MicrobeBio® was created around a fundamental principle: healthy, biologically active soil is the foundation of productive agriculture.
Our technology platform brings together expertise in soil microbiology, plant pathology, agronomy, rhizosphere biology, microbial ecology and crop production to develop advanced biological solutions for modern agriculture.
Rather than relying on a single microorganism or biological mechanism, MicrobeBio® focuses on multi-strain microbial consortia designed to work synergistically within the soil–plant system.
Our objective is to help growers improve:
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Soil biological activity
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Root development and rhizosphere health
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Nutrient-use efficiency
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Nutrient cycling and mineral availability
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Water-use efficiency
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Soil structure and aggregation
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Crop vigor and resilience
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Yield potential and crop quality
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Soil organic matter and carbon cycling
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Long-term agricultural sustainability
At the center of this approach is a commitment to Sustainable and Regenerative Agriculture—using biology to increase agricultural productivity while progressively improving the natural resources upon which agriculture depends.
OUR PHILOSOPHY: FARM THE BIOLOGY
Plants do not function independently from the microorganisms surrounding their roots.
Over millions of years, plants and microorganisms evolved together, forming highly complex biological relationships within the rhizosphere—the biologically active zone surrounding plant roots.
Beneficial bacteria, fungi, actinomycetes and mycorrhizal organisms can participate in processes including:
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Biological nitrogen fixation
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Phosphorus solubilization
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Mineral mobilization
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Organic matter decomposition
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Nutrient cycling
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Root signaling
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Phytohormone production
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Rhizosphere colonization
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Soil aggregation
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Biological competition with undesirable microorganisms
MicrobeBio® technologies are designed to strengthen these biological processes by introducing carefully selected beneficial microorganisms and providing conditions that support their establishment and activity.
The result is a farming system that seeks to work with soil biology rather than independently of it.
THE MICROBEBIO® DIFFERENCE
Moving Beyond the Single-Microbe Approach
Many traditional biological agricultural products have historically relied on one or only a few microbial species.
MicrobeBio® takes a broader approach.
Our biotechnology platform is built around the principle that microbial diversity and functional complementarity can provide broader agronomic benefits than relying upon one organism or one biological pathway alone.
Different microorganisms perform different functions.
One microorganism may assist with nitrogen fixation.
Another may mobilize phosphorus.
Another may produce compounds associated with root development.
Others may assist with organic matter decomposition, nutrient cycling, biological competition or rhizosphere establishment.
When compatible organisms are formulated together appropriately, these complementary biological functions can create a more complete rhizosphere-support system.
This concept forms the foundation of MicrobeBio® microbial biotechnology.
ADVANCING AGRICULTURAL BIOLOGICAL TECHNOLOGY
Microbial agriculture has evolved significantly as advances in microbiology, fermentation, genomics, formulation science and microbial ecology have improved our understanding of the soil microbiome.
MicrobeBio® applies these developments to the design of next-generation biological agricultural technologies.
Our research and development strategy focuses on identifying microorganisms and microbial combinations capable of performing specific agronomic functions, including:
Nutrient Acquisition
Microorganisms capable of improving the biological availability of nitrogen, phosphorus, potassium and micronutrients.
Root Development
Rhizosphere microorganisms associated with enhanced root branching, root density and root exploration.
Organic Matter Transformation
Microorganisms capable of participating in the decomposition and biological transformation of carbon-containing materials.
Rhizosphere Colonization
Organisms selected for their ability to establish populations near plant roots.
Biological Crop Protection
Beneficial microorganisms capable of competing with or suppressing certain plant pathogens, pests or nematodes through recognized biological mechanisms.
Plant–Microbe Signaling
Microorganisms capable of producing metabolites, enzymes and signaling compounds involved in plant growth and rhizosphere interactions.
The objective is not simply to add microorganisms to soil.
It is to engineer a more functional biological environment around the root system.
THE RHIZOSPHERE: WHERE MICROBEBIO® TECHNOLOGY WORKS
The rhizosphere is one of the most biologically active environments in agriculture.
Plant roots continuously release sugars, amino acids, organic acids and other compounds known collectively as root exudates.
These compounds feed and influence microbial communities surrounding the root.
Beneficial microorganisms can, in turn, contribute compounds and biological functions that support plant development.
MicrobeBio® technologies are designed to establish beneficial microbial activity within this environment.
Once introduced under favorable conditions, compatible microorganisms may multiply, colonize root surfaces and interact with existing soil microbial communities.
This creates the potential for a dynamic biological system in which microorganisms, roots, minerals, water and organic carbon interact continuously throughout crop development.
BUILDING STRONGER ROOT SYSTEMS
Healthy Roots Are the Foundation of Crop Performance
A productive crop begins below ground.
Plants with larger, deeper and more highly branched root systems generally have access to a greater volume of soil.
