I hold a BSc in Molecular Biology and Genetics, followed by a year of experience working in a diagnostic laboratory. I then pursued my MSc in the Department of Molecular Biology and Genetics at Bogazici University, where my research centered on molecular toxicology and cancer regulation. During my master's studies, I gained valuable experience as a molecular biologist and a bioinformatician and provided technical support for a bioinformatics start-up, enhancing my expertise in data analysis and computational tools.

Currently, I am pursuing a PhD, where I continue to develop my research skills, with a focus on the molecular mechanisms underlying phenotype plasticity. Alongside my doctoral studies, I hold positions as a Graduate Teaching Assistant (GTA) and a lab demonstrator, where I contribute to teaching the next generation of scientists.

My research interests lie in evolutionary biology, with a particular focus on the mechanisms driving adaptation and speciation. I am especially fascinated by the intersection of seasonal biology and evolutionary processes, investigating how organisms adapt to seasonal changes at molecular, physiological, and ecological levels. Additionally, I have a strong interest in aquatic ecosystems, where I can explore evolutionary dynamics within these environments, including the unique selective pressures and adaptive strategies exhibited by aquatic species.

Research groups

• Physiology, Ageing & Welfare
• Evolution & Diversity
• Molecular Genetics

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My current research aims to unravel the molecular mechanisms underlying seasonal polyphenism in Siberian hamsters. This phenomenon, where organisms exhibit different phenotypes depending on the variations in photoperiod, provides a unique model for studying adaptive physiological and morphological changes. I employ a multi-omics approach that integrates next-generation sequencing technologies, such as RNA-seq, whole-genome sequencing, ChIP-Seq, with advanced bioinformatics analysis to identify key genetic and epigenetic factors driving these seasonal variations.By combining these methodologies, I aim to provide a comprehensive understanding of how environmental cues are translated into molecular signals that regulate phenotypic plasticity.