Regenerative Agricultural Development LLC
Texas
What lives beneath
contributes to
everything above.

— Barry Bonner, Regenerative Agricultural Development

No single practice saves the soil. But living biology, combined with the right approach, might.

Ray, you have been
saying this for years.

You have stood in front of farmers across every state in this country and held up a jar of their own soil falling apart in water. You have shown them, as plainly as it can be shown, that the problem is not the weather, not the equipment, and not the seed. The problem is that we have taken the life out of the ground.

The microbial community that holds soil together, that moves water through it, that cycles nutrients and sequesters carbon, has been depleted across tens of millions of acres of American farmland. The farmer feels it as rising input costs and shrinking margins. The land shows it as compaction, runoff, and an inability to hold rainfall.

RAD Microbes is not here to tell you what you do not already know. We are here because of what you teach, and we are building the biological tools to deliver it. This document is the story of what we are doing, where we are in the process, and why we believe your life's work and ours are pointing at the same thing.

The mission of RAD Microbes is to stop the desertification of the Midwest by returning living microbial consortia to the soil at a scale and price point that makes them accessible to every farmer who needs them, in America and across the world.

Reduced fertilizer. Same corn.

A 2-acre trial in Prosper, Texas compared our Bacillus consortium applied with no additional NPK fertilizer against standard NPK-only control acres. The treated field carried residual fertility from the prior season. No fresh synthetic inputs were added. Soil was analysed via 16S rRNA sequencing by Environmental Genomics. Equivalent plant height and bushel yield. The control plot spent $420 per acre on fresh NPK fertilizer to get there. The microbial plots did not. We are not suggesting on the basis of these results that farmers should stop fertilizing. We are suggesting the biology changes what becomes possible over time.

786%
More nitrite oxidizers
Nitrite oxidizers, the bacteria that complete the nitrification cycle and lock nitrogen into plant-available form, were 786% higher in treated soil. The biology built its own fertility engine.
133%
More ammonia oxidizers
Ammonia oxidizers were 133% higher in microbial plots, driving nitrogen transformation efficiency that synthetic inputs can only substitute for, never replicate.
179%
More filamentous bacteria
Filamentous bacteria, responsible for soil aggregation, pore structure, and water retention, increased 179%. This is the biology that holds rain in the ground instead of letting it run off.
50%
Fewer opportunistic pathogens
Potential opportunistic pathogens were halved in treated soil. The fertilizer-only control showed enrichment of genera like Staphylococcus and Streptococcus, absent from the microbial plots.
5–15%
Yield improvement potential
Enrichment of nitrogen-fixing Microvirga and phosphate-solubilising Bacillus genera indicates 5-15% yield improvements through optimised nutrient management, on top of the input savings.
$420
Per acre: fertilizer cost, control
The conventionally fertilized control spent $420 per acre on synthetic NPK. The microbial plots achieved equivalent plant height and bushel yield on reduced inputs. That margin belongs to the farmer.
100 acres of corn.
The numbers speak.

Important context

This scenario is based on a single field trial conducted in Prosper, Texas in 2025. It is not statistically significant. We do not have enough data yet to make this a proven claim. What follows is a narrow extrapolation from that one trial, expanded to 100 acres to illustrate what the numbers could look like if the results hold at scale. This is a scenario. It is still unproven. We present it honestly and in that spirit.

At $420 per acre in synthetic fertilizer and $28 per acre for our microbial consortium, the cost comparison across a 100-acre corn operation is straightforward. The chart below shows three scenarios: conventional fertilizer only, microbial consortium with a 75% fertilizer reduction, and the potential saving per acre and across the full farm.

We are not suggesting zero fertilizer. We are not making a proven claim. We are showing what one trial suggests could be possible, and we are building the data to find out.

$45,000 $36,000 $27,000 $18,000 $9,000 $0
$42,000
$13,300
Fertilizer $10,500
Microbes $2,800
$28,700
Farmer saving
Conventional
Fertilizer only
100 acres
RAD Microbes
25% fertilizer
+ consortium
Season saving
$287 per acre
68.3% reduction
Conventional fertilizer cost
Reduced fertilizer (25%)
RAD Microbes consortium
Farmer saving

On a 1,000 acre operation the same model produces a saving of $287,000 per season in input costs alone, before any yield improvement is factored in. The biology compounds over time. As the microbial community establishes and the soil system recovers, fertilizer dependency continues to fall. The first season saving is the floor, not the ceiling.

