Led a research project aimed at improving carbon capture in plants and crops
Conducted a Genome-Wide Association Studies (GWAS) forward genetic approach to identify novel genes involved in suberin carbon sequestration in roots
Employed CRISPR/Cas9 genome editing technique on candidate genes identified from GWAS to increase suberin production in roots
Increased suberin molecules in roots, significantly enhancing carbon sequestration
Conducted quantitative analysis of suberin deposition in Arabidopsis roots
Developed protocols for optimizing confocal microscopy settings for root tissue imaging
Transient expression systems in plants (agroinfiltration)
NGS Techniques and Bioinformatic Skills
Extensive expertise in Next-Generation Sequencing (NGS) library preparation, with Illumina and NEB kit for RNA-seq
Experienced in constructing DNA Affinity Purification Sequencing (DAP-seq) libraries to investigate protein-DNA interactions.
Postdoctoral Researcher
Yale University
01.2016 - 01.2018
NSF Postdoctoral Fellow
North Carolina State University
01.2014 - 01.2016
PhD Research
Cornell University
01.2008 - 01.2014
Extensive expertise in Next-Generation Sequencing (NGS) library preparation, with Illumina and NEB kit for RNA-seq
Experienced in constructing DNA Affinity Purification Sequencing (DAP-seq) libraries to investigate protein-DNA interactions
Plant Biology: DNA Replication and Epigenetics
Uncovered novel mechanisms involved in plant DNA replication processes
Site-directed mutagenesis (Agilent’s QuikChange): Amino acid replacement in H3.1 variant for DNA replication in Arabidopsis
Bi-Seq (Bisulfite sequencing)
Plant Targeted Genome Editing—CRISPR/Cas9 (pCambia1300/pYAO::hSpCas9) and genome editing optimization
Chromatin-immunoprecipitation (ChIP), characterizing protein/DNA association in vivo
Library preparation for ChIP-sequencing and ChIP qPCR
Performed Western blotting to analyze protein expression levels in plant samples
Ovule/Seed Development in Arabidopsis and Mimulus (Monkey Flower)
Investigated developmental stages preceding ovule initiation, crucial for seed formation
Explored genetic and molecular mechanisms underlying ovule development in Arabidopsis and Mimulus, contributing to advances in plant reproductive biology
Developed a novel FACS-based system to analyze transcriptomic signatures of specific cellular populations within the developing gynoecium, particularly cells expressing SHATTERPROOF2 (SHP2)
Implemented strategies to enhance ovule development efficiency, resulting in increased ovules and seeds per seedpod
Applied findings to optimize agricultural practices for higher seed yield in crop plants through improved understanding of gynoecium development
Plant-Breeding and Genetic Engineering for Salt Tolerance in Petunia
Developed plant varieties with improved salt tolerance and desirable floriculture traits through controlled cross-breeding techniques
Successfully crossbred Petunia Hybrida cv Mitchell with sensitive varieties to enhance tolerance to saline conditions
Utilized advanced horticultural practices to ensure the stability and viability of new plant hybrids
Conducted rigorous field trials to test the performance of newly developed varieties in diverse environmental conditions
Analyzed genetic markers and phenotypic traits to select optimal breeding pairs and improve trait inheritance
Overexpressed genes in Petunia and Tomato to enhance salt tolerance (with strong viral promoters, such as the 35S).
Research Scientist at CSIR-Institute of Industrial Research: Engineering, Designing & Prototyping DivisionResearch Scientist at CSIR-Institute of Industrial Research: Engineering, Designing & Prototyping Division