Effects of triazine herbicide terbutryn on physiological responses and gene expression in Alexandrium catenella

Herbicides enter the ocean through surface runoff and have become a serious pollution threat in the coastal areas. As photosynthetic inhibitors, triazine herbicides are more harmful to marine photosynthetic organisms, especially phytoplankton, than to marine animals. Herbicide pollution may also cau...

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Veröffentlicht in:Journal of applied phycology 2023-08, Vol.35 (4), p.1663-1671
Hauptverfasser: Xing, Qikun, Kim, Young Woo, Park, Ji-Sook, Han, Young-Seok, Yarish, Charles, Yoo, Hyun Il, Kim, Jang K.
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container_issue 4
container_start_page 1663
container_title Journal of applied phycology
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Kim, Young Woo
Park, Ji-Sook
Han, Young-Seok
Yarish, Charles
Yoo, Hyun Il
Kim, Jang K.
description Herbicides enter the ocean through surface runoff and have become a serious pollution threat in the coastal areas. As photosynthetic inhibitors, triazine herbicides are more harmful to marine photosynthetic organisms, especially phytoplankton, than to marine animals. Herbicide pollution may also cause other environmental issues such as algal blooms by altering the structure of phytoplankton community and toxin production in bloom-forming species. To explore whether triazine herbicides will cause similar effects, we analyzed the effects of a common triazine herbicide pollutant, terbutryn, on the physiological responses and gene expression of Alexandrium catenella , a harmful algal bloom forming dinoflagellate. Our results show that A. catenella maintained a normal growth rate when exposed to terbutryn at the concentrations of 0.1 and 1 μg L −1 . Treatment with terbutryn at 10 μg L −1 significantly reduced the growth rate by inhibiting photosynthesis in A. catenella , which may also affect the repair of photosystem II by repressing the expression of the D1 protein gene. Exposure to terbutryn at 1 μg L −1 also impacted the photosystem II, but no changes were observed on the maximum relative electron transport rate of photosynthesis. Additionally, expression of genes involved in saxitoxin was also analyzed in this study, which were not affected by the terbutryn treatment. Our study provides critical information about the potential threat of a herbicide in affecting a harmful algal bloom species.
doi_str_mv 10.1007/s10811-023-02991-4
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As photosynthetic inhibitors, triazine herbicides are more harmful to marine photosynthetic organisms, especially phytoplankton, than to marine animals. Herbicide pollution may also cause other environmental issues such as algal blooms by altering the structure of phytoplankton community and toxin production in bloom-forming species. To explore whether triazine herbicides will cause similar effects, we analyzed the effects of a common triazine herbicide pollutant, terbutryn, on the physiological responses and gene expression of Alexandrium catenella , a harmful algal bloom forming dinoflagellate. Our results show that A. catenella maintained a normal growth rate when exposed to terbutryn at the concentrations of 0.1 and 1 μg L −1 . Treatment with terbutryn at 10 μg L −1 significantly reduced the growth rate by inhibiting photosynthesis in A. catenella , which may also affect the repair of photosystem II by repressing the expression of the D1 protein gene. Exposure to terbutryn at 1 μg L −1 also impacted the photosystem II, but no changes were observed on the maximum relative electron transport rate of photosynthesis. Additionally, expression of genes involved in saxitoxin was also analyzed in this study, which were not affected by the terbutryn treatment. 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Exposure to terbutryn at 1 μg L −1 also impacted the photosystem II, but no changes were observed on the maximum relative electron transport rate of photosynthesis. Additionally, expression of genes involved in saxitoxin was also analyzed in this study, which were not affected by the terbutryn treatment. 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subjects Alexandrium catenella
Algae
Algal blooms
Biomedical and Life Sciences
Blooms (microorganisms)
Coastal zone
D1 protein
Dinoflagellates
Ecology
Electron transport
Eutrophication
Freshwater & Marine Ecology
Gene expression
Growth rate
Herbicides
Life Sciences
Marine animals
Marine organisms
Marine pollution
Photosynthesis
Photosystem II
Physiological effects
Physiological responses
Physiology
Phytoplankton
Plant Physiology
Plant Sciences
Pollution
Runoff
Saxitoxin
Surface runoff
Terbutryn
Toxins
Transport rate
Triazine
title Effects of triazine herbicide terbutryn on physiological responses and gene expression in Alexandrium catenella
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