Tetraconazole-induced Programmed Cell Death in Schizosaccharomyces pombe
Yıl 2021,
Cilt: 8 Sayı: 2, 833 - 843, 31.12.2021
Hızlan Hıncal Ağuş
,
Ahsen Çetin
İrem Naz Yalçın
Öz
Tetraconazole, a systemic triazole fungicide, shows potential toxic effects in agriculture and human health. Therefore, its cytotoxic effects and accompanying mechanisms should be unraveled. S. pombe (ED666) was used in this study, as a unicellular biology and toxicology model. Cells were grown on standard media and all treatments were done at 30 C and shaking at 180 rpm 1-10 mg/L tetraconazole induced a dose-dependent cell death. Apoptosis was monitored by DAPI ve AO/EB staining. Excessive ROS production and mitochondrial impairment were shown by DCFDA/NBT assays and Rhodamine 123 staining, which were supported by increased expressions of superoxide dismutases and glutathione peroxidase. Involvement of one of the potential apoptotic genes, Cnx1, in apoptosis was shown by increased transcription whereas two other potential genes, Pca1 and Aif1, were not affected by tetraconazole treatment. In conclusion, tetraconazole-induced cytotoxicity and underlying mechanisms which were mediated via ROS damage and mitochondrial dysregulation (Cnx1-driven) were clarified in S. pombe.
Destekleyen Kurum
İstanbul Yeni Yüzyıl Üniversitesi Mütevelli Heyeti
Teşekkür
This work was supported by Istanbul Yeni Yuzyil University. We specially thanks to Aysegul Topal-Sarikaya, Bedia Palabiyik for providing S. pombe cells, Sinem Tunçer Gurbanov and Emre Yoruk for consumables and chemicals.
Kaynakça
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Schizosaccharomycespombe’deTetrakonazol Kaynaklı Programlı Hücre Ölümü
Yıl 2021,
Cilt: 8 Sayı: 2, 833 - 843, 31.12.2021
Hızlan Hıncal Ağuş
,
Ahsen Çetin
İrem Naz Yalçın
Öz
Sistemik triazol bir fungisit olan tetrakonazol tarımda ve insan sağlığında potansiyel toksik etkiler göstermektedir. Bu yüzden, sitotoksik etkileri ve eşlik eden mekanizmaları açığa çıkarılmalıdır. Bu çalışmada, tek hücreli biyoloji ve toksikoloji modeli olarak S. pombe (ED666) kullanılmıştır. Hücreler standart medyumda büyütülmüş, muameleler 30 C’de ve 180 rpm hızda çalkalamalı olarak yapılmıştır. 1-10 mg/L tetrakonazol doz-bağımlı hücre ölümüne sebep olmuştur. Apoptoz DAPI ve AO/EB boyamasıyla görüntülenmiştir. Aşırı ROS üretimi ve mitokondriyel bozulma DCFDA/NBT deneyleri ve Rhodamin 123 boyamasıyla gösterilmiş, bu sonuçlar da süperoksitdismutazlar ve glutatyonperoksidaz ifadelerindeki artışlarla desteklenmiştir. Potansiyel apoptotik genlerden biri olan Cnx1’in apoptozla ilişkisi transkripsiyonundaki artışla gösterilirken, diğer iki potansiyel gen, Pca1 ve Aif1 tetrakonazolden etkilenmemiştir. Sonuç olarak, tetrakonazol kaynaklı apoptoz ile, ROS hasarı ve mitokondriyel düzensizliğin (Cnx1-yoluyla) aracılık etmiş olduğu mekanizmalar S. pombe’de açıklığa kavuşturulmuştur.
Kaynakça
- Gavarkar, P. S., Adnaik, R. S., & Mohite, S. K. (2013). An Overview of Azole Antifungals. International Journal of Pharmaceutical Sciences and Research, 4, 4083–4089.
- Templeton, I. E., Thummel, K. E., Kharasch, E. D., Kunze, K. L., Hoffer, C., Nelson, W. L., & Isoherranen, N. (2008). Contribution of Itraconazole Metabolites to Inhibition of CYP3A4 In Vivo. Clinical Pharmacology & Therapeutics, 83, 77–85.
- Vermeer, L. M. M., Isringhausen, C. D., Ogilvie, B. W., & Buckley, D. B. (2016). Evaluation of Ketoconazole & Its Alternative Clinical CYP3A4/5 Inhibitors as Inhibitors of Drug Transporters: The In Vitro Effects of Ketoconazole, Ritonavir, Clarithromycin, and Itraconazole on 13 Clinically-Relevant Drug Transporters. Drug Metabolism and Disposition, 44, 453–459.
- Shirasaka, Y., Sager, J. E., Lutz, J. D., Davis, C., & Isoherranen, N. (2013). Inhibition of CYP2C19 and CYP3A4 by Omeprazole Metabolites and Their Contribution to Drug-Drug Interactions. Drug Metabolism and Disposition, 41, 1414–1424.
- Mishra, A., Malakar, A., Biswal, H. T., Barman, M. K., & Krishnamoorthy, G. (2015). Interactions of a few azole derivatives with a transport protein: role of heteroatoms. Journal of Molecular Recognition, 28, 299–305.
- Banerjee, K., Oulkar, D. P., Patil, S. H., Dasgupta, S., & Adsule, P. G. (2008). Degradation kinetics and safety evaluation of tetraconazole and difenoconazole residues in grape. Pest Management Science, 64, 283–289.
- Tong, Z., Dong, X., Yang, S., Sun, M., Gao, T., Duan, J., & Cao, H. (2019). Enantioselective effects of the chiral fungicide tetraconazole in wheat: Fungicidal activity and degradation behavior. Environmental Pollution, 247, 1–8.
- Carelli, A., Farina, G., Gozzo, F., Merlini, L., & Kelly, S. L. (1992). Interaction of tetraconazole and its enantiomers with cytochrome P450 from Ustilago maydis. Pesticide Science, 35, 167–170.
- Emami, S., Tavangar, P., & Keighobadi, M. (2017). An overview of azoles targeting sterol 14α-demethylase for antileishmanial therapy. European Journal of Medicinal Chemistry, 135, 241–259.
- Warrilow, A. G. S., Price, C. L., Parker, J. E., Rolley, N. J., Smyrniotis, C. J., Hughes, D. D., Thoss, V., Nes, W. D., Kelly, D. E., Holman, T. R., & Kelly, S. L. (2016). Azole Antifungal Sensitivity of Sterol 14α-Demethylase (CYP51) and CYP5218 from Malassezia globosa. Scientific Reports, 6, 27690.
- Lv, Q., Yan, L., & Jiang, Y. (2016). The synthesis, regulation, and functions of sterols in Candida albicans: Well-known but still lots to learn. Virulence, 7, 649–659.
- Office of Pesticide Programs, U. (2006). Pesticide fact sheet for tetraconazole. U.S. EPA [online], https://www.epa.gov/pesticides (Accessed April 4, 2019).
- Office of Pesticide Programs, U. (2007). Tetraconazole: Human-Health Risk Assessment for Proposed Uses on Soybean, Sugar Beet, Peanut, Pecan, and Turf. U.S. EPA [online], https://www.epa.gov/pesticides (Accessed April 4, 2019).
- Authority, A. P. and V. M. (2005). Evaluation of the new active Tetraconazole in the product Domark 40ME Fungicide, [online] http://fluoridealert.org/wp-content/pesticides/tetraconazole.2005.report.australia.pdf (Accessed April 5, 2019).
- Daniel, S. L., Hartman, G. L., Wagner, E. D., & Plewa, M. J. (2007). Mammalian Cell Cytotoxicity Analysis of Soybean Rust Fungicides. Bulletin of Environmental Contamination and Toxicology, 78, 474–478.
