Biodiversity is the living infrastructure of healthy ecosystems.

It exists at every scale, from bacteria and fungi surrounding a plant root to insects, plants, animals, wetlands, forests, agricultural landscapes, and entire watersheds.

In agriculture, biodiversity is sometimes understood primarily as the number of visible plant and animal species present. Yet some of the most important biodiversity exists below ground and beyond human sight.

A single functioning soil ecosystem can contain extraordinary communities of:

Together with plant roots, these organisms form complex biological networks responsible for nutrient cycling, decomposition, soil formation, carbon cycling, plant–microbe interactions, and many other ecosystem processes.

Similar biological networks exist in wetlands, rivers, sediments, ponds, agricultural waterways, and watersheds.

MicrobeBio® Biodiversity™ studies these interconnected living systems and develops biological approaches designed to restore and support their function.

Our approach connects:

The objective is not simply to increase the number of organisms present.

It is to rebuild functional biodiversity: diverse biological communities capable of supporting productive agriculture and resilient natural ecosystems.

Because protecting biodiversity begins with protecting — and where necessary restoring — the biological systems upon which life depends.

Biodiversity describes the variety of life.

It exists at several interconnected levels.

Variation within individual species and populations.

The variety of organisms within an ecosystem.

The enormous diversity of bacteria, fungi, archaea, algae, yeasts, protozoa, and other microorganisms.

The variety of habitats and ecological systems across landscapes.

These levels interact continuously.

A resilient ecosystem therefore depends not simply on how many species exist, but on the relationships among them.

MicrobeBio approaches biodiversity as a network of biological interactions.

Much of Earth’s biological activity occurs beneath the soil surface.

Plant roots interact with microorganisms, fungi, minerals, organic matter, water, gases, and soil organisms.

These interactions influence:

A biologically depleted soil may still physically support crops, but many of the natural processes that support long-term productivity may become weakened.

MicrobeBio therefore places soil biodiversity at the foundation of regenerative agriculture.

The soil microbiome is not one organism.

It is an ecosystem containing enormous numbers of interacting microorganisms.

These organisms occupy different ecological niches.

Some decompose plant residues.

Others transform nitrogen.

Others influence phosphorus availability.

Some associate with roots.

Some interact with fungi.

Others participate in mineral and carbon transformations.

The resulting system is highly dynamic.

MicrobeBio® Microbiome Science™ studies these communities not simply by asking:

but also:

High biological diversity does not automatically mean high ecosystem function.

Two soils may contain similar numbers of microbial species but perform very differently.

MicrobeBio therefore emphasizes functional biodiversity.

Important functions can include:

A resilient ecosystem often benefits from multiple organisms capable of contributing to similar or complementary functions.

This biological redundancy can help ecosystems continue functioning when environmental conditions change.

The rhizosphere is the narrow region of soil directly influenced by plant roots.

It is one of the most biologically active environments in agriculture.

Plants release compounds including:

These compounds feed and influence microbial communities.

Different plant species — and even different plant varieties — can support different rhizosphere communities.

The result is a dynamic relationship:

MicrobeBio views the rhizosphere as one of the primary locations where agricultural biodiversity can be rebuilt.

Roots do much more than absorb nutrients and water.

They physically create habitat.

As roots grow through soil, they:

A more extensive root system therefore creates more biological interface between plants and soil.

This is why MicrobeBio connects biodiversity with Soil & Root Biology™.

Healthy roots help support healthy microbial ecosystems.

Fungi are among the most important organisms in terrestrial ecosystems.

Their microscopic hyphae form networks extending through:

Fungi contribute to:

MicrobeBio’s Fungal & Enzyme Science™ platform studies these organisms because restoring soil biodiversity requires more than bacterial activity alone.

Healthy soils require diverse biological communities with complementary functions.

Mycorrhizal fungi form symbiotic relationships with many plant species.

The plant supplies carbon compounds to the fungus.

The fungal network explores soil beyond the immediate root surface.

These associations can influence plant access to:

Mycorrhizal systems demonstrate an important ecological principle:

MicrobeBio studies these partnerships as part of regenerative soil and biodiversity management.

Nutrients move continuously through living systems.

Microorganisms participate in cycles involving:

Different organisms perform different stages of these cycles.

This means nutrient efficiency depends partly on biological diversity.

MicrobeBio’s Biological Nutrition™ platform therefore connects directly with Biodiversity™.

The objective is not simply to add nutrients.

It is to support the biological communities that help cycle them.

Organic matter provides habitat and energy for soil organisms.

Sources include:

Microorganisms and fungi transform these materials.

As organic matter declines, biological habitat and food resources may also decline.

Restoring biodiversity therefore often requires rebuilding the carbon and organic matter systems that support life below ground.

Soil organisms help create physical structure.

Roots create channels.

Fungal hyphae connect particles.

Microbial compounds contribute to aggregation.

Soil fauna move through pores and transform organic material.

These biological processes can influence:

Biodiversity therefore has physical consequences.

A living soil does not simply contain organisms.

Those organisms help construct the environment in which they live.

Agricultural biodiversity exists at multiple levels.

It includes:

Highly simplified agricultural ecosystems can reduce some forms of biological diversity.

Regenerative farming systems seek to restore biological complexity where agronomically and economically appropriate.

Potential approaches include:

MicrobeBio biological technologies are designed to complement these practices.

Agricultural ecosystems contain both beneficial and harmful organisms.

The objective of crop protection should therefore not be indiscriminate biological elimination.

