DNA sequence variation and methylation in an arsenic tolerant earthworm population

Evidence is emerging that earthworms can evolve tolerance to trace element enriched soils. However, few studies have sought to establish whether such tolerance is determined through adaptation or plasticity. Here we report results from a combined analysis of mitochondrial (cytochrome oxidase II, COI...

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Veröffentlicht in:Soil biology & biochemistry 2013-02, Vol.57, p.524-532
Hauptverfasser: Kille, Peter, Andre, Jane, Anderson, Craig, Ang, Hui Na, Bruford, Michael W., Bundy, Jacob G., Donnelly, Robert, Hodson, Mark E., Juma, Gabriela, Lahive, Elma, Morgan, A. John, Stürzenbaum, Stephen R., Spurgeon, David J.
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container_issue
container_start_page 524
container_title Soil biology & biochemistry
container_volume 57
creator Kille, Peter
Andre, Jane
Anderson, Craig
Ang, Hui Na
Bruford, Michael W.
Bundy, Jacob G.
Donnelly, Robert
Hodson, Mark E.
Juma, Gabriela
Lahive, Elma
Morgan, A. John
Stürzenbaum, Stephen R.
Spurgeon, David J.
description Evidence is emerging that earthworms can evolve tolerance to trace element enriched soils. However, few studies have sought to establish whether such tolerance is determined through adaptation or plasticity. Here we report results from a combined analysis of mitochondrial (cytochrome oxidase II, COII), nuclear (amplified fragment length polymorphism, AFLP) variation and DNA methylation in populations of the earthworm Lumbricus rubellus from sites across an abandoned arsenic and copper mine. Earthworms from the mine site population demonstrated clear arsenic tolerance in comparison to a naïve strain. COII and AFLP results suggest that L. rubellus from the unexposed and the adapted populations comprises two cryptic lineages (Lineages A and B) each of which was present across all of the sites. AFLP analysis by lineage highlighted variations associated with soil metal/metalloid concentrations (most clearly for Lineage A) suggesting a genetic component to the observed tolerance. The methylation sensitive AFLP (Me-AFLP) identified a high genome methylation content (average 13.5%) in both lineages. For Lineage A, Me-AFLP analysis did not identify a strong association with soil arsenic levels. For Lineage B, however, a clear association of methylation patterns with soil arsenic concentrations was found. This suggests that Lineage B earthworms utilise epigenetic mechanisms to adapt to the presence of contamination. These fundamentally different genetic adjustments in the two clades indicate that the two lineages employ distinct adaptive strategies (genetic or epigenetic) in response to arsenic exposure. Mechanisms driving this variation may be founded within the colonisation histories of the lineages. [Display omitted] ► Lumbricus rubellus from arsenic contaminated sites were tolerant to the metalloid. ► Mitochondrial and nuclear marker identified L. rubellus as two cryptic lineages. ► Soil As influenced genome structure for both clades, strongly so for Lineage A. ► Lineage B earthworms also showed epigenetic variations related to soil As. ► Two cryptic L. rubellus lineages use different mechanisms to adapt to As exposure.
doi_str_mv 10.1016/j.soilbio.2012.10.014
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COII and AFLP results suggest that L. rubellus from the unexposed and the adapted populations comprises two cryptic lineages (Lineages A and B) each of which was present across all of the sites. AFLP analysis by lineage highlighted variations associated with soil metal/metalloid concentrations (most clearly for Lineage A) suggesting a genetic component to the observed tolerance. The methylation sensitive AFLP (Me-AFLP) identified a high genome methylation content (average 13.5%) in both lineages. For Lineage A, Me-AFLP analysis did not identify a strong association with soil arsenic levels. For Lineage B, however, a clear association of methylation patterns with soil arsenic concentrations was found. This suggests that Lineage B earthworms utilise epigenetic mechanisms to adapt to the presence of contamination. 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subjects Adaptive variation
Agronomy. Soil science and plant productions
amplified fragment length polymorphism
arsenic
Arsenic tolerance
Biochemistry and biology
Biological and medical sciences
Chemical, physicochemical, biochemical and biological properties
Cryptic lineages
cytochrome-c oxidase
DNA
DNA methylation
earthworms
Epigenetics
Fundamental and applied biological sciences. Psychology
genome
Lumbricus rubellus
nucleotide sequences
Physics, chemistry, biochemistry and biology of agricultural and forest soils
soil
Soil science
Zoology (interactions between soil fauna and agricultural or forest soils)
title DNA sequence variation and methylation in an arsenic tolerant earthworm population
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