Evolution is a dynamic, multi-dimensional process, and plant viruses serve as ideal models for studying adaptive mechanisms. These viruses optimize their virulence in plants and vectors while adapting to survive in field conditions. By hijacking plant stress signaling pathways, viruses influence growth, development, and defense responses. My research integrates chemical biology, synthetic biology, molecular evolution, and molecular biology to engineer stress signaling pathways for improved plant resilience and pathogen resistance.

I have successfully employed transcriptomics, LC-MS, confocal microscopy, pharmacological assays, and big data analysis to investigate viral evolution and plant stress responses. The overarching goal of my research is to develop plants capable of thriving in diverse environments while generating translational knowledge and bioproducts that reduce pest and disease pressure.