The effects of the pharmaceutical carbamazepine on life history characteristics of flat-headed mayflies (Heptageniidae) and aquatic resource interactions
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  • 作者:Amanda L. Jarvis ; Melody J. Bernot ; Randall J. Bernot
  • 关键词:Freshwater ; Trace organic pollutants ; Macroinvertebrate ; Non ; lethal effects
  • 刊名:Ecotoxicology
  • 出版年:2014
  • 出版时间:November 2014
  • 年:2014
  • 卷:23
  • 期:9
  • 页码:1701-1712
  • 全文大小:688 KB
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  • 作者单位:Amanda L. Jarvis (1)
    Melody J. Bernot (1)
    Randall J. Bernot (1)

    1. Department of Biology, Ball State University, Muncie, IN, USA
  • ISSN:1573-3017
文摘
Pharmaceutical pollutants are commonly detected in freshwater ecosystems around the world and have biological effects on aquatic organisms. However, current understanding of the influence this contaminant class has on freshwater communities and ecosystems is lacking. Recently the scientific community has called for research focusing on certain pharmaceuticals due to their ubiquity and potential toxicity. Carbamazepine is one of these pharmaceuticals. To better understand the effect carbamazepine has on life history characteristics of aquatic organisms and consumer-resource interactions, we quantified the influence of carbamazepine on the development, growth and behavior of mayfly nymphs (Stenonema sp.) and the alterations in food consumer-resource interactions between Stenonema and algae (Chaetophora). Microcosms were assembled in a factorial design containing algae and mayfly nymphs native to central Indiana and dosed with environmentally relevant concentrations of carbamazepine. From this ecotoxicological experiment we were able to infer that carbamazepine at 2,000?ng/L influenced the development and behavior of Stenonema nymphs and the body dimensions of adult individuals. However, it appears that carbamazepine does not influence consumer-resource interactions at concentrations found in surface waters. The pharmaceutical carbamazepine may influence the behavior, growth and development of mayflies, which could have significant consequences at the population, community and ecosystem level.

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