Ecology and Evolution of Soil Nematode Chemotaxis

Plants influence the behavior of and modify community composition of soil-dwelling organisms through the exudation of organic molecules. Given the chemical complexity of the soil matrix, soil-dwelling organisms have evolved the ability to detect and respond to these cues for successful foraging. A key question is how specific these responses are and how they may evolve. Here, we review and discuss the ecology and evolution of chemotaxis of soil nematodes. Soil nematodes are a group of diverse functional and taxonomic types, which may reveal a variety of responses. We predicted that nematodes of different feeding guilds use host-specific cues for chemotaxis. However, the examination of a comprehensive nematode phylogeny revealed that distantly related nematodes, and nematodes from different feeding guilds, can exploit the same signals for positive orientation. Carbon dioxide (CO2), which is ubiquitous in soil and indicates biological activity, is widely used as such a cue. The use of the same signals by a variety of species and species groups suggests that parts of the chemo-sensory machinery have remained highly conserved during the radiation of nematodes. However, besides CO2, many other chemical compounds, belonging to different chemical classes, have been shown to induce chemotaxis in nematodes. Plants surrounded by a complex nematode community, including beneficial entomopathogenic nematodes, plant-parasitic nematodes, as well as microbial feeders, are thus under diffuse selection for producing specific molecules in the rhizosphere that maximize their fitness. However, it is largely unknown how selection may operate and how belowground signaling may evolve. Given the paucity of data for certain groups of nematodes, future work is needed to better understand the evolutionary mechanisms of communication between plant roots and soil biota

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Bibliographic Details
Main Authors: Rasmann, S., Ali, J.G., Helder, J., van der Putten, W.H.
Format: Article/Letter to editor biblioteca
Language:English
Subjects:c-elegans, entomopathogenic nematodes, globodera-rostochiensis, host search strategies, meloidogyne-incognita, natural enemies, phylogenetic-relationships, plant-parasitic nematodes, potato cyst nematodes, root-feeding caterpillars,
Online Access:https://research.wur.nl/en/publications/ecology-and-evolution-of-soil-nematode-chemotaxis
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spelling dig-wur-nl-wurpubs-4238532024-09-23 Rasmann, S. Ali, J.G. Helder, J. van der Putten, W.H. Article/Letter to editor Journal of Chemical Ecology 38 (2012) 6 ISSN: 0098-0331 Ecology and Evolution of Soil Nematode Chemotaxis 2012 Plants influence the behavior of and modify community composition of soil-dwelling organisms through the exudation of organic molecules. Given the chemical complexity of the soil matrix, soil-dwelling organisms have evolved the ability to detect and respond to these cues for successful foraging. A key question is how specific these responses are and how they may evolve. Here, we review and discuss the ecology and evolution of chemotaxis of soil nematodes. Soil nematodes are a group of diverse functional and taxonomic types, which may reveal a variety of responses. We predicted that nematodes of different feeding guilds use host-specific cues for chemotaxis. However, the examination of a comprehensive nematode phylogeny revealed that distantly related nematodes, and nematodes from different feeding guilds, can exploit the same signals for positive orientation. Carbon dioxide (CO2), which is ubiquitous in soil and indicates biological activity, is widely used as such a cue. The use of the same signals by a variety of species and species groups suggests that parts of the chemo-sensory machinery have remained highly conserved during the radiation of nematodes. However, besides CO2, many other chemical compounds, belonging to different chemical classes, have been shown to induce chemotaxis in nematodes. Plants surrounded by a complex nematode community, including beneficial entomopathogenic nematodes, plant-parasitic nematodes, as well as microbial feeders, are thus under diffuse selection for producing specific molecules in the rhizosphere that maximize their fitness. However, it is largely unknown how selection may operate and how belowground signaling may evolve. Given the paucity of data for certain groups of nematodes, future work is needed to better understand the evolutionary mechanisms of communication between plant roots and soil biota en application/pdf https://research.wur.nl/en/publications/ecology-and-evolution-of-soil-nematode-chemotaxis 10.1007/s10886-012-0118-6 https://edepot.wur.nl/209845 c-elegans entomopathogenic nematodes globodera-rostochiensis host search strategies meloidogyne-incognita natural enemies phylogenetic-relationships plant-parasitic nematodes potato cyst nematodes root-feeding caterpillars Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
component Bibliográfico
access En linea
databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic c-elegans
entomopathogenic nematodes
globodera-rostochiensis
host search strategies
meloidogyne-incognita
natural enemies
phylogenetic-relationships
plant-parasitic nematodes
potato cyst nematodes
root-feeding caterpillars
c-elegans
entomopathogenic nematodes
globodera-rostochiensis
host search strategies
meloidogyne-incognita
natural enemies
phylogenetic-relationships
plant-parasitic nematodes
potato cyst nematodes
root-feeding caterpillars
spellingShingle c-elegans
entomopathogenic nematodes
globodera-rostochiensis
host search strategies
meloidogyne-incognita
natural enemies
phylogenetic-relationships
plant-parasitic nematodes
potato cyst nematodes
root-feeding caterpillars
c-elegans
entomopathogenic nematodes
globodera-rostochiensis
host search strategies
meloidogyne-incognita
natural enemies
phylogenetic-relationships
plant-parasitic nematodes
potato cyst nematodes
root-feeding caterpillars
Rasmann, S.
