Synergistic impacts of propargite exposure and deformed wing virus infection on the health of western honey bees

This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, the...

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Published in:Ecotoxicology and environmental safety Vol. 289; p. 117430
Main Authors: Lin, Chia-Yang, Lin, Yu-Chun, Lu, Yun-Heng, Chen, Shiang-Jiuun, Lin, Yu-Hsien, Tseng, Yao-Kuang, Lin, Yu-Tzu, Wu, Yueh-Lung, Huang, Rong-Nan
Format: Journal Article
Language:English
Published: Netherlands Elsevier Inc 01.01.2025
Elsevier
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ISSN:0147-6513, 1090-2414, 1090-2414
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Abstract This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, their mortality rate increased. The administration of DWV alone boosted the expression of immune response genes, whereas acaricide alone did not significantly affect the expression of detoxification genes. However, simultaneous treatment of DWV and acaricide increased both the immune response and detoxification gene expression, thereby indicating enhanced bee resistance. These findings indicate a synergistic association between viral infection and bee sensitivity to acaricides, possibly as a result of physiological or immune system impairment. Our results also indicated that adenosine supplementation enhances the resilience of bees to environmental challenges, further supporting the energy requirement hypothesis. [Display omitted] •Combined biological and non-biological stressors increased bee mortality.•Stressors significantly raised carbohydrate levels in bee hemolymph.•Energy supplementation boosted bee resilience to environmental stressors.
AbstractList This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, their mortality rate increased. The administration of DWV alone boosted the expression of immune response genes, whereas acaricide alone did not significantly affect the expression of detoxification genes. However, simultaneous treatment of DWV and acaricide increased both the immune response and detoxification gene expression, thereby indicating enhanced bee resistance. These findings indicate a synergistic association between viral infection and bee sensitivity to acaricides, possibly as a result of physiological or immune system impairment. Our results also indicated that adenosine supplementation enhances the resilience of bees to environmental challenges, further supporting the energy requirement hypothesis. [Display omitted] •Combined biological and non-biological stressors increased bee mortality.•Stressors significantly raised carbohydrate levels in bee hemolymph.•Energy supplementation boosted bee resilience to environmental stressors.
This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, their mortality rate increased. The administration of DWV alone boosted the expression of immune response genes, whereas acaricide alone did not significantly affect the expression of detoxification genes. However, simultaneous treatment of DWV and acaricide increased both the immune response and detoxification gene expression, thereby indicating enhanced bee resistance. These findings indicate a synergistic association between viral infection and bee sensitivity to acaricides, possibly as a result of physiological or immune system impairment. Our results also indicated that adenosine supplementation enhances the resilience of bees to environmental challenges, further supporting the energy requirement hypothesis.This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, their mortality rate increased. The administration of DWV alone boosted the expression of immune response genes, whereas acaricide alone did not significantly affect the expression of detoxification genes. However, simultaneous treatment of DWV and acaricide increased both the immune response and detoxification gene expression, thereby indicating enhanced bee resistance. These findings indicate a synergistic association between viral infection and bee sensitivity to acaricides, possibly as a result of physiological or immune system impairment. Our results also indicated that adenosine supplementation enhances the resilience of bees to environmental challenges, further supporting the energy requirement hypothesis.
This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa mite-borne deformed wing virus (DWV) by itself had a minimal impact on bees. Conversely, when bees were simultaneously treated with acaricides, their mortality rate increased. The administration of DWV alone boosted the expression of immune response genes, whereas acaricide alone did not significantly affect the expression of detoxification genes. However, simultaneous treatment of DWV and acaricide increased both the immune response and detoxification gene expression, thereby indicating enhanced bee resistance. These findings indicate a synergistic association between viral infection and bee sensitivity to acaricides, possibly as a result of physiological or immune system impairment. Our results also indicated that adenosine supplementation enhances the resilience of bees to environmental challenges, further supporting the energy requirement hypothesis.
ArticleNumber 117430
Author Tseng, Yao-Kuang
Lin, Yu-Hsien
Lin, Yu-Chun
Wu, Yueh-Lung
Huang, Rong-Nan
Lu, Yun-Heng
Chen, Shiang-Jiuun
Lin, Yu-Tzu
Lin, Chia-Yang
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  givenname: Rong-Nan
  surname: Huang
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  email: rongent@ntu.edu.tw
  organization: Department of Entomology, National Taiwan University, Taipei 106, Taiwan
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Keywords Honey bees
Energy metabolic
DWV
Adenosine
Varroa mite-borne
Pesticide residue
Language English
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Snippet This study aimed to elucidate the possible synergistic effects of chemical pesticides and viral infections. Our experiments demonstrated that the Varroa...
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SubjectTerms Acaricides - toxicity
Adenosine
Animals
Bees - drug effects
Bees - immunology
Bees - virology
DWV
Energy metabolic
Honey bees
Pesticide residue
RNA Viruses
Varroa mite-borne
Varroidae - virology
Title Synergistic impacts of propargite exposure and deformed wing virus infection on the health of western honey bees
URI https://dx.doi.org/10.1016/j.ecoenv.2024.117430
https://www.ncbi.nlm.nih.gov/pubmed/39644560
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