Environmental Microbiology
Early work focused on microbial communities in arsenic-contaminated groundwater and spring systems, asking how microbes participate in geochemical cycling and how those relationships affect environmental quality.
From microbial ecology in Assam to soil health systems research in Nebraska and Rodale Institute's Farming Systems Trial, this is the scientific path that shaped how I think, ask questions, and build.
My research sits at the intersection of soil microbiology, biogeochemistry, agricultural sustainability, and data-driven decision making. What began as a fascination with invisible microbial systems gradually widened into a larger question: how do we turn complex biological knowledge into tools farmers, researchers, and institutions can actually use?
My early research centered on environmental microbiology and arsenic biogeochemistry in Assam, where groundwater quality, microbial communities, and public health questions intersected in a very direct way. That work trained me to take unseen systems seriously: to look beneath surface symptoms and ask what biological and chemical processes are actually driving change.
Over time, that curiosity moved from contaminated groundwater and microbial ecology toward agricultural soils, where similar questions appeared at larger scales. In Nebraska, my work focused on soil health benchmarking, carbon and nitrogen dynamics, land-use effects, and climate-plant-soil-microbe interactions. The throughline was always the same: making sense of living systems that are dynamic, context-dependent, and often oversimplified by conventional metrics.
Today, at Rodale Institute's Farming Systems Trial, I continue working on soil health and sustainable farming systems while also thinking more intentionally about translation: how research becomes infrastructure, how evidence becomes decisions, and how science can move from publication into practice.
Early work focused on microbial communities in arsenic-contaminated groundwater and spring systems, asking how microbes participate in geochemical cycling and how those relationships affect environmental quality.
Later research moved into the challenge of measuring soil health in ways that respect regional variability, management history, and ecological context instead of treating all soils as comparable by default.
A recurring thread has been understanding how management, compaction, moisture, and ecological transitions affect carbon storage, nitrogen transformations, and the broader functioning of agricultural soils.
More recently, I have become increasingly interested in how data science and product thinking can help bridge the distance between peer-reviewed research, field realities, and practical decision support.
Doctoral research in agricultural biotechnology with work spanning arsenic biogeochemistry, microbial ecology, and groundwater systems in Assam. This period grounded my scientific approach in field-linked environmental questions rather than purely abstract lab work.
Postdoctoral and research faculty work centered on soil health measurement and monitoring, carbon and nitrogen dynamics, plant-microbe interactions, and the effects of land use and management across agricultural systems.
Director of the Farming Systems Trial, continuing work in soil health and sustainable farming systems while expanding the connection between long-term research, agricultural practice, and future-facing product infrastructure.
A systems-oriented look at how soil health moved from niche concept to organizing framework, and what kinds of evidence are still needed to connect management practices to measurable outcomes.
Examines where soil carbon narratives are scientifically strong, where they become overstated, and what mechanistic understanding is required for credible long-term sequestration claims.
A framework for thinking about soil health as an iterative management cycle linking practices, indicators, functions, and human decision-making rather than as a one-time score.
Investigates how compaction and moisture regimes shape nitrogen transformations, leaching, volatilization, and emissions across contrasting soil textures.
A study of arsenic-resistant bacteria from contaminated groundwater in Assam and their possible role in the local arsenic geocycle.
An early metagenomic investigation into the microbial communities inhabiting arsenic-affected groundwater systems, reflecting the foundation of my research journey.
This research journey is not separate from the products I am building now. It is the reason they exist. Working across microbiology, soil health, and agricultural systems made one gap impossible to ignore: too much valuable knowledge remains fragmented across papers, institutions, and disconnected workflows.
That is why my startup work keeps returning to the same mission from a different angle: make research more legible, make soil intelligence more actionable, and create systems that shorten the distance between evidence and practice.
If you are reaching out for a research collaboration, university application, speaking opportunity, or science-to-product conversation, this page is meant to be the academic counterpart to the rest of my site.