The Midwest is being
lost one harvest at a time.

Desertification is not a word most people associate with Iowa, Illinois, or Texas. It should be. Decades of synthetic fertilizer dependency, monoculture rotation, and tillage have stripped functional microbial life from vast areas of the most productive farmland on earth. What remains is increasingly degraded soil that cannot hold water, cannot cycle nutrients without chemical input, and cannot withstand the pressure that climate variability is placing on it.

Synthetic inputs treat the symptom. They do not restore the system. A field that sheds rainfall rather than drawing it down into the soil profile is a field moving in one direction. RAD Microbes is building the biological response to reverse that movement.

01
Water percolation
Restoring the soil's capacity to absorb and retain rainfall is a primary measurable outcome of our field programme. Runoff reduction is where degraded soil shows its recovery first.
02
Fertilizer independence
Returning functional microbial communities means farmers can begin reducing expensive synthetic inputs while maintaining yield. The biology does the work the chemistry has been substituting for.
03
Generational remediation
Where farmland has been worked hard across multiple generations, our microbial programme provides a structured remediation pathway, targeting measurable recovery within three to five years.
04
Accessible by design
Microbial tools have historically been priced beyond the reach of the farmers who need them most. RAD Microbes is building a model that works at the farm gate, including internationally.
The organisms we
are working with right now.

What follows is shared in confidence. RAD Microbes currently operates with one specific Bacillus megaterium consortium, delivered as a liquid inoculant at planting. This is our R&D formulation, applied consistently across all current trials to build clean, comparable data. Each species was selected for a specific, documented role in the soil system. Together they cover nitrogen cycling, phosphate availability, soil structure, pathogen suppression, and chemical remediation. That is the full stack of what degraded agricultural land is missing. As the science matures, formulations will be developed specifically for individual land types and soil profiles.

This information is proprietary to Regenerative Agricultural Development LLC and is shared solely for the purpose of this conversation.

Active consortium: five organisms
Bacillus licheniformis Soil fertility and organic breakdown Produces exocellular enzymes that degrade complex organic compounds, unlocking nutrients that are present in the soil but unavailable to plants. This is the organism that begins restoring biological fertility in land that has been chemically managed for years. It reduces the need for applied nitrogen and phosphorus by making what is already there accessible.
Bacillus megaterium Phosphate solubilisation and root colonisation Solubilises phosphate and trace minerals locked in the soil matrix and produces extracellular polysaccharides that promote root colonisation and deeper nutrient uptake. Confirmed present and active at 2.6% relative abundance in our Prosper, Texas corn trial. Stronger root systems, better yield resilience, and lower dependency on applied phosphorus are the measurable outcomes.
Bacillus subtilis Pathogen suppression and water infiltration Secretes subtilisin enzymes and biosurfactants that suppress soil-borne pathogenic fungi and bacteria. It also degrades plant waxes and organic matter to improve soil percolation and water infiltration. This is the physical property Ray's jar-of-water test measures directly. This is the biology that determines whether rain soaks in or runs off.
Pseudomonas protegens, P. fluorescens, P. chlororaphis Chemical remediation and pesticide degradation Degrade recalcitrant pesticides and herbicides that persist in the soil from years of conventional management. This is the remediation layer: the organisms that address what decades of chemical application have left behind. In fields where herbicide carryover is suppressing microbial life, these species clear the way for the biological community to re-establish.
Trametes sp. White-rot fungi: persistent pollutant breakdown White-rot fungi with ligninolytic enzymes capable of degrading persistent pesticides and herbicides that bacterial species cannot reach. Where soils carry the most severe chemical burden, legacy herbicide use, industrial residues, heavy compaction history, Trametes provides the degradation capacity that bacteria alone cannot. It is the deep cleaning layer of the consortium.
Delivery, application, and end-of-season analysis

One formulation. One Bacillus megaterium consortium. Applied consistently across all current trials.

At this stage of research and development, we are not customising the formulation per site. We are working with one specific Bacillus megaterium consortium applied consistently across all trial partners. This is deliberate. We need clean, comparable data before we begin tailoring. The future is bespoke, dedicated microbial formulations built for a specific landowner's soil type, and for the variations within that soil profile where required. That is where large-scale adoption lives. Getting there requires the data we are building now.

