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Fenvalerate exposure induces AKT/AMPK-dependent alterations in glucose metabolism in hepatoma cells

Affiliation
Department of Pediatric Cardiology ,Heart Center ,Guangzhou Women and Children’s Medical Center ,Guangzhou Medical University ,Guangzhou ,China
Sun, Lu;
Affiliation
Department of Environmental Health ,University of Fukui School of Medical Sciences ,Fukui ,Japan
Cui, Zheng-Guo;
Affiliation
Biocytogen Phaceuticals ,Daxing Bio-Medicine Industry Park ,Beijing ,China
Feng, Qianwen;
Affiliation
Department of Biomedical Sciences ,College of Medicine and Health ,University of Birmingham ,Birmingham ,United Kingdom
Muhammad, Jibran Sualeh;
Affiliation
Department of General Practice ,The First Hospital of Hebei Medical University ,Shijiazhuang ,Hebei ,China
Jin, Yu-Jie;
Affiliation
Advanced Clinical Research Center ,Fukushima Global Medical Science Center ,Fukushima Medical University ,Fukushima ,Japan
Zhao, Songji;
Affiliation
Department of Pediatric Cardiology ,Heart Center ,Guangzhou Women and Children’s Medical Center ,Guangzhou Medical University ,Guangzhou ,China
Zhou, Lingqi;
Affiliation
Department of Molecular Orthopedics, Beijing Research Institute of Traumatology and Orthopedics ,Beijing Jishuitan Hospital ,Beijing ,China
Wu, Cheng-AI

Background Fenvalerate (Fen) is a synthetic pyrethroid insecticide significantly associated with an increased risk of type 2 diabetes. Tumor cells exhibit a shift in glucose metabolism, known as the Warburg effect. Accordingly, we aimed to elucidate whether Fen interferes with insulin signaling and affects hepatoma cell metabolism. Methods The cells were subjected to Fen to assess glucose uptake, acidification, oxygen consumption, and ATP production. ROS generation, mitochondrial membrane potentials, and protein expression were evaluated by flow cytometry, immunofluorescence microscopy, and western blot analyses. Results Our results demonstrated that Fen promotes glucose uptake, lactate production, and ATP generation in various cancer cells. Moreover, Fen enhanced insulin receptor phosphorylation and upregulated p-AKT/p-AMPK expression. Fen enhanced insulin receptor sensitivity and endocytosis via reactive oxygen species generation rather than the PP2B pathway. Additionally, the antioxidants N-acetyl-L-cysteine and ascorbic acid reversed the Fen-induced increase in glycolysis. Finally, chronic Fen exposure protected hepatoma cells against metformin-induced cell death via the AKT/AMPK pathway. Conclusion These findings raise concerns regarding the safety of Fen and its potential role in altering cancer cell metabolism, affecting insulin signaling and treating drug resistance, thereby necessitating further research.

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License Holder: Copyright © 2025 Sun, Cui, Feng, Muhammad, Jin, Zhao, Zhou and Wu.

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