RAD Microbes Host a pilot
Texas, USA

Regenerative Agricultural Development

Biology, not chemistry. Eighty years of synthetic inputs stripped the living systems out of the soil. We culture the microbes that put them back, and we measure what happens.

Established in one. Building the other. Through our laboratory relationships we bring 35 years of bioremediation experience to contaminated land and water. Our agricultural microbes are in research and development, which is exactly why we are putting them on people's ground for free.

Established

Bioremediation

35 years

Petroleum hydrocarbons, creosote, oily sludges and halogenated organics, destroyed in place across refineries, railroads, tank farms, industrial land and contaminated water. Experience held through our laboratory relationships and brought to every project we take on.

93,870 → 1,221 mg/kg in 30 days, storage terminal waste pit

In development

Agricultural microbes

R&D

A five year research and development programme to prove living microbial consortia on working farmland. The current formulation is a five strain liquid consortium drawn from three Bacillus species, each chosen for a documented job in the root zone.

+786% nitrite oxidisers in treated soil, Prosper corn trial 2025

Dark tilled soil in rows

Everything starts in the top six inches. Rebuild the biology there and the rest follows.

The offer

You run the trial. We pay for the science.

RAD Microbes is in active research and development on its agricultural biology, and the fastest way to prove it is on real ground in real conditions. So we are giving it away. We are looking for people with land, turf or growing space who will host a trial through the 2026 and 2027 seasons. There is no cost to host. There is some work, and we would rather be straight with you about it than have you find out later.

What you do

The ground and the hands
  • Set aside the ground. A treated plot and an untreated control side by side, same soil, same conditions
  • Apply the product yourself, following the protocol we send. It goes into the soil or into the irrigation water, never onto the leaves
  • Grow as you normally would. We are testing the biology, not asking you to change how you farm
  • Take samples at the end of the season from both plots and send them to our laboratory
  • Decide whether we may publish your results. You can say no

What we do

The product and the science
  • Supply the product free of charge, in the quantity your plot needs
  • Provide the application protocol for your site, so there is no guesswork
  • Run the sequencing. 16S rRNA analysis of treated against control in our own genomics laboratory, at our cost
  • Share the complete dataset with you in full
Soil sampling

Three jobs, and one of them is at the end.

Apply the product to the treated plot when the protocol says. Grow both plots exactly as you normally would. Then at the end of the season, take samples from each and send them to our laboratory. That is the whole commitment.

There is no baseline test to organise before you plant, nothing to monitor while the crop is growing, and no visits to arrange. The sequencing happens in our laboratory once your samples arrive.

Simple to apply, and written for your site.

The rates opposite are the standard ones, and you will be the one applying it, so they are worth a look before you get in touch. Every trial gets a protocol written around what you grow and how you already work, so nothing here is asking you to change your routine.

If any of this sounds like your ground, get in touch and we will talk it through properly.

Tell us where you are, how much ground you can offer and what you grow.

Application rates

Where it goesRate
Fields, turf and landscapes1 litre / acre
Garden beds and vegetables4 tbsp / 2 gal
Containers and potted plants1 tbsp / 1 gal
Hydroponic and soilless1 tbsp / 1 gal

Apply to the soil or into the water, never onto the leaves. To activate, stir in about a tablespoon of molasses per gallon before applying. Skip the molasses for hydroponic systems and re dose reservoirs at each change.

The problem

Farmers did not choose these constraints. They inherited them.

In 1947 the munitions plant at Muscle Shoals switched from making explosives to making fertiliser, and cheap synthetic nitrogen began to flood American fields. Yields rose. So did dependency. Decades of heavy chemical use stripped the soil of its living biology and left the land needing ever larger inputs simply to hold yields steady, while commodity prices fell. The economist Willard Cochrane named it in 1958 as the technology treadmill, and it still runs today.

2MUS farms remain, down from about 6 million in 1940
70%Real crop price decline, 1948 to 2010, even as output surged
3.7×Corn yield increase, 41 to 152 bushels per acre, on rising inputs
35%Share of the Corn Belt that has lost its carbon rich topsoil
Our mission
To halt the desertification of the American Midwest, and to put the farmer's margin back where it belongs.
Stop the ground dying

Rebuild the biology that eighty years of synthetic inputs stripped out, so that soil becomes an appreciating asset again rather than a depleting one.

Replace the synthetics

Put inexpensive living microbial consortia into staple crops in place of manufactured inputs, and pair them with low till and no till practice so the biology can hold.

Rebuild the bottom line

Lower the cost of production rather than chasing yield alone. A farmer who buys less is a farmer who keeps more, on ground that improves each season instead of degrading.

Contaminated water on industrial land

Contamination metabolised, not moved.

Proven

Contamination destroyed in place, not relocated.

Precision microbial bioremediation for petroleum hydrocarbons and related organics, including diesel, grease, creosote, naphthalene, oily sludges and halogenated hydrocarbons. Six completed field programmes across railroads, refineries, tank farms, industrial land and contaminated water. Nothing is excavated and nothing goes to landfill.

6Completed field programmes with documented results
99%+Total petroleum hydrocarbon reduction on heavily contaminated sites
In situTreated in place. Zero excavation, zero landfill
WeeksTypical time to regulatory safe levels

One result worth reading twice.

A storage terminal waste pit was treated first with a competing product. After sixty days the contamination had not fallen. It had risen, from 93,870 to 96,900 mg/kg. Switched to our microbial solution, the same pit reached regulatory safe levels in thirty days.

See all six programmes
Starting level93,870 mg/kg
Competing product, 60 days96,900 mg/kg
Contamination rose. No reduction achieved.
Our microbes, 30 days1,221 mg/kg
Total petroleum hydrocarbons · storage terminal waste pit
In development

The same biology, applied to a working corn field.

Young corn crop in rows

Two acres treated. Adjacent acres left alone.

The comparison is the whole point. Same field, same weather, same management, one variable changed. That is why the numbers are worth reading.

In 2025 we ran a comparative trial on corn in Prosper, Texas. Two acres received our Bacillus consortium with reduced NPK fertiliser, applied as a liquid inoculum at planting. Adjacent control acres received standard NPK alone. Soil analysed by 16S rRNA sequencing showed a distinctly more balanced microbial community in the treated ground, with pronounced gains in the functional groups that drive nitrogen efficiency and soil structure.

What was measured, and what was not. The figures opposite are measured changes in the soil microbial community. Fertiliser reduction of 20 to 30 percent and yield improvement of 5 to 15 percent are inferred from those shifts, not directly measured. Field results vary by soil type, climate, crop and application protocol.

Sequencing by Environmental Genomics. Analysis by Erik Rumbaugh, Microbiologist, RAD Microbes. Treated samples against fertiliser only controls.

+786%Nitrite oxidisers, driving stronger nitrification
+133%Ammonia oxidisers, improving nitrogen transformation
+179%Filamentous bacteria, supporting structure and water retention
~50%Fewer opportunistic pathogens in treated soil
The biology

Five strains, three species, each with a job.

Everything RAD Microbes does rests on organisms you cannot see without a microscope, working in the few inches of ground where roots actually live. The consortium is built on deliberate redundancy, so that more than one organism covers each job.

Microbes under a microscope

The current formulation is a liquid consortium of five strains drawn from three species, all within the genus Bacillus. Each was chosen for a specific documented function, and each was validated on its own before the consortium was finalised. That discipline is deliberate. When a new organism joins a working system its contribution has to be attributable rather than assumed, which is why the expansion beyond Bacillus is staged rather than rushed.

Bacillus megateriumLead strain · phosphorus

The formulation's phosphorus specialist. Produces gluconic and oxalic acids that break the mineral bonds locking phosphorus into forms roots cannot absorb, releasing it continuously without further fertiliser. Confirmed at 2.6 percent relative abundance in the treated Prosper plots by 16S rRNA sequencing, which is evidence of real colonisation.

Bacillus licheniformisTwo strains · residue and fungi

Produces extracellular cellulase enzymes that break down lignin rich crop debris and thatch, and iturin class lipopeptides that inhibit Fusarium and Pythium at the root surface. Works under anoxic and anaerobic conditions where many competitors fail, so it keeps going in compacted or waterlogged ground.

Bacillus subtilisTwo strains · water and stability

Produces biosurfactants including iturin, surfactin and fengycin that change how water moves through soil, improving infiltration and reducing the hydrophobicity of degraded ground. Suppresses opportunistic pathogens and competes for root surface sites, stabilising the community so the others establish.

Next, in researchNot in the current product

White rot fungi such as Trametes, mycorrhizal fungi, Pseudomonas species for pesticide degradation, and Azospirillum for biological nitrogen fixation. Each will be validated independently before it enters the consortium. Read the full biology.

Because the consortia rebuild the underlying biology of the soil rather than target a single crop, the same living foundation supports row crops, forage, vegetables, orchards, turf and pasture.

Programmes

Where the biology is being proved right now.

Rows of crops
Running

Staple row crops

Corn came first, at Prosper in 2025, and is the trial the sequencing data comes from. We are now extending into soy, wheat and sorghum, plus forage and specialty crops, to test how far the biology carries across soils and cropping systems.

Partner farms, Texas
Industrial hemp
Running

Industrial hemp

Nine sections across three varieties, testing fertiliser and microbe rates against three water regimes so that water is the only variable. Planted July 2026.

Krum, Texas
Golf course putting green
Running

Better Greens

Golf and turf. Monthly application targeting the thatch layer and root zone, measured against an untreated control on the same course.

Golf clubs and turf
The team

Small, and every one of them in the field.

RAD Microbes is deliberately compact. The laboratory work, the farms and the trials are run by people who are on them, not by a department that reports on them.

Barry Bonner

Barry Bonner

Founder

Environmental scientist and the founder of RAD Microbes. He built the company around a Houston microbiology laboratory in order to bring proven remediation biology to farmland, and leads the trial programme and every remediation project the company takes on.

Erik Rumbaugh

Erik Rumbaugh

Microbiologist

Runs the molecular work. Erik's Environmental Genomics suite covers qPCR and metagenomic 16S rDNA sequencing, customised for soil and water, and it is his analysis behind the Prosper corn trial results published on this site.

Stephen Thompson

Stephen Thompson

Microbial farm owner

Owns and runs the farm where the microbes are proved. The 2026 industrial hemp trial at Krum sits on his ground, nine sections across three varieties. Alongside RAD Microbes he works in environmental compliance for Lowe's.

Abram Aceves

Abram Aceves

Farm manager

Manages the trials on the ground, from application and irrigation through to sampling. Abram runs the day to day of the Krum programme and is the person a pilot host deals with once a trial is under way.

Jonathan Chowdhury

Jonathan Chowdhury

Digital architect

Builds and maintains the digital side of the business. An experienced strategist working across digital transformation, systems and the way the company's science is presented and published.

Two capabilities. Two different conversations.

Established

You have contaminated land or water

Petroleum hydrocarbons, diesel, grease, creosote, naphthalene, oily sludges and halogenated organics, in soil and in water. Treated in place, with no excavation and nothing hauled to landfill. Molecular diagnostics first, so the consortium is matched to what is actually there.

Tell us the contaminant, the levels and the site conditions, and we will come back with what the biology can do and what it will cost.

See the remediation record
In development

You have ground we could trial on

Fields, gardens, golf courses, turf, orchards, pasture and hydroponic systems. You grow a treated plot beside an untreated control, apply the product to the protocol we write, and send us samples from both at the end of the season. We sequence them and hand you the results.

Free for the 2026 and 2027 seasons. Product and genomics laboratory work at our cost.

Tell us where you are, roughly how much ground you can offer and what you grow. Capacity is limited.