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Carbamate insecticide bendiocarb induces complex embryotoxic effects, including morphological, behavioral, transcriptional, and immunological alterations in zebrafish

Ivanovics, B., Gazsi, G., Varga, Z. K., Staszny, Á., Váradi, E., Varga, Z., Ács, A., Tóth, M., Domokos, A., Reining, M., Vásárhelyi, E., Póliska, S., Kovács, R., Baska, F., Filep, Z., Bácsi, A., Kobolák, J., Urbányi, B., Szabó, I., Müller, T., Csenki-Bakos, Z., Czimmerer, Z.: Carbamate insecticide bendiocarb induces complex embryotoxic effects, including morphological, behavioral, transcriptional, and immunological alterations in zebrafish.
Comp. Biochem. Physiol. C-Toxicol. Pharmacol. 299, 1-18, (article identifier: 110368), 2026.
Journal metrics:
D1 Animal Science and Zoology (2025)
D1 Aquatic Science (2025)
Q2 Biochemistry (2025)
Q2 Cell Biology (2025)
Q1 Health, Toxicology and Mutagenesis (2025)
Q1 Medicine (miscellaneous) (2025)
Q2 Physiology (2025)
Q1 Toxicology (2025)
title:
Carbamate insecticide bendiocarb induces complex embryotoxic effects, including morphological, behavioral, transcriptional, and immunological alterations in zebrafish
authors:
  • Ivanovics Bence
  • Gazsi Gyöngyi
  • Varga Zoltán K.
  • Staszny Ádám
  • Váradi Eszter
  • Varga Zsófia
  • Ács András
  • Tóth Márta
  • Domokos Apolka
  • Reining Márta
  • Vásárhelyi Erna
  • Póliska Szilárd
  • Kovács Róbert
  • Baska Ferenc
  • Filep Zoltán
  • Bácsi Attila
  • Kobolák Julianna
  • Urbányi Béla
  • Szabó István
  • Müller Tamás
  • Csenki-Bakos Zsolt
  • Czimmerer Zsolt
corresponding author:
Czimmerer Zsolt
published:
2026
type:
article
genre:
research article/review article
journal:
Comparative Biochemistry And Physiology C-Toxicology & Pharmacology (ISSN: 1532-0456)
language:
English
HAC:
Natural Sciences, Biological Sciences
subjects:
Carbamate, Developmental toxicity, Behavioral alterations, Immunotoxicity, Zebrafish embryo
abstract:
The emergence and spread of vector-borne diseases necessitate the increased use of insecticides, such as carbamates, raising concerns about their potential toxicological risks to non-target organisms, including humans. Bendiocarb, frequently applied in indoor spraying operations and detected in maternal and fetal circulation, warrants particular attention for its developmental toxicity. This study aimed to assess transcriptional and phenotypic effects of sublethal bendiocarb exposure at concentrations of 0.035, 0.2, 0.4, 0.75, and 1.5 mg/L, using zebrafish embryos, a vertebrate model for developmental toxicity testing. Our analyses revealed acetylcholinesterase inhibition-associated morphological and behavioral abnormalities, including reduced locomotor activity in response to both visual and tactile stimuli, as well as impaired non-associative learning. Transcriptomic analysis indicated activation of muscle, immune, and metabolic pathways, while neurodevelopmental, phototransduction, and cell proliferation processes were suppressed. Consistent with these molecular findings, structural damage was observed in the retina, skeletal muscle, and notochord. Furthermore, bendiocarb exposure disrupted neutrophil granulocyte distribution and impaired inflammatory responses. Altogether, our results provide new insights into the embryotoxic effects of bendiocarb, highlighting its potential to disrupt early vertebrate development. These findings provide mechanistic insight that may support more informed evaluations of potential public health risks associated with developmental exposure to carbamates.
DEENK University of Debrecen
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