Ali, J.G.
Helder, J.
van der Putten, W.H.
Ecology and Evolution of Soil Nematode Chemotaxis
description Plants influence the behavior of and modify community composition of soil-dwelling organisms through the exudation of organic molecules. Given the chemical complexity of the soil matrix, soil-dwelling organisms have evolved the ability to detect and respond to these cues for successful foraging. A key question is how specific these responses are and how they may evolve. Here, we review and discuss the ecology and evolution of chemotaxis of soil nematodes. Soil nematodes are a group of diverse functional and taxonomic types, which may reveal a variety of responses. We predicted that nematodes of different feeding guilds use host-specific cues for chemotaxis. However, the examination of a comprehensive nematode phylogeny revealed that distantly related nematodes, and nematodes from different feeding guilds, can exploit the same signals for positive orientation. Carbon dioxide (CO2), which is ubiquitous in soil and indicates biological activity, is widely used as such a cue. The use of the same signals by a variety of species and species groups suggests that parts of the chemo-sensory machinery have remained highly conserved during the radiation of nematodes. However, besides CO2, many other chemical compounds, belonging to different chemical classes, have been shown to induce chemotaxis in nematodes. Plants surrounded by a complex nematode community, including beneficial entomopathogenic nematodes, plant-parasitic nematodes, as well as microbial feeders, are thus under diffuse selection for producing specific molecules in the rhizosphere that maximize their fitness. However, it is largely unknown how selection may operate and how belowground signaling may evolve. Given the paucity of data for certain groups of nematodes, future work is needed to better understand the evolutionary mechanisms of communication between plant roots and soil biota
format Article/Letter to editor
topic_facet c-elegans
entomopathogenic nematodes
globodera-rostochiensis
host search strategies
meloidogyne-incognita
natural enemies
phylogenetic-relationships
plant-parasitic nematodes
potato cyst nematodes
root-feeding caterpillars
author Rasmann, S.
Ali, J.G.
Helder, J.
van der Putten, W.H.
author_facet Rasmann, S.
Ali, J.G.
Helder, J.
van der Putten, W.H.
author_sort Rasmann, S.
title Ecology and Evolution of Soil Nematode Chemotaxis
title_short Ecology and Evolution of Soil Nematode Chemotaxis
title_full Ecology and Evolution of Soil Nematode Chemotaxis
title_fullStr Ecology and Evolution of Soil Nematode Chemotaxis
title_full_unstemmed Ecology and Evolution of Soil Nematode Chemotaxis
title_sort ecology and evolution of soil nematode chemotaxis
url https://research.wur.nl/en/publications/ecology-and-evolution-of-soil-nematode-chemotaxis
work_keys_str_mv AT rasmanns ecologyandevolutionofsoilnematodechemotaxis
AT alijg ecologyandevolutionofsoilnematodechemotaxis
AT helderj ecologyandevolutionofsoilnematodechemotaxis
AT vanderputtenwh ecologyandevolutionofsoilnematodechemotaxis
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