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Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus.

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Published

Standard

Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus. / Langdon, Caroline J.; Piearce, Trevor G.; Meharg, Andrew A. et al.
In: Environmental Toxicology and Chemistry, Vol. 22, No. 10, 10.2003, p. 2344-2348.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

Langdon, CJ, Piearce, TG, Meharg, AA & Semple, KT 2003, 'Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus.', Environmental Toxicology and Chemistry, vol. 22, no. 10, pp. 2344-2348. https://doi.org/10.1897/02-554

APA

Langdon, C. J., Piearce, T. G., Meharg, A. A., & Semple, K. T. (2003). Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus. Environmental Toxicology and Chemistry, 22(10), 2344-2348. https://doi.org/10.1897/02-554

Vancouver

Langdon CJ, Piearce TG, Meharg AA, Semple KT. Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus. Environmental Toxicology and Chemistry. 2003 Oct;22(10):2344-2348. doi: 10.1897/02-554

Author

Langdon, Caroline J. ; Piearce, Trevor G. ; Meharg, Andrew A. et al. / Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus. In: Environmental Toxicology and Chemistry. 2003 ; Vol. 22, No. 10. pp. 2344-2348.

Bibtex

@article{1c9492792c6f4bd88cc4f06cf14d12ef,
title = "Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus.",
abstract = "No unequivocal evidence exists of genetically inherited resistance to metals/metalloids in field populations of earthworms. We studied cocoon production in adult Lumbricus rubellus Hoffmeister collected from an abandoned arsenic and copper mine (Devon Great Consols, Devon, UK), and abandoned tungsten mine (Carrock Fell, Cumbria, UK) and an uncontaminated cultured population. The earthworms were kept in uncontaminated soil for nine weeks. From a total of 42 L. rubellus from each site, Devon Great Consols adults produced 301 cocoons, of which 42 were viable; Carrock Fell 60 cocoons, of which 11 were viable; and the reference population 101 cocoons, of which 62 were viable. The hatchlings were collected and stored at 4degreesC at weekly intervals. After 12 weeks, all hatchlings were transferred to clean soil and maintained at 15degreesC for 20 weeks until they showed evidence of a clitellum. In toxicity trials, F1 generation L. rubellus were exposed to 2,000 mg As/kg as sodium arsenate or 300 mg Cu/kg as copper chloride for 28 d. The F1 generation L. rubellus from Devon Great Consols mine demonstrated resistance to arsenate but not copper. All L. rubellus from Devon Great Consols kept in soil treated with sodium arsenate remained in good condition over the 28-d period but lost condition rapidly and suffered high mortality in soil treated with copper chloride. The control population suffered high mortality in soil treated with sodium arsenate and copper chloride. Previous work has shown that field-collected adults demonstrate resistance to both arsenate and Cu toxicity under these conditions. Thus, while arsenate resistance may be demonstrated in F1 generation L. rubellus from one of the contaminated sites, Cu resistance is not. The F1 adults and F2 cocoons did not have significantly higher levels of As than the control population, with no residual As tissue burden, suggesting that resistance to As in these populations may be inherited.",
keywords = "earthworms, arsenic, copper, inherited resistance, genetic adaptation",
author = "Langdon, {Caroline J.} and Piearce, {Trevor G.} and Meharg, {Andrew A.} and Semple, {Kirk T.}",
year = "2003",
month = oct,
doi = "10.1897/02-554",
language = "English",
volume = "22",
pages = "2344--2348",
journal = "Environmental Toxicology and Chemistry",
issn = "0730-7268",
publisher = "John Wiley and Sons Ltd",
number = "10",

}

RIS

TY - JOUR

T1 - Inherited resistance to arsenate toxicity in two populations of Lumbricus rubellus.

AU - Langdon, Caroline J.

AU - Piearce, Trevor G.

AU - Meharg, Andrew A.

AU - Semple, Kirk T.

