معرفی
Professor Eilon Shani is a leading researcher at Tel Aviv University's George S. Wise Faculty of Life Sciences, where he serves in the School of Plant Sciences and Food Security. He leads the Shani Lab, which focuses on overcoming functional redundancy to uncover transport mechanisms in plants. His research spans multiple institutions through significant international collaborations, particularly through a $10M ERC Synergy Grant with Nottingham University, University of Regensburg, and NTNU.
Prof. Shani's research interests center on three major areas: developing genome-scale CRISPR tools to overcome functional redundancy in plants; understanding molecular factors regulating plant hormone transport mechanisms (auxin, ABA, gibberellin, cytokinin) and nutrient uptake; and revealing how plants sense and respond to water stress. His innovative approaches address the challenge that 80% of Arabidopsis genes belong to families with at least two members, making traditional single-gene knockout approaches insufficient for understanding many plant functions.
His publication record shows a clear trend toward increasingly sophisticated genome editing techniques applied to both model organisms and crops. Recent work focuses on multi-targeted CRISPR approaches, hormone transporter identification, and the cellular mechanisms of hormone distribution. Keywords across his publications consistently include plant hormone transport, functional redundancy, genome editing, and stress responses, with subfields spanning CRISPR technology, membrane transporters, hormone homeostasis, and plant adaptation mechanisms.
Prof. Shani has received significant recognition through multiple prestigious grants including ERC Starting Grant (2018), ERC Proof of Concept Grant (2023), and the major ERC Synergy Grant (2024), along with HFSP, ZIMIN Foundation, and ISF grants. These awards highlight the importance and innovation of his work in plant science.
His lab actively advises graduate students who contribute significantly to publications, and maintains strong international collaborations. The research has important implications for understanding fundamental plant biology and potentially improving crop resilience through manipulation of hormone transport and stress response mechanisms.