Beneficial organisms can contribute to natural ecological regulation through:

MicrobeBio’s Biological Crop Protection™ platform uses selected microorganisms, fungi, enzymes, and natural metabolites as part of integrated pest and disease management.

This creates an important shift:

toward

Pollinators are essential to the reproduction of many flowering plants and agricultural crops.

Healthy agricultural landscapes can support pollinator populations through appropriate habitat, flowering resources, and responsible crop-protection practices.

Biodiversity programs should therefore consider not only soil organisms but also above-ground ecological communities.

MicrobeBio supports integrated agricultural systems that recognize the value of both productivity and ecosystem function.

Wetlands are among the world’s most biologically productive ecosystems.

They support communities of:

Wetland microorganisms also perform important ecological functions.

They participate in:

MicrobeBio’s Water & Environmental Biology™ platform studies these microbial processes as part of broader wetland restoration.

Wetlands provide ecosystem services that would otherwise be difficult or expensive to reproduce artificially.

Depending on the system, wetlands can contribute to:

Protecting wetland biodiversity therefore protects both ecological and practical infrastructure.

Constructed wetlands can also apply similar biological principles to engineered water-treatment systems.

A watershed connects everything occurring across a landscape.

Rainfall moves through:

Materials transported by water can include:

Healthy watershed biodiversity therefore depends partly on how land is managed upstream.

MicrobeBio sees soil regeneration and water protection as fundamental components of watershed biodiversity.

When agricultural soils lose structure, runoff and erosion may increase.

Sediment and nutrients can enter nearby waterways.

Excessive nutrient loading can contribute to eutrophication and oxygen depletion.

Improving:

can help reduce these losses.

This creates a direct biological connection:

Biodiversity management therefore cannot stop at the field boundary.

Rivers, ponds, lakes, wetlands, and groundwater contain microbial ecosystems of their own.

These microorganisms influence:

Changes in nutrient concentrations, temperature, oxygen, salinity, or contamination can alter these microbial communities.

MicrobeBio studies water microbiomes as living systems rather than treating water exclusively as chemistry.

Water quality and biodiversity influence one another.

Poor water quality can reduce habitat suitability.

At the same time, biological communities help determine water quality.

Microorganisms transform:

Plants and wetlands can also participate in nutrient capture and sediment stabilization.

MicrobeBio therefore integrates biodiversity with Water Conservation™ and Water & Environmental Biology™.

Climate change can alter:

More biologically diverse systems may contain a broader range of organisms capable of functioning under changing conditions.

This does not mean biodiversity eliminates climate risk.

It means biological diversity can contribute to ecosystem resilience.

MicrobeBio’s Climate & Carbon™ platform therefore connects carbon management with restoration of living systems.

Biodiversity and carbon are deeply connected.

Plants capture atmospheric carbon.

Roots transfer carbon below ground.

Microorganisms and fungi transform it.

Soil organisms influence aggregation and organic matter dynamics.

Wetland communities influence carbon storage and decomposition.

Restoring biological diversity can therefore influence how carbon moves through ecosystems.

MicrobeBio treats carbon not simply as a chemical pool but as part of a living biological cycle.

Biological diversity can decline when ecosystems experience severe or repeated disturbance.

Potential pressures include:

The specific causes vary by ecosystem.

Effective restoration therefore begins with diagnosis.

The question is not simply:

It is:

Restoration involves rebuilding ecosystem function after degradation.

Depending on the environment, this may include:

MicrobeBio focuses particularly on the microbial and biological foundation of restoration.

Plants and animals cannot thrive indefinitely in environments where the underlying soil and water systems remain biologically dysfunctional.

Restoring an ecosystem is rarely instantaneous.

Biological communities often develop through succession.

Early organisms modify the environment.

New organisms establish.

Plants create additional habitat.

Organic matter accumulates.

Food webs become increasingly complex.

MicrobeBio views restoration as a biological succession process rather than a one-time inoculation.

The objective is to create conditions that allow increasingly functional communities to establish over time.

Contaminated environments present a special biodiversity challenge.

Certain microorganisms can transform biodegradable contaminants such as selected petroleum hydrocarbons and organic compounds.

Bioremediation may involve:

Supporting native microorganisms by improving environmental conditions.

Introducing selected organisms with desired functional capabilities.

As contaminant pressure declines, conditions may become more suitable for broader ecological recovery.

MicrobeBio therefore views remediation as potentially the first stage of biodiversity restoration.

Regenerative agriculture seeks to restore biological function while maintaining productive farming.

Biodiversity can be supported through combinations of:

MicrobeBio does not view biodiversity and agricultural productivity as opposing goals.

The scientific challenge is to design production systems where biological function contributes to productivity.

Natural ecosystems often contain multiple organisms capable of contributing to similar biological functions.

This is known as functional redundancy.

If environmental conditions suppress one group, another may continue performing part of the same ecological role.

Examples can occur in:

This helps explain why biologically diverse systems can sometimes be more resilient than systems dependent on a narrow range of organisms.

MicrobeBio seeks to build functional resilience, not simply maximize species counts.

Environmental restoration should consider native ecosystems and locally adapted organisms.

Introducing biological material without understanding the receiving environment can create ecological risk.

MicrobeBio therefore distinguishes between:

Each requires different ecological and regulatory considerations.

Responsible biotechnology must work with local ecological conditions rather than assume that one biological solution belongs everywhere.

Biodiversity should be measured at multiple levels.

Traditional ecological measurements may include:

Microbial biodiversity can be evaluated using tools such as:

However, knowing which organisms are present is only part of the picture.

MicrobeBio seeks to connect biodiversity measurements with ecosystem function.

Functional measurements may include: