neurodevelopmental trajectories while sharing many developmental plasticity mechanisms with vertebrates. In addition, some insects retain only subsets of their juvenile neuronal population in adulthood, narrowing the targets for detailed study of cellular plasticity mechanisms. Insects and vertebrates share many of the same knowledge gaps pertaining to developmental behavioral plasticity. Combined with the extensive study of insect behavior under natural conditions and their experimental tractability, insect systems may be uniquely qualified to address some of the biggest unanswered questions in this field.
topic critical period
phenotypic plasticity
genetic toolkit
trauma
DNA methylation
url https://www.frontiersin.org/articles/10.3389/fnbeh.2021.660464/full
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