Comparative toxicity study of waterborne two booster biocides (CuPT and ZnPT) on embryonic flounder (Paralichthys olivaceus) SCIE SCOPUS

Cited 3 time in WEB OF SCIENCE Cited 5 time in Scopus
Title
Comparative toxicity study of waterborne two booster biocides (CuPT and ZnPT) on embryonic flounder (Paralichthys olivaceus)
Author(s)
Shin, Dong Ju; Choi, Youmi; Soon, Zhi Yang; Kim, Moon Koo; Kim, D.-J.; Jung, Jee Hyun
KIOST Author(s)
Shin, Dong Ju(신동주)Kim, Moon Koo(김문구)Jung, Jee Hyun(정지현)
Alternative Author(s)
신동주; 최유미; Soon Zhi; 김문구; 정지현
Publication Year
2022-03
Abstract
A new generation of booster biocides that include metal pyrithiones (PTs) such as copper pyrithione (CuPT) and zinc pyrithione (ZnPT) are being used as tributyltin alternatives. In the marine environment, ZnPT can easily transchelate Cu to form CuPT, and the environmental fate and persistence of these two metal pyrithiones are closely related. Although some data on the toxicity of biocides on marine fish are available, little is known about their toxicity and toxic pathway. We thus compared the toxic effects of CuPT and ZnPT on embryonic olive flounder (Paralichthys olivaceus) by investigating their adverse effects based on developmental morphogenesis and transcriptional variation. In our study, the toxic potency of CuPT was greater with respect to developmental malformation and mortality than ZnPT. Consistent with the developmental effects, the expression of genes related to tail fin malformation (including plod2, furin, and wnt3a) was higher in embryonic flounder exposed to CuPT than in those exposed to ZnPT. Genes related to muscle and nervous system development exhibited significant changes on differential gene expression profiles using RNA sequencing (cutoff value P < 0.05). Gene ontology analysis of embryos exposed to CuPT revealed affected cellular respiration and kidney development, whereas genes associated with cell development, nervous system development and heart development showed significant variation in embryonic flounder exposed to ZnPT. Overall, our study clarifies the common and unique developmental toxic effects of CuPT and ZnPT through transcriptomic analyses in embryonic flounder. © 2022 The Authors
ISSN
0147-6513
URI
https://sciwatch.kiost.ac.kr/handle/2020.kiost/42379
DOI
10.1016/j.ecoenv.2022.113337
Bibliographic Citation
Ecotoxicology and Environmental Safety, v.233, 2022
Publisher
Academic Press
Keywords
Antifouling; Biocide; Development; Toxicity; Transcriptome
Type
Article
Language
English
Document Type
Article
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