Industrial processes leave damaged ground behind and pour value out as waste. Deep Root designs living microbial systems for both ends, bringing the harshest ground back to life, and capturing industrial discharge at the source to convert it into valuable compounds.
The species that already belong to a landscape are the ones that can heal it. We design the microbes that live within them, so native plants can reclaim the ground they came from.
Every native landscape sets its own hard problem
Deep-rooted shrubs, bunchgrasses, and succulents endure here on a fraction of the water other plants need. Thin, unstable soils and relentless heat give young roots almost nothing to hold onto.
Sedges, rushes, and reeds root in saturated ground along the water's edge. They have to survive flooding, shifting water levels, and soils starved of oxygen.
Deep-rooted perennial grasses and wildflowers build some of the richest soils on the planet. Drought, fire, and heavy grazing constantly test what can hold its ground.
Salt-tolerant grasses and halophytes anchor shifting dunes and salt-laden soils. Constant salt, wind, and erosion make them vital for protecting coastlines and reclaiming saline farmland.
Abandoned mines, tailings, and industrial sites leave behind ground that defeats conventional revegetation. Seed it and it fails, the soil is too toxic, too acidic, too dead to hold a root. And the processes that left it this way are still running upstream, discharging streams we could be capturing instead of cleaning up later.
Lead, arsenic, and other metals that poison germinating seedlings before they establish.
Low-pH runoff from mine waste that strips nutrients and burns young roots.
Bare mineral spoil with none of the microbial life healthy soil depends on.
Compacted, exposed surfaces that shed water and wash away before cover takes hold.
Our microbial solutions live within plant tissue. We design them to give a plant what it needs to survive ground that would otherwise kill it, working from inside the plant, where it counts.
Our microbes drive vigorous root growth, so seedlings anchor and reach moisture in loose, hostile spoil.
They buffer the plant against metal load, drought, and acidity, the stresses that normally stop revegetation cold.
Living inside the plant, the microbe travels and persists with it, protection that stays put instead of washing away.
Why inside the plant? Surface treatments and soil amendments wash out, break down, and have to be re-applied. Our microbes establish with the plant and work from within its tissue, a durable, self-renewing partnership rather than a one-time input.
We partner on sites where standard revegetation stalls, stabilizing ground, rebuilding soil, and putting durable living cover back on degraded land.
Revegetation meets industry's damage after the fact. The other end of our platform works upstream, capturing an industrial process at the point of discharge and putting engineered biology to work turning that stream into valuable compounds. The output that was a liability becomes a feedstock.
Engineered microbes break down the cellulose and lignin in crop residue and other agricultural waste into the fermentable sugars and aromatic building blocks that biomanufacturing runs on, turning a disposal problem into feedstock.
Engineered soil bacteria upgrade waste-derived carbon into pigments, flavonoids, and resveratrol, high-value compounds built from streams a process would otherwise burn or dump.
Biological capture pulls rare earth elements and copper straight out of process water at the outfall, recovering the metal before it leaves the site as contamination downstream.
Point us at a discharge and we design the organism around it, pairing chassis and pathway to what the process actually emits, and to the compound worth making from it.
Two ends of the same problem. On one end, we make revegetation possible on the ground industry has already damaged. On the other, we intercept the discharge before it becomes damage, capturing the stream at its source and converting it into something worth selling. The same engineered biology, aimed at either end of the process.
Deep Root Biolabs is a spinout of the Johns Hopkins University Applied Physics Laboratory, based in Baltimore, Maryland. We pair a validated microbial platform with real-world environmental deployment credentials, across revegetation and the valorization of industrial waste streams.
Tell us about your site or your discharge stream. We'll tell you straight whether our platform is a fit, and what a demonstration would look like.
Prefer email? info@deeprootbio.com