Design and optimization of plasma-activated water as a chemical-free input to promote plant growth and stress resilience — bridging plasma physics, chemistry, and plant physiology.
Biotech Research Scientist. Biotechnology · Chemical Engineering · Multi-omics · Bioactive Product Development · Sustainable Applications

Interdisciplinary biotechnology researcher with a PhD in Biological Sciences and strong expertise in metabolic engineering, molecular biology, antimicrobial bioassays, and multi-omics data integration. Experienced in designing and executing R&D projects that translate scientific innovation into market-relevant applications — from bioactive product development and scale-up, to crop resilience and sustainable product-oriented solutions. Skilled in managing complex experimental workflows, analyzing high-dimensional datasets with R, and delivering evidence-based insights that support strategic decisions and cross-functional scientific development.
Three research chapters, each summarized as a didactic infographic. Read the panel, then explore the diagram — every icon corresponds to a concrete responsibility, method, or outcome.
How I design chemical-free inputs for crops: R&D design, process optimization, plant response analysis, data-driven insights, and sustainable innovation — mapped as a single research loop.

The PhD in one picture: leading R&D on plant stress, integrating metabolomics and transcriptomics, analyzing complex datasets in R, and translating findings into scientific communication.

Where product-oriented R&D began: developing sustainable bioactives, optimizing isolation and production workflows, and validating natural pesticides with >50% antimicrobial efficacy.

Design and optimization of plasma-activated water as a chemical-free input to promote plant growth and stress resilience — bridging plasma physics, chemistry, and plant physiology.
Integrated metabolomics and transcriptomics to map stress-adaptation mechanisms in crops, delivering candidate markers for resilience breeding programs.
Isolation, characterization and process optimization of plant-derived antimicrobials, validated against human and phytopathogens with >50% efficacy.