This can improve the plant’s ability to obtain:
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Water
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Nitrogen
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Phosphorus
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Potassium
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Calcium
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Magnesium
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Sulfur
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Micronutrients
MicrobeBio® programs are therefore designed to place considerable emphasis on rhizosphere health and root architecture.
Beneficial rhizosphere microorganisms can influence root development through several mechanisms, including nutrient mobilization, biological signaling, production of plant-associated growth compounds and improved soil conditions around the root.
Improved root development can consequently support greater nutrient interception, improved water acquisition and stronger crop establishment.
BIOLOGICAL NITROGEN MANAGEMENT
Nitrogen is essential to plant growth, but nitrogen fertilizer is also one of the largest input costs in modern agriculture.
Certain microorganisms possess the ability to convert atmospheric nitrogen into biologically useful nitrogen compounds through biological nitrogen fixation.
MicrobeBio® biological programs can incorporate nitrogen-fixing microorganisms selected to complement conventional crop nutrition strategies.
The objective is not necessarily to eliminate fertilizer.
Instead, the objective is to increase the efficiency of the entire nitrogen system so that growers can potentially produce more crop output from each unit of applied nutrient.
Where field conditions, crop requirements and validated agronomic data support the practice, biological programs may enable growers to progressively optimize synthetic nitrogen inputs.
PHOSPHORUS SOLUBILIZATION
A significant portion of phosphorus present in agricultural soils can exist in chemical forms that are poorly available to plants.
Certain beneficial soil microorganisms produce organic acids, enzymes and other compounds capable of increasing the solubility or biological availability of phosphorus.
By improving phosphorus mobilization within the rhizosphere, microbial technologies may increase the proportion of existing soil phosphorus that can participate in plant nutrition.
This biological process can complement conventional phosphorus fertilization and contribute to improved nutrient-use efficiency.
MINERAL MOBILIZATION AND NUTRIENT CYCLING
Agricultural soils contain substantial mineral reserves.
However, the presence of a nutrient in the soil does not necessarily mean that nutrient is immediately available to the plant.
Microbial activity is an important component of the natural nutrient cycle.
Beneficial microorganisms can participate in:
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Mineral solubilization
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Chelation
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Organic matter decomposition
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Nutrient mineralization
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Immobilization and subsequent nutrient release
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Micronutrient cycling
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Rhizosphere nutrient exchange
MicrobeBio® technologies are designed to strengthen these biological pathways and improve nutrient movement through the soil–microbe–plant system.
PHYTOHORMONES AND MICROBIAL SIGNALING
Certain plant-associated microorganisms naturally produce compounds related to plant growth and development.
These can include molecules associated with:
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Auxin pathways
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Cytokinin activity
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Gibberellin-related processes
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Root branching
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Root hair development
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Plant stress signaling
These microbial interactions are one reason biologically active rhizospheres can differ substantially from biologically depleted soils.
MicrobeBio® seeks to create microbial communities capable of supporting these naturally occurring plant–microbe interactions.
ORGANIC MATTER AND CARBON CYCLING
Soil organic matter is fundamental to productive agriculture.
It contributes to:
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Soil structure
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Water retention
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Nutrient storage
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Cation exchange capacity
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Microbial habitat
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Aggregate stability
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Soil resilience
Beneficial microorganisms help decompose plant residues and other organic materials, progressively transforming carbon through the soil biological system.
MicrobeBio® therefore recommends integrating microbial technologies with appropriate carbon and organic matter management.
When beneficial microorganisms, organic substrates, minerals, water and living roots are managed together, the soil can function as an increasingly dynamic biological ecosystem.
SUPPORTING HUMUS FORMATION
Microorganisms that consume and transform dead organic material are commonly described as saprophytic organisms.
These organisms play an important role in decomposition and soil carbon transformation.
Through microbial metabolism, organic residues can progressively contribute to more stable pools of soil organic matter.
This process is closely connected to:
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Nutrient mineralization
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Soil aggregation
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Carbon cycling
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Water retention
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Biological nutrient storage
MicrobeBio® technologies are designed to support these natural processes rather than attempting to replace them.
IMPROVING SOIL STRUCTURE
Biologically active soil generally develops better aggregation than biologically depleted soil.
Microorganisms can produce extracellular compounds and biofilms that help bind soil particles together.
Fungal hyphae and plant roots further contribute to aggregate formation.
Improved soil aggregation can support:
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Greater pore space
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Improved aeration
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Increased infiltration
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Better drainage
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Reduced crusting
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Improved root penetration
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Greater water-storage capacity
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Reduced erosion susceptibility
MicrobeBio® programs therefore view soil structure and soil biology as interconnected components of crop productivity.
IMPROVED WATER-USE EFFICIENCY
Water availability is increasingly one of the most important constraints facing global agriculture.