PY - 2003/10

Y1 - 2003/10

N2 - No unequivocal evidence exists of genetically inherited resistance to metals/metalloids in field populations of earthworms. We studied cocoon production in adult Lumbricus rubellus Hoffmeister collected from an abandoned arsenic and copper mine (Devon Great Consols, Devon, UK), and abandoned tungsten mine (Carrock Fell, Cumbria, UK) and an uncontaminated cultured population. The earthworms were kept in uncontaminated soil for nine weeks. From a total of 42 L. rubellus from each site, Devon Great Consols adults produced 301 cocoons, of which 42 were viable; Carrock Fell 60 cocoons, of which 11 were viable; and the reference population 101 cocoons, of which 62 were viable. The hatchlings were collected and stored at 4degreesC at weekly intervals. After 12 weeks, all hatchlings were transferred to clean soil and maintained at 15degreesC for 20 weeks until they showed evidence of a clitellum. In toxicity trials, F1 generation L. rubellus were exposed to 2,000 mg As/kg as sodium arsenate or 300 mg Cu/kg as copper chloride for 28 d. The F1 generation L. rubellus from Devon Great Consols mine demonstrated resistance to arsenate but not copper. All L. rubellus from Devon Great Consols kept in soil treated with sodium arsenate remained in good condition over the 28-d period but lost condition rapidly and suffered high mortality in soil treated with copper chloride. The control population suffered high mortality in soil treated with sodium arsenate and copper chloride. Previous work has shown that field-collected adults demonstrate resistance to both arsenate and Cu toxicity under these conditions. Thus, while arsenate resistance may be demonstrated in F1 generation L. rubellus from one of the contaminated sites, Cu resistance is not. The F1 adults and F2 cocoons did not have significantly higher levels of As than the control population, with no residual As tissue burden, suggesting that resistance to As in these populations may be inherited.

AB - No unequivocal evidence exists of genetically inherited resistance to metals/metalloids in field populations of earthworms. We studied cocoon production in adult Lumbricus rubellus Hoffmeister collected from an abandoned arsenic and copper mine (Devon Great Consols, Devon, UK), and abandoned tungsten mine (Carrock Fell, Cumbria, UK) and an uncontaminated cultured population. The earthworms were kept in uncontaminated soil for nine weeks. From a total of 42 L. rubellus from each site, Devon Great Consols adults produced 301 cocoons, of which 42 were viable; Carrock Fell 60 cocoons, of which 11 were viable; and the reference population 101 cocoons, of which 62 were viable. The hatchlings were collected and stored at 4degreesC at weekly intervals. After 12 weeks, all hatchlings were transferred to clean soil and maintained at 15degreesC for 20 weeks until they showed evidence of a clitellum. In toxicity trials, F1 generation L. rubellus were exposed to 2,000 mg As/kg as sodium arsenate or 300 mg Cu/kg as copper chloride for 28 d. The F1 generation L. rubellus from Devon Great Consols mine demonstrated resistance to arsenate but not copper. All L. rubellus from Devon Great Consols kept in soil treated with sodium arsenate remained in good condition over the 28-d period but lost condition rapidly and suffered high mortality in soil treated with copper chloride. The control population suffered high mortality in soil treated with sodium arsenate and copper chloride. Previous work has shown that field-collected adults demonstrate resistance to both arsenate and Cu toxicity under these conditions. Thus, while arsenate resistance may be demonstrated in F1 generation L. rubellus from one of the contaminated sites, Cu resistance is not. The F1 adults and F2 cocoons did not have significantly higher levels of As than the control population, with no residual As tissue burden, suggesting that resistance to As in these populations may be inherited.

KW - earthworms

KW - arsenic

KW - copper

KW - inherited resistance

KW - genetic adaptation

U2 - 10.1897/02-554

DO - 10.1897/02-554

M3 - Journal article

VL - 22

SP - 2344

EP - 2348

JO - Environmental Toxicology and Chemistry

JF - Environmental Toxicology and Chemistry

SN - 0730-7268

IS - 10

ER -