Application. The liquid inoculant is mixed into a water supply with a small amount of molasses to activate the biology. Within thirty minutes of activation, it is delivered to the soil. Soil contact should occur within twenty-four hours of mixing. There is also an opportunity to coat seed directly with the inoculant prior to planting, though this carries additional process complexity and is not the primary method at this stage.

Trial structure. Farming partners do not need more than one acre under the microbial treatment. The adjacent control continues under their existing programme, whatever that is. No changes to their standard practice on the control side. At end of season, before harvest, we collect two root samples: one from the treated acre, one from the control. Roots are collected dry with a small amount of attached soil, vacuum sealed, and dispatched to our genomics laboratory in Houston for 16S rRNA sequencing analysis. That comparison is the data. Treated versus untreated, same season, same land, same conditions.

The roadmap. Liquid delivery suits our current manufacturing structure. As we move into 2028 and 2029, we are developing a pelletised format to support dryland farming, reduce logistical complexity, and carry a richer microbial load. The biology improves as the delivery evolves.

Why we have an established
relationship with a microbial genomics laboratory.

RAD Microbes does not operate in isolation. The organisation I am partnered with is an established leader in industrial bioremediation, specifically the response to petrochemical damage. When an oil company contaminates water, soil, or a waterway, this is the organisation that gets called in. Their formulations, their laboratory capability, and their field science have been deployed at some of the most demanding remediation environments on record, including events of national scale.

That infrastructure, those laboratories, that decades-deep formulation science, sits within our partnership. What they have not driven toward is agriculture. That is where RAD Microbes comes in. We are our own entity, independently led and operated. The agricultural direction is ours entirely. We are not a division of anyone. We are a partner, and agriculture is our lane.

01
Industrial bioremediation at scale
Our parent organisation specialises in the biological response to petrochemical contamination. When oil and gas operations damage soil or water, they restore it. That is the scale of science and operational experience that sits behind our agricultural formulations.
02
Laboratory and formulation capability
Our established relationship with a specialist microbial genomics laboratory means our consortium development, field validation, and soil analysis is backed by rigorous independent science. The biology is verified at a level most agricultural bioinoculant companies cannot access.
03
RAD Microbes drives agricultural data gathering and experience
Our partners have experience working with agricultural systems but have not pursued that market as a direction. RAD Microbes is an independent entity. We set our own strategy, our own farmer relationships, and our own path to scale. The science is shared through partnership. The mission and the direction are entirely ours. All intellectual property relating to our agricultural microbial formulations is owned exclusively by RAD Microbes. The biology we are developing for the field belongs to us.

Why this matters. Early-stage bioinoculant programmes typically face two constraints: the science is underdeveloped, or the resources to validate it are not there. RAD Microbes does not face either. The formulation science is deep and field-proven across extreme environments. The laboratory infrastructure is already in place. What we are building now is the agricultural application of that capability, and we are building it to last.

Twenty-four documented
capabilities. One formulation.

Each of the following is attributable to one or more organisms within the consortium, supported by peer-reviewed science and our own field data. This is not a list of aspirational claims. It is a list of documented biological functions that occur when a healthy, diverse microbial community is present in the soil.