Healthy soil biology can contribute indirectly to water efficiency through improvements in:
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Root depth
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Root density
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Soil aggregation
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Soil organic matter
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Water infiltration
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Soil water-holding capacity
A larger root system can explore a greater soil volume, while improved soil structure can help rainfall or irrigation water infiltrate and remain within the root zone.
For this reason, MicrobeBio® technologies are positioned as part of an integrated strategy for improving water productivity—producing more agricultural output from available water resources.
SUPPORTING SOIL pH FUNCTION
Microbial products should not be represented as physically replacing lime, sulfur or other products used specifically for major pH correction.
However, biological activity can influence the chemical environment immediately surrounding roots.
Microbial metabolism produces organic acids, enzymes, extracellular compounds and other metabolites that can influence localized nutrient availability and rhizosphere chemistry.
When combined with appropriate soil amendments and agronomic management, biological programs can therefore contribute to more efficient nutrient availability across a range of soil conditions.
BIOLOGICAL COMPETITION IN THE RHIZOSPHERE
Beneficial microorganisms occupy ecological niches.
When desirable organisms establish around plant roots, they compete with other microorganisms for:
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Space
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Carbon
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Nutrients
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Root attachment sites
Some beneficial microorganisms can additionally produce enzymes, siderophores, antimicrobial metabolites or other compounds associated with biological competition.
This phenomenon forms part of the scientific foundation of many microbial biological-control technologies.
MicrobeBio® integrates selected microorganisms into crop-management programs designed to strengthen the biological resilience of the rhizosphere.
COMPATIBILITY WITH MODERN AGRICULTURAL SYSTEMS
Biological agriculture does not necessarily require growers to abandon conventional farming practices.
MicrobeBio® technologies are designed to be incorporated into integrated crop-management systems alongside appropriate:
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Fertilizers
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Irrigation programs
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Organic amendments
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Micronutrients
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Crop-protection products
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Precision agriculture technologies
Specific tank-mix, pesticide and fertilizer compatibility should always be evaluated according to the microbial organism, formulation, chemistry, concentration, water quality and application method involved.
This integrated approach allows growers to introduce biological technologies progressively while maintaining operational flexibility.
MICROBEBIO® AND REGENERATIVE AGRICULTURE
Regenerative agriculture seeks to improve the productive capacity of agricultural land while rebuilding the biological and physical functions of soil.
MicrobeBio® technologies support this objective by focusing on five interconnected areas:
1. Increase Biological Activity
Expand beneficial microbial activity within the rhizosphere.
2. Build Root Mass
Encourage deeper, denser and more biologically interactive root systems.
3. Improve Nutrient Efficiency
Increase biological access to nutrients already present within soil or supplied through fertilization.
4. Strengthen the Soil Carbon Cycle
Integrate roots, microorganisms and organic substrates to support carbon transformation and soil organic matter.
5. Improve Water Productivity
Support soil structure and root architecture capable of using available water more effectively.
Together, these functions form a biological foundation for more resilient agricultural systems.
CORE AGRONOMIC BENEFITS OF MICROBEBIO®
Depending on the product, crop, soil environment, application program and growing conditions, MicrobeBio® technologies are designed to support:
Biological Nitrogen Fixation
Selected microorganisms can contribute biologically fixed nitrogen to the rhizosphere.
Phosphorus Solubilization
Microbial activity can increase the availability of phosphorus otherwise poorly accessible to plants.
Mineral Mobilization
Beneficial microorganisms can participate in the biological mobilization of macro- and micronutrients.
Enhanced Nutrient-Use Efficiency
Improved rhizosphere activity and root development can increase the efficiency with which plants obtain nutrients.
Greater Root Mass
Microbial interactions can promote more extensive root architecture and rhizosphere exploration.
Increased Soil Biological Activity
Beneficial microorganisms increase biological diversity and activity within the root zone.
Improved Soil Structure
Microbial metabolites, roots and fungal structures contribute to soil aggregation.
Increased Water-Holding Capacity
Improved aggregation and organic matter can increase the soil’s ability to retain plant-available water.
Organic Matter Transformation
Microorganisms participate in decomposition and the recycling of organic residues.
Carbon Cycling
Living roots and microorganisms form central components of the soil carbon cycle.
Improved Plant Vigor
More efficient access to nutrients and water can support stronger crop development.
Improved Crop Quality
Optimized plant nutrition and physiological development may positively influence characteristics such as biomass, fruit development, soluble solids and overall crop quality.
FROM FERTILIZER EFFICIENCY TO BIOLOGICAL NUTRITION
The future of crop nutrition is unlikely to depend solely on applying larger quantities of fertilizer.
It will increasingly depend on improving the efficiency with which plants, roots and soil microorganisms capture and use nutrients.
MicrobeBio® therefore focuses on the concept of Biological Nutrient Efficiency.