- El-Sherief, H. A. M., Youssif, B. G. M., Bukhari, S. N. A., Abdel-Aziz, M., & Abdel-Rahman, H. M. (2018). Novel 1,2,4-triazole derivatives as potential anticancer agents: Design, synthesis, molecular docking and mechanistic studies. Bioorganic Chemistry, 76, 314–325.
- Ahmad, K., Khan, M. K. A., Baig, M. H., Imran, M., & Gupta, G. K. (2018). Role of Azoles in Cancer Prevention and Treatment: Present and Future Perspectives. Anti-Cancer Agents in Medicinal Chemistry, 18, 46–56.
- Filho, R. I., Gonzaga, D. T. G., Demaria, T. M., Leandro, J. G. B., Costa, D. C. S., Ferreira, V. F., Sola-Penna, M., de C. da Silva, F., & Zancan, P. (2018). A Novel Triazole Derivative Drug Presenting In Vitro and In Vivo Anticancer Properties. Current Topics in Medicinal Chemistry, 18, 1483–1493.
- Sidrim, J. J. C., de Maria, G. L. & Paiva, M. D. et al. (2021). Azole-Resilient Biofilms and Non-wild Type C. Albicans Among Candida Species Isolated from Agricultural Soils Cultivated with Azole Fungicides: an Environmental Issue?. Microbial Ecology. https://doi.org/10.1007/s00248-021-01694-y
- Demuyser L & Van Dijck P. (2019) Can Saccharomyces cerevisiae keep up as a model system in fungal azole susceptibility research? Drug Resistance Updates. 42, 22-34.
- Martins, D., Nguyen, D. & English, A.M. (2019) Ctt1 catalase activity potentiates anti fungalazoles in the emerging opportunistic pathogen Saccharomyces cerevisiae. Scientific Reports, 9, 9185.
- Hagan, I. M., Grallert, A., & Simanis, V. (2016). Analysis of the Schizosaccharomyces pombe Cell Cycle. Cold Spring Harbor Protocols, 2016, pdb.top082800.
- Koyama, M., Nagakura, W., Tanaka, H., Kujirai, T., Chikashige, Y., Haraguchi, T., Hiraoka, Y., & Kurumizaka, H. (2017). In vitro reconstitution and biochemical analyses of the Schizosaccharomyces pombe nucleosome. Biochemical and Biophysical Research Communications, 482, 896–901.
- Lin, S. J., & Austriaco, N. (2014). Aging and cell death in the other yeasts, Schizosaccharomyces pombe and Candida albicans. FEMS Yeast Research, 14, 119–135.
- Agus, H. H., Sengoz, C. O., & Yilmaz, S. (2019). Oxidative stress-mediated apoptotic cell death induced by camphor in sod1-deficient Schizosaccharomyces pombe. Toxicology Research, 8, 216–226.
- Madeo, F., Herker, E., Wissing, S., Jungwirth, H., Eisenberg, T., & Fröhlich, K.-U. (2004). Apoptosis in yeast. Current Opinion in Microbiology, 7, 655–660.
- Sajiki, K., Hatanaka, M., Nakamura, T., Takeda, K., Shimanuki, M., Yoshida, T., Hanyu, Y., Hayashi, T., Nakaseko, Y., & Yanagida, M. (2009). Genetic control of cellular quiescence in S. pombe. Journal of Cell Science, 122, 1418–29.
- Lock, A., Rutherford, K., Harris, M. A., & Wood, V. (2018). PomBase: The Scientific Resource for Fission Yeast. Methods in Molecular Biology, 1757, 49–68.
- Liu, M., Huang, Y., Wen, H., & Qiu, G. (2015). Comparing Cell Toxicity of Schizosaccharomyces pombe Exposure to Airborne PM2.5 from Beijing and Inert Particle SiO2. Huan Jing Ke Xue= Huanjing Kexue, 36, 3943–51.
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