Atmospheric nitrogen fixation: Microvirga and Azospirillum genera fix atmospheric nitrogen directly, reducing dependency on applied nitrogen fertilizer.
Ammonia oxidation: Confirmed 133% increase in ammonia oxidisers in our Prosper trial. Drives the first stage of the nitrification cycle, converting ammonia into plant-available nitrite.
Nitrite oxidation: Confirmed 786% increase in nitrite oxidisers, including Nitrospira. Completes nitrification, locking nitrogen into the form plants can actually use.
Phosphate solubilisation: Bacillus megaterium unlocks phosphate bound in the soil matrix, making it available for plant uptake without additional applied phosphorus.
Trace mineral availability: Extracellular polysaccharide production by Bacillus megaterium mobilises trace minerals including zinc, iron, and manganese at the root surface.
Biological phosphorus removal: Glycogen accumulators including Defluviicoccus, confirmed present only in treated soil in the Prosper trial, support biological phosphorus cycling.
Soil aggregation: Filamentous bacteria increased 179% in treated soil. These organisms bind soil particles into stable aggregates, restoring the crumb structure that tillage and synthetic chemistry have systematically broken down. Stable aggregates are the architecture everything else depends on.
Pore space creation and maintenance: Healthy aggregation creates and preserves the macro and micro pores within the soil matrix. These spaces are not empty. They are the channels through which water moves, where air exchange occurs, and where roots extend. Compacted soil has lost them. The biology rebuilds them.
Water percolation: Bacillus subtilis biosurfactant activity and organic matter degradation restore the rate at which water moves through the soil profile. In degraded soil, rainfall sits on the surface and runs off. In biologically active soil with intact pore structure, it moves down into the profile where it can be held and used.
Aeration: Pore space is also the route through which oxygen reaches the root zone and CO₂ moves out. Compacted, biologically depleted soil suffocates roots and suppresses the aerobic microbial activity that drives nutrient cycling. Restored pore structure restores gas exchange, and with it the conditions that allow the rest of the biology to function.
Water infiltration: The combination of improved aggregation, restored pore channels, and biosurfactant activity dramatically increases the speed and volume of rainfall that enters the soil rather than leaving it as runoff. This is what Ray's jar test measures. It is the most visible indicator of whether a soil is alive or dead.
Water retention: Once water is in the profile, stable aggregates and increased organic matter hold it in the root zone for longer. The soil becomes a reservoir rather than a surface. Irrigation requirements fall. The crop has access to moisture through dry periods that would otherwise stress or kill it.
Heat tolerance: Bacillus-based formulations improve plant resilience to heat stress through enhanced root development and improved soil moisture availability around the root zone.
Drought tolerance: Deeper, more colonised root systems supported by the consortium access soil moisture further down the profile, giving crops better survival odds through dry spells.
Pathogen suppression: Bacillus subtilis produces subtilisin and biosurfactants that actively suppress soil-borne fungal and bacterial pathogens. Opportunistic pathogen populations were reduced by approximately 50% in treated soil in our Prosper trial.
Root colonisation and biomass: Enhanced root development through EPS production by Bacillus megaterium supports larger, more vigorous root systems and increased above-ground biomass.
Pesticide and herbicide degradation: Pseudomonas protegens, P. fluorescens, and P. chlororaphis degrade recalcitrant organics including legacy herbicide and pesticide residues that persist in conventionally farmed soils.
Persistent pollutant breakdown: Trametes sp. white-rot fungi deploy ligninolytic enzymes to break down persistent chemical compounds that bacterial species cannot reach, including certain industrial residues.
Heavy metal mobilisation: In combination with hemp phytoremediation, microbial activity mobilises heavy metals in the soil matrix, making them available for uptake and removal by the plant root system.
Organic biofertilisation: The consortium functions as a living organic fertilizer, actively synthesising and delivering plant-available nutrients directly at the root zone. This is not simply unlocking what is already there. It is biological production of fertility, the definition of a biofertiliser.
Biosurfactant production: Bacillus subtilis produces biosurfactants that increase the bioavailability of nutrients, improve water movement through the soil, and suppress pathogens. They are a key mechanism behind multiple capabilities across this list and are naturally occurring, leaving no chemical residue.
Plant growth promoting compounds: Bacillus megaterium produces extracellular compounds that directly stimulate root and shoot development, independently of nutrient availability. The plant grows more vigorously because the biology is signalling it to, not only because it is better fed.
Organic matter decomposition: Bacillus licheniformis breaks down crop residues, plant waxes, and complex organic compounds in situ, converting surface biomass into nutrient-rich organic matter that feeds the soil system. This is biological composting at the field scale, continuous and without intervention.
Carbon sequestration: Increased microbial activity and organic matter accumulation drives carbon into the soil profile and holds it there. As the biological community stabilises over successive seasons, the soil becomes a net carbon sink. This is the long-term environmental dividend of a restored microbial community.

These functions do not operate in isolation. The value of a consortium over a single-strain inoculant is that the organisms work together. Nitrogen fixed by Microvirga becomes available through the nitrification pathway supported by Nitrospira, in soil whose structure is maintained by filamentous bacteria, in a root zone cleared of pathogens by Bacillus subtilis. The system restores itself. That is precisely what three decades of conventional management has prevented it from doing.

The root is where the
real data lives.

Conventional soil sampling tells you what is present in the bulk soil matrix. It is a useful baseline. But it is not where the biology that matters most is operating. The microbial community that directly governs plant health, nutrient uptake, and stress resilience lives in the rhizosphere, the narrow zone of soil immediately surrounding and attached to living plant roots. Bulk samples dilute that signal almost to nothing.

Within our field trials, we have the capability to extract root samples directly from the ground and run 16S rRNA sequencing on the rhizosphere community specifically. What comes back is a molecular picture of exactly which organisms are colonising the root system, what they are doing there, and how that community shifts in response to our inoculant. It is a level of diagnostic resolution that conventional agronomic soil testing does not approach.

Bulk soil tells you what is there
Standard soil sampling averages microbial populations across the entire soil volume. The organisms influencing the plant, living on and around the root surface, represent a fraction of that community and are functionally invisible in a bulk sample.
Root sampling tells you what is working
By sequencing the microbial community directly from root tissue and attached rhizosphere soil, we identify which species have successfully colonised the plant, at what abundance, and whether the functional traits we need, nitrogen cycling, phosphate solubilisation and pathogen suppression, are actually active at the root interface.
The difference in resolution
In our Prosper corn trial, 16S rRNA sequencing confirmed Bacillus at 2.6% relative abundance and Nitrospira, a nitrite oxidiser, active in the treated community. End-of-season root sampling from the treated plot versus the untreated control allows us to confirm which organisms are colonising the plant itself, not just present in the surrounding soil, and to compare directly against ground that received no inoculant under the same season conditions.

What this means in practice

When we apply the consortium to a trial site, we are not guessing at whether the organisms established. We can pull roots, sequence them, and show exactly which species are present on the root surface and in what proportion at the end of the season, compared against the untreated control plot. That is the data layer that allows us to refine formulations with precision, publish peer-reviewed outcomes, and build the kind of scientific record that survives long after any single field season ends. It is also the data layer that most commercial inoculant programmes are not collecting.

A word on independence

The last company to develop a genuinely effective commercial microbial consortium was acquired by Bayer for $300M. Their formulations were quietly shelved. The product disappeared. The farmers who needed it never got it.

That is not what RAD Microbes is here to do. We are not building toward an exit. We are building toward the field, toward the farmer, toward the data, toward a published scientific record that cannot be bought and buried. The infrastructure around microbial agriculture is crowded with incumbents who benefit from the status quo. We intend to move through it regardless. The formulations work. The data will prove it. And the data will be public.

Two years in.
The data is building.

RAD Microbes is currently in its second year of active research and development. Our field work is grounded in real farm partnerships, genuine agronomic relationships, and measurable outcomes. This is not a laboratory proposition waiting for the field. We are already in the field.

Active: Year Two

University agronomic partnerships

Working relationships with agronomists from Texas A and M University and Louisiana State University, providing scientific rigour and institutional credibility to our field research programme across both states.

Active: This Season

Louisiana hemp farm trials

Multiple working farms in Louisiana are running our microbial formulations this season alongside university-coordinated test plots. These are live commercial operations on real ground, not controlled greenhouse studies.

Established

Dedicated microbial research farm: Stephen Thompson

Stephen Thompson has committed his farm as a dedicated microbial research site focused on industrial hemp cultivation alongside our formulation work. This gives us a controlled test plot environment that is not possible on commercial operations alone, with full data capture across the growing season.

Active partnership

Panda Biotech: hemp farming network

We are working with Panda Biotech, one of the world's largest industrial hemp extraction facilities, providing access to their farming network and seed supply as we scale our field programme across more operators and growing regions.

In discussion

Australian seed genomics collaboration

A developing relationship with Hemp Farms Australia is exploring hemp variety optimisation for Midwest growing conditions combined with our microbial formulation, identifying the most effective plant-biology pairings for large-scale soil remediation programmes.

Next phase

Pelletised delivery and biochar integration

Moving from liquid inoculant delivery toward a pelletised format incorporating biochar as a carrier medium, making application compatible with standard farm equipment and opening access to a wider range of conventional operators.

A note on the global picture. Soil degradation is not an American problem. The same conditions that are depleting the Midwest are at work across Central America, Sub-Saharan Africa, South Asia, and Australia. RAD Microbes is building a model that can be deployed internationally, making precision microbial tools available to farming economies where the soil health crisis is equally severe and the resources to address it are far fewer.

The biology does not
recognise borders.

Soil degradation is not an American problem. The same forces stripping the biology from farmland in the Midwest are at work across Central America, Sub-Saharan Africa, South Asia, and Australia. The need for what we are building exists wherever the land has been farmed hard and the biology has been displaced. That is most of the world.

RAD Microbes has the expertise to ship living microbial cultures internationally. The regulatory knowledge, the cold chain requirements, the packaging and documentation that keeps a consortium viable across a long freight journey — we understand that process and we can execute it. There is no geographical limitation on where this science can go.

01
We can work anywhere
The formulation travels. We have the experience to ship microbial inoculants internationally while maintaining viability. Where the soil needs help and the farmer is willing to participate in a structured trial, we can reach them. Geography is a logistics problem, not a scientific one.
02
The honest constraint
Within our trial programme, the consortium is supplied to farming partners at no cost. Domestically, this is straightforward. Internationally, the further the shipment, the higher the freight cost, and that cost falls on us. It is a real constraint, but not an insurmountable one. Where the right partner and the right opportunity exist, we will find a way to make it work.
03
The opportunity beyond cost
In farming economies where synthetic fertilizer costs are prohibitive and soil degradation is severe, the value of a low-input microbial approach is even greater than it is here. The data we gather internationally would be among the most compelling we can publish, and the impact on farming communities that have the fewest alternatives would be among the most meaningful work we do.
Ray, this is where
I need your help.

The work you have done through the Soil Health Academy and Understanding Ag has changed how farmers think about what is beneath their feet. You have taken something complex, the living economy of the soil, and made it plain enough that a farmer standing in his own field can see what is wrong and understand why it matters. That is a rare thing.

What you teach, we are building the tools to deliver. The science is there. The formulations are working. What we do not have, and what cannot be manufactured quickly, is the kind of long-standing trust with farming communities that makes a trial programme succeed. Getting farmers to stay the course across a full season, to resist the pull of conventional inputs when the biology is still establishing, to believe in something they cannot yet see in the yield data. That requires a relationship that was built over years, not months.

As you may know, I am English. I came here because I was called here. America is where this work can make the most significant difference, and I believe that with everything I have. What I do not yet have is the depth of relationship with farming communities across different states that this programme needs to grow. You do. And that is exactly what the next phase of this requires.

What I am asking is straightforward. We would supply our consortium to farmers within your existing network, at no cost to them, in exchange for their participation in structured trials. Your relationships carry the trust. We carry the science. The data we build together will be published, and what comes out of it belongs to the farming community. Not to a corporation, not to an acquirer, not to anyone who would bury it.

Access to your farming network
We are looking to run structured trials across multiple states and potentially internationally. Your relationships with farming communities, built across decades of work in the field, are the foundation we need. We supply the consortium at no cost. Your network provides the ground and the commitment to see the season through.
Equity in what we are building
This is not a consulting arrangement. We are asking you to be part of this from the ground up, and we want to reflect that properly. We are offering equity in Regenerative Agricultural Development LLC, a genuine stake in the outcome and not an honorarium. If this succeeds, it succeeds for both of us and for the farmers we are serving.
A shared conviction
We both believe the land was designed to heal itself if we stop working against it. That the biology was placed in the soil for a reason. That our job is not to engineer yield out of chemistry but to restore what was always meant to be there. The alignment between what you teach and what we are building is not coincidental. We think it is the point.

Where we are going — a five year programme

We are currently in year two of a five year research and development programme. The objective during this period is straightforward: gather data, publish it, and let the science speak. Education is the most important tool we have, and you know that better than most. But education without data is just opinion. We are building the data. Products will follow as the science is proven, introduced progressively through the programme at the points where we have enough to stand behind them properly.

2025 — 2026 · Years 1 and 2
A five-year dedicated R&D programme. Year two now.

This is not a product launch. It is a five-year research and development commitment, with data published as it is gathered, year by year. We are currently in year two. The reason this takes five years is deliberate and scientific. Rather than combining a broad spectrum of microbial species and hoping for results, we are researching and proving each organism individually before compiling the consortium. You cannot know what is working if everything is applied at once. We are building the evidence for each species separately, then assembling the formulation from proven components. The consortium grows in complexity as each element is validated. This takes time. It is the only way to do it properly.

Years 2 — 5 · The continuous thread
Farmer relationships. More crops. More of America.

From now through the end of the programme, the constant requirement is farmer relationships. We need strong, committed farming partners growing a wide range of staple crops across different states. The broader the crop base and the wider the geography, the more useful the data becomes and the more people we can ultimately reach. Ray, this is where your network is the difference. We need farmers who will stay with the trial through a full season, who understand what we are doing and why, and who are growing crops that matter at scale. Across years two, three, four, and five, expanding those relationships across more crops and more of America is the single most important thing we can do outside the laboratory. We are not asking to take over anyone's operation. The trial footprint is small. A single acre, or a defined section of an existing field, treated with our consortium versus an untreated control running alongside it under the farmer's standard programme. That is the comparison. We can expand beyond one acre where the farmer is willing and the land allows, and we would encourage that, but the minimum ask is modest. One section. One season. The data does the rest.

All phases · Who we are looking for
Conventional and regenerative. Both matter. For different reasons.

We are not limiting ourselves to one type of farmer. Our microbes are relevant across the full spectrum. Conventional farmers spending heavily on synthetic fertilizers represent the largest land mass under cultivation in America. Converting even a portion of that ground to a more biologically active, lower-input approach would be one of the most significant things we could do for the soil. The economic argument is there, a direct and demonstrable input cost saving, but it is secondary to the bigger picture. These are the farmers working the most acres. If the biology works on their ground, and we can show it does, the cumulative impact on soil health across the country is enormous. Farmers already working with low till, no till, organic compost, or manure-based fertility systems are the integration argument: our biology fits within what they are already doing and can show what happens when the microbial layer is added to an already regenerative approach. Ray, you already have relationships with farmers moving in this direction. Identifying where our consortium fits within those operations is as important as the conventional conversion story. One perspective is not enough. We want our microbes working across all facets of farming.

Years 3 — 5 · Building the scientific record
Writing papers. Gathering evidence. Publishing as we go.

As the trial data accumulates, we will be writing and publishing. This is not something that happens at the end of the programme. It happens throughout it, as each season's genomic analysis comes back and each crop comparison is completed. The published record is the foundation everything else is built on. It is what makes the education credible, what protects the science from being dismissed, and what makes our formulations defensible when we eventually take them to market at scale against deeply entrenched industry interests.

When the data is ready · Not before
Education. Social media. Telling the story publicly.

At some point during this programme, possibly 2027, possibly 2028, we will begin educating publicly. Social media, long-form content, accessible explanations of what soil microbiology is, why it matters, and what the data is showing. Ray has spent his career proving that education is the most powerful force for changing how farmers think about the ground. We believe the same. But education without evidence behind it is just opinion, and opinion does not move the industry we are trying to move. We are not putting a date on this yet because the date will choose itself. When we have enough data to back up what we are saying publicly, we will say it. Until then, we are building quietly, deliberately, and with our heads down. The work comes first. The story follows the work.

Year 5 and beyond · Positioning for American farmers
Products proven. Science published. Ready to scale.

By the end of the five-year programme, the goal is a published body of field evidence across multiple crops and soil types, a formulation that has been built and validated organism by organism, and products positioned at the points in the programme where the data is strong enough to stand behind them properly. We are not rushing to market. We are building something that lasts. When we do go to scale, we will be going with evidence that cannot be dismissed, against an industry that has held the ground for decades. That is the plan. Everything we are doing now is the foundation for it.

"The earth is the Lord's, and everything in it."

Psalm 24:1

We are stewards of it. Not owners. The work we are doing, returning living biology to degraded ground and giving farmers back something that was taken from them, feels, to both of us, like more than agronomy. We mention it not to preach, but because it is true, and because we think you will understand exactly what we mean.

radmicrobes.com
Confidential. This document has been prepared by Regenerative Agricultural Development LLC and is intended solely for Ray Archuleta. RAD Microbes™ is a trademark of Regenerative Agricultural Development LLC, Denton, Texas. Not for distribution without the written consent of RAD Microbes.