Instead of asking only:
“How much fertilizer should be applied?”
we also ask:
“How much of the nutrient already present in the soil and fertilizer program can the crop actually access?”
That distinction has major implications for agricultural economics and sustainability.
A biologically functional rhizosphere has the potential to improve nutrient capture while reducing losses through leaching, fixation, volatilization and other pathways.
REDUCING DEPENDENCE ON SYNTHETIC INPUTS
MicrobeBio® does not advocate arbitrary reductions in fertilizer or crop-protection products.
Input optimization should always be based on:
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Soil testing
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Tissue analysis
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Crop requirements
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Yield targets
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Field history
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Local agronomic conditions
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Validated field trials
However, by improving nutrient cycling, root development and biological activity, microbial technologies may enable growers to progressively optimize conventional input programs without sacrificing crop performance.
This approach can generate both environmental and economic benefits.
THE MICROBEBIO® BIOLOGICAL PLATFORM
MicrobeBio® is developing an integrated portfolio of biological technologies designed to address multiple components of agricultural production.
The platform includes technologies targeting:
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Soil biology
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Root development
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Biological nutrition
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Nitrogen fixation
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Phosphate solubilization
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Mineral mobilization
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Crop stimulation
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Biological disease management
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Biological insect management
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Biological nematode management
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Organic matter transformation
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Water-use efficiency
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Soil regeneration
Rather than treating each agricultural challenge independently, MicrobeBio® seeks to create biological programs in which multiple technologies work together throughout the crop cycle.
WHY MICROBIAL DIVERSITY MATTERS
A productive agricultural soil contains an extraordinarily complex biological community.
No single microorganism performs every function required by a crop.
For this reason, MicrobeBio® places considerable emphasis on functional microbial diversity.
A well-designed microbial consortium can include organisms with complementary capabilities associated with:
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Nitrogen fixation
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Phosphorus solubilization
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Potassium mobilization
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Micronutrient cycling
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Root stimulation
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Organic matter decomposition
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Rhizosphere colonization
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Biological competition
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Stress response
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Soil aggregation
The goal is not simply to provide a high microbial count.
The goal is to provide the right organisms, performing the right functions, in the right biological environment.
A SYSTEMS APPROACH TO AGRICULTURE
Soil fertility cannot be separated from soil biology.
Root health cannot be separated from water management.
Nutrient efficiency cannot be separated from microbial activity.
Crop resilience cannot be separated from soil structure.
MicrobeBio® therefore approaches agriculture as an interconnected biological system.
Our technologies are designed around the relationships between:
Soil + Microorganisms + Roots + Carbon + Minerals + Water + Plant Physiology
When these components function together, agriculture can become more productive while simultaneously improving the biological condition of the soil.
OUR COMMITMENT TO SCIENCE AND VALIDATION
MicrobeBio® is committed to the continued evaluation of its technologies through laboratory analysis, greenhouse studies, field trials, commercial demonstrations and collaboration with growers, agronomists, universities and research organizations.
Agricultural biological performance can vary according to:
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Soil type
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Climate
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Crop
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Microbial formulation
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Irrigation management
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Fertility program
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Organic matter
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pH
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Salinity
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Pesticide program
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Application timing
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Field management
For this reason, MicrobeBio® believes biological technologies should be evaluated through measurable agronomic outcomes, including:
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Root biomass
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Root depth and density
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Soil biological activity
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Nutrient-use efficiency
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Soil organic matter
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Water-use efficiency
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Crop vigor
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Yield
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Quality
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Return on investment
THE FUTURE IS BIOLOGICAL
The agricultural industry faces a difficult challenge.
The world must produce more food while simultaneously addressing:
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Rising fertilizer costs
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Water scarcity
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Soil degradation
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Salinity
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Declining soil organic matter
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Climate variability
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Nutrient losses
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Environmental pressure
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Increasing regulatory demands
Biotechnology provides agriculture with another powerful tool for addressing these challenges.
Instead of relying exclusively on external chemical inputs, agriculture can increasingly harness the biological processes that already regulate nutrient cycling, root development, carbon transformation and soil productivity.
That is the opportunity MicrobeBio® is pursuing.
MICROBEBIO®
Biology Rising™
Better Biology. Better Soil. Better Crops. Better Agriculture.
MicrobeBio® is advancing a new generation of agricultural biotechnology built around the extraordinary biological relationship between plants, microorganisms and soil.
Our mission is to help agriculture transition from an input-intensive model toward a biologically intelligent production system capable of producing more while using resources more efficiently.
By strengthening the rhizosphere, enhancing nutrient cycling, building root systems, supporting soil carbon and improving biological activity, MicrobeBio® seeks to help growers achieve something greater than a successful crop.
We seek to help build healthier, more productive and more resilient agricultural ecosystems capable of supporting generations of farmers to come.