About
I am a plant molecular biologist specializing in genome editing, functional genomics, and chloroplast engineering for crop improvement. My PhD research focused on chloroplast genome transformation in Artemisia annua, where I developed plastid-specific expression systems and optimized biolistic transformation strategies, contributing to metabolic pathway engineering relevant to artemisinin biosynthesis.
I further apply CRISPR/Cas approaches to improve agronomic traits, including nutritional quality, stress tolerance, and metabolic composition in crops, with experience spanning vector construction, gene targeting, and molecular validation in peanut.
My long-term goal is to integrate advanced biotechnological tools to develop sustainable and resilient crop systems.
Employment
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IIT Postdoctoral2023 - 2026
Education
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Jamia Hamdard PhD2014 - 2021
Projects & Funding
Projects & funding information is unavailable.
Publications (12)
- Efficient In Vitro Regeneration from Cotyledon Nodes and In Planta Genetic Transformation in Elite Peanut Cultivars Save
- Nanoscale non-biochar formulations of banana peel layers for comparison of in vitro adsorption and release of ammonium with demonstration of fertilizing action Save
- Transcriptomics in oilseed breeding: A genomic approach to crop enhancement Save
- Evaluation of fuel properties for possible biodiesel output based on the fatty acid composition of oleaginous plants and microalgae Save
- Green synthesis derived carbon nano-particles from Syzygium cumini and Ocimum tenuiflorum Save
- Novel carbon nanoparticles (CNPs) from Catharanthus roseus petals for metal ion sensing and root growth modulation Save
- Novel carbon nanoparticles derived from Bougainvillea modulate vegetative growth via auxin–cytokinin signaling in Arabidopsis Save
- Transcriptional engineering for value enhancement of oilseed crops: a forward perspective Save
- Evaluation of Fuel Properties for Possible Biodiesel Output Based on the Fatty Acid Composition of Oleaginous Plants and Microalgae Save
- Novel carbon nanoparticles derived from Bougainvillea modulate vegetative growth in Arabidopsis Save