Biology Rising™

Water & Environmental Biology

Biology Rising™

Water & Environmental Biology

Water Is Both a Chemical and Biological System
Harnessing Microbial Ecology for Cleaner Water, Resource Recovery, Aquaculture, Industrial Treatment, and Environmental Restoration
Executive Summary
Water is often managed as a chemical system.
We measure pH, salinity, dissolved oxygen, nutrients, metals, suspended solids, conductivity, and contaminants.
These measurements are essential.
But water is also a living biological system.
Microorganisms continuously interact with organic matter, nutrients, minerals, gases, sediments, plants, animals, and contaminants. These biological processes can improve water quality, transform waste, stabilize nutrients, degrade selected pollutants, influence biofilms, and support ecological restoration.
MicrobeBio® Water & Environmental Biology™ studies these living processes across:
  • Irrigation water
  • Aquaculture
  • Municipal wastewater
  • Industrial wastewater
  • Wetlands
  • Produced water
  • Mine water
  • Surface water
  • Groundwater
  • Contaminated soils and sediments
The objective is to understand how microbiology, chemistry, minerals, nutrients, oxygen, water movement, and environmental conditions interact as one system.
MicrobeBio applies this systems approach to support:
  • Water-quality improvement
  • Organic matter degradation
  • Nutrient transformation
  • Sludge management
  • Odor reduction
  • Water reuse
  • Hydrocarbon remediation
  • Mine-water treatment
  • Environmental restoration
The central principle is simple:
Cleaner water requires better management of both chemistry and biology.
1. Water Is a Living Environment
Natural and engineered water systems contain diverse microbial communities.
These may include:
  • Bacteria
  • Fungi
  • Archaea
  • Algae
  • Protozoa
  • Yeasts
  • Other microorganisms
They may exist:
  • Suspended in water
  • Attached to particles
  • Within sediments
  • On plant roots
  • Inside biofilms
  • On pipes, tanks, membranes, and filters
These organisms can influence:
  • Organic matter decomposition
  • Nutrient cycling
  • Oxygen balance
  • pH
  • Sulfur chemistry
  • Carbon cycling
  • Metal behavior
  • Contaminant transformation
Water therefore cannot be fully understood through chemistry alone.
2. The Water Microbiome
Every water system contains a characteristic microbiome shaped by its environment.
Important variables include:
  • Temperature
  • pH
  • Salinity
  • Dissolved oxygen
  • Organic carbon
  • Nitrogen
  • Phosphorus
  • Minerals
  • Light
  • Flow
  • Sediments
  • Contaminants
Different conditions favor different biological functions.
For example:
  • Aerobic environments support different pathways than anaerobic ones.
  • Freshwater microbiomes differ from saline systems.
  • Wastewater contains very different microbial communities than irrigation water.
  • Mine water may select for organisms adapted to metals and acidity.
MicrobeBio therefore develops biological strategies around the specific environment, not a universal microbial formula.
3. Biological Nutrient Cycling
Microorganisms drive many of the nutrient transformations occurring in water.
Nitrogen
Microbial communities may participate in:
  • Ammonification
  • Nitrification
  • Denitrification
  • Assimilation
  • Nitrogen fixation
These processes influence concentrations of:
  • Ammonia
  • Nitrite
  • Nitrate
  • Total nitrogen
Phosphorus
Microorganisms can influence:
  • Biological uptake
  • Release
  • Mineralization
  • Accumulation
Carbon
Microorganisms transform organic carbon and influence:
  • Biological oxygen demand
  • Carbon dioxide production
  • Methane production under anaerobic conditions
Sulfur
Microbial sulfur transformations can influence:
  • Odor
  • Corrosion
  • Sulfide production
  • Mine-water chemistry
These biological cycles form the foundation of many modern treatment systems.
4. Dissolved Oxygen Controls Biology
Oxygen availability strongly influences microbial activity.
Under aerobic conditions, microorganisms can efficiently degrade many biodegradable organic compounds.
Under low-oxygen or anoxic conditions, different microbial processes become dominant.
Under anaerobic conditions, systems may generate compounds such as:
  • Methane
  • Hydrogen sulfide
  • Organic acids
MicrobeBio therefore treats dissolved oxygen not only as a water-quality measurement, but as a biological control variable.
Managing oxygen can help determine which microbial pathways dominate.
5. Irrigation Water Biology
Irrigation water connects water science directly with soil and root biology.
Water quality can influence:
  • Soil salinity
  • Root-zone pH
  • Nutrient availability
  • Microbial populations
  • Irrigation equipment
  • Crop performance
Biological challenges may also occur within irrigation systems, including:
  • Biofilms
  • Organic deposits
  • Algae
  • Microbial fouling
  • Drip-line blockage
MicrobeBio studies irrigation water as part of a larger system:
Water → Irrigation Infrastructure → Soil → Rhizosphere → Root → Plant
This connects Water & Environmental Biology™ with Soil & Root Biology™ and Biological Nutrition™.
6. Water Quality and Crop Performance
Important irrigation-water parameters can include:
  • pH
  • Electrical conductivity
  • Sodium
  • Chloride
  • Bicarbonate
  • Calcium
  • Magnesium
  • Nutrients
  • Suspended solids
  • Microbial load
These conditions can influence:
  • Soil structure
  • Salinity
  • Nutrient mobility
  • Root development
  • Biological activity
MicrobeBio therefore integrates water analysis with soil, root, and plant diagnostics.
The crop experiences these factors as one connected biological environment.
7. Aquaculture Biology
Aquaculture is fundamentally a biological water-management system.
Fish, shrimp, microorganisms, algae, feed, organic matter, nutrients, and oxygen interact continuously.
Key challenges may include:
  • Ammonia
  • Nitrite
  • Organic waste
  • Uneaten feed
  • Sludge
  • Low dissolved oxygen
  • Odor
  • Microbial imbalance
Beneficial microbial communities can support:
  • Organic matter transformation
  • Nitrogen cycling
  • Sludge stabilization
  • Water-quality balance
MicrobeBio approaches aquaculture through:
Water Chemistry + Microbiology + Feed + Waste + Animal Biology + Oxygen
8. Biological Waste Management in Aquaculture
Aquaculture systems continuously generate organic residues from:
  • Fecal material
  • Uneaten feed
  • Dead algae
  • Biofilm
  • Other biological matter
If these materials accumulate, they can increase oxygen demand and reduce water quality.
Microbial and enzymatic systems may help transform biodegradable organic material.
Potential benefits include:
  • Reduced organic accumulation
  • Better nutrient cycling
  • Improved sludge management
  • More stable water conditions
These systems should complement good aeration, stocking density, feed management, and filtration.
9. Municipal Wastewater
Municipal wastewater treatment is one of the world’s largest applications of microbial ecology.
Biological treatment systems rely on microorganisms to transform:
  • Organic matter
  • Nitrogen
  • Phosphorus
  • Suspended organic solids
  • Odor-generating compounds
Applications include:
  • Activated sludge
  • Sequencing batch reactors
  • Moving bed biofilm reactors
  • Membrane bioreactors
  • Lagoons
  • Trickling filters
  • Digesters
MicrobeBio Municipal Water Biotechnology™ builds directly on Water & Environmental Biology™.
The objective is to improve the biological performance of existing treatment systems.
10. Industrial Wastewater
Industrial wastewater may contain:
  • Organic compounds
  • Oils
  • Fats
  • Proteins
  • Nutrients
  • Suspended solids
  • Metals
  • Process chemicals
Biological treatment can be effective for biodegradable fractions.
MicrobeBio studies:
  • Bioaugmentation
  • Enzyme pretreatment
  • Organic-load reduction
  • Biofilm processes
  • Nutrient balancing
  • Sludge management
Not every contaminant is biologically degradable.
A responsible treatment system must combine biological, physical, and chemical technologies where appropriate.
11. Wetlands as Biological Treatment Systems
Wetlands are naturally occurring biological treatment systems.
They combine:
  • Plants
  • Roots
  • Microorganisms
  • Sediments
  • Minerals
  • Water
  • Aerobic and anaerobic zones
These systems can influence:
  • Nutrient removal
  • Organic matter transformation
  • Sediment retention
  • Nitrogen cycling
  • Carbon cycling
  • Habitat creation
Constructed wetlands apply these same ecological principles to engineered water management.
MicrobeBio studies wetland biology as a model for nature-based treatment.
12. Plant–Microbe Interactions in Wetlands
Wetland roots create biologically active zones within sediments.
Plant roots can:
  • Release carbon
  • Alter local oxygen conditions
  • Influence microbial communities
  • Stabilize sediments
Microorganisms surrounding those roots can transform nutrients and organic matter.
This creates a system similar to the agricultural rhizosphere:
Roots + Microorganisms + Minerals + Water = Biological Processing Zone
13. Produced Water
Oil and gas operations generate large volumes of produced water.
Its composition can vary substantially and may include:
  • Salts
  • Hydrocarbons
  • Dissolved organics
  • Suspended solids
  • Metals
  • Production chemicals
Biological treatment may help reduce selected biodegradable organic fractions where water chemistry permits.
MicrobeBio evaluates produced water through:
  • Salinity
  • Temperature
  • pH
  • Hydrocarbon composition
  • Nutrient balance
  • Dissolved oxygen
  • Existing microbial ecology
Biological treatment is often best integrated with physical and chemical treatment steps.
14. Produced Water and Reuse
Water is increasingly becoming a strategic resource in energy operations.
Where treatment quality and regulations permit, produced water may be evaluated for reuse in:
  • Industrial processes
  • Certain field operations
  • Other approved non-potable applications
MicrobeBio connects Water & Environmental Biology™ with Oil & Gas Biotechnology™ to support:
Treat → Recover → Reuse
The goal is to reduce both freshwater demand and disposal burden.
15. Mine Water
Mine water can contain very different chemistry depending on geology and operating conditions.
Potential constituents include:
  • Metals
  • Sulfates
  • Acidity
  • Dissolved minerals
  • Suspended solids
Microorganisms can influence:
  • Sulfur oxidation
  • Sulfate reduction
  • Metal precipitation
  • Redox chemistry
  • Organic matter transformation
MicrobeBio studies mine water as a combined:
Microbial + Mineral + Chemical System
This connects directly with Biomining & Bioleaching™.
16. Acid Mine Drainage
Acid mine drainage can develop when sulfide minerals interact with water and oxygen.
Microbial activity can accelerate some of these reactions.
The resulting water may contain:
  • Low pH
  • Sulfate
  • Dissolved metals
Biological remediation strategies may use controlled microbial processes to support:
  • Sulfate reduction
  • Metal precipitation
  • pH improvement
These systems require careful engineering because water chemistry and metal concentration strongly affect performance.
17. Hydrocarbon-Contaminated Water
Hydrocarbons can enter water through:
  • Pipeline releases
  • Storage leaks
  • Refinery activity
  • Fuel spills
  • Industrial contamination
Certain microorganisms can metabolize biodegradable hydrocarbon fractions.
MicrobeBio may use:
Natural Attenuation
Allow native microbial populations to degrade contaminants under monitored conditions.
Biostimulation
Improve environmental conditions to accelerate indigenous microbial activity.
Bioaugmentation
Introduce selected microorganisms with appropriate degradation capabilities.
The correct strategy depends on the contaminant and site conditions.
18. Contaminated Groundwater
Groundwater remediation presents unique challenges because contamination can move through subsurface formations.
Potential biological approaches may target selected:
  • Petroleum hydrocarbons
  • Organic contaminants
  • Nutrient pollution
Effective biological groundwater treatment requires understanding:
  • Hydrogeology
  • Contaminant chemistry
  • Oxygen
  • Nutrients
  • pH
  • Microbial ecology
MicrobeBio treats groundwater remediation as an engineered biological process rather than a simple microbial application.
19. Contaminated Sediments
Sediments can accumulate:
  • Hydrocarbons
  • Organic matter
  • Nutrients
  • Metals
  • Other pollutants
They also contain dense microbial communities.
Microbial activity influences:
  • Redox chemistry
  • Nutrient cycling
  • Organic matter degradation
  • Metal mobility
MicrobeBio studies contaminated sediments as environments where microbiology, mineral chemistry, and organic matter interact continuously.
20. Biofilms
Microorganisms commonly attach to surfaces and form biofilms.
Biofilms occur on:
  • Pipes
  • Tanks
  • Filters
  • Membranes
  • Sediments
  • Plant roots
  • Industrial equipment
Biofilms can be beneficial in engineered biological treatment systems.
They can also contribute to:
  • Fouling
  • Clogging
  • Odor
  • Reduced flow
  • Microbiologically influenced corrosion
MicrobeBio studies both beneficial and undesirable biofilms.
The objective is biofilm management, not simply biofilm elimination.
21. Organic Matter and Water Quality
Organic matter is one of the primary drivers of microbial activity in water.
High biodegradable organic loads can increase oxygen consumption.
This may contribute to:
  • Low dissolved oxygen
  • Sludge accumulation
  • Odor
  • Anaerobic conditions
MicrobeBio uses microbial and enzymatic systems to support controlled organic matter transformation.
The objective is to reduce the biological burden while maintaining stable water conditions.
22. Enzyme Science in Water Treatment
Enzymes can help break complex organic materials into smaller compounds that microorganisms can more readily degrade.
Relevant enzyme groups may include:
  • Proteases
  • Lipases
  • Amylases
  • Cellulases
  • Other hydrolytic enzymes
The process can be summarized as:
Complex Organic Material → Enzymatic Breakdown → Microbial Degradation → Stabilization
This connects Water & Environmental Biology™ with Fungal & Enzyme Science™.
23. Sludge Management
Sludge accumulates in:
  • Wastewater plants
  • Lagoons
  • Aquaculture ponds
  • Industrial water systems
  • Sedimentation basins
Microbial and enzymatic treatment may support the digestion or stabilization of biodegradable solids.
Potential objectives include:
  • Reduced organic accumulation
  • Improved stabilization
  • Lower sludge-handling burden
  • Improved water circulation
Performance depends on:
  • Sludge composition
  • Oxygen
  • Temperature
  • pH
  • Treatment environment
24. Odor Biology
Many water-system odors are biological in origin.
Compounds may include:
  • Hydrogen sulfide
  • Ammonia
  • Volatile fatty acids
  • Other microbial metabolites
These compounds often develop under low-oxygen conditions when organic material accumulates.
MicrobeBio’s approach focuses on addressing:
  • Organic loading
  • Oxygen conditions
  • Microbial ecology
  • Sludge accumulation
The objective is to reduce the conditions that create odor rather than simply masking it.

25. Microbial–Mineral Interactions

Microorganisms can alter mineral chemistry by:

  • Changing pH
  • Altering redox conditions
  • Producing organic acids
  • Producing chelating compounds
  • Influencing precipitation

These mechanisms can affect:

  • Metal mobility
  • Scale formation
  • Nutrient availability
  • Mine-water chemistry
  • Environmental remediation

MicrobeBio studies these interactions because many environmental water problems exist at the intersection of biology and mineral chemistry.

26. Nutrient Pollution

Excess nitrogen and phosphorus can contribute to:

  • Eutrophication
  • Algal blooms
  • Oxygen depletion
  • Ecosystem imbalance

Microbial communities play important roles in transforming and removing these nutrients.

However, downstream biological treatment alone cannot substitute for source control.

MicrobeBio supports an integrated model:

Reduce Inputs + Improve Biological Treatment + Restore Ecosystem Function

27. Biological Restoration of Water Bodies

Ponds, lagoons, wetlands, and other water bodies can become degraded through:

  • Organic accumulation
  • Nutrient loading
  • Sludge
  • Low dissolved oxygen
  • Odor
  • Biological imbalance

Restoration may involve:

  • Source control
  • Aeration
  • Microbial treatment
  • Sediment management
  • Vegetation
  • Hydrological improvement

MicrobeBio uses biological technology as one component of a broader restoration strategy.

28. Bioremediation

Bioremediation uses microorganisms and biological processes to transform selected contaminants.

Potential applications can include:

  • Hydrocarbon-affected water
  • Organic industrial contamination
  • Nutrient pollution
  • Contaminated sediments

A successful bioremediation system requires:

Contaminant + Microorganism + Oxygen + Nutrients + Water Chemistry + Temperature + Time

Microorganisms cannot overcome unfavorable environmental conditions automatically.

The treatment environment must support the required metabolism.

29. Biostimulation and Bioaugmentation

Two central environmental biotechnology strategies are:

Biostimulation

Support native microbial communities by improving:

  • Oxygen
  • Nutrients
  • Carbon
  • pH
  • Other limiting conditions

Bioaugmentation

Introduce selected microorganisms or consortia with desired functions.

MicrobeBio evaluates both approaches.

The best strategy depends on what biology is already present and what function is missing.

30. Water Reuse

Water scarcity is increasing the importance of reuse.

Potential water streams include:

  • Municipal wastewater
  • Industrial water
  • Aquaculture water
  • Agricultural drainage
  • Produced water

Depending on treatment quality and regulation, recovered water may support:

  • Irrigation
  • Cooling
  • Industrial processes
  • Other approved non-potable uses

MicrobeBio connects Water & Environmental Biology™ directly with Water Conservation™.

The model becomes:

Use → Treat → Recover → Reuse

31. Biological Resource Recovery

Wastewater can contain valuable resources in addition to water.

These may include:

  • Nitrogen
  • Phosphorus
  • Organic carbon
  • Energy potential

Future water systems will increasingly be designed not simply to remove pollutants, but to recover resources.

MicrobeBio sees this as a critical bridge between:

Water Treatment + Circular Bioeconomy

32. Water Biology and Agriculture

Agricultural water affects:

  • Soil structure
  • Salinity
  • Nutrient availability
  • Root health
  • Microbial activity

MicrobeBio therefore integrates Water & Environmental Biology™ with:

  • Soil & Root Biology™
  • Biological Nutrition™
  • Soil Regeneration™
  • Water Conservation™

This allows water to be managed as part of the entire soil–plant system.

33. Water Biology and Energy

Energy operations generate water streams requiring treatment and management.

MicrobeBio applies water biology to:

  • Produced water
  • Refinery wastewater
  • Hydrocarbon-contaminated water
  • Storage and terminal systems

This connects directly with Oil & Gas Biotechnology™.

The same microbial science can support both environmental treatment and operational efficiency.

34. Water Biology and Mining

Mining systems depend heavily on water.

Water is used for:

  • Mineral processing
  • Transport
  • Tailings management
  • Dust control
  • Cleaning

Mine-water treatment can involve complex interactions among:

  • Metals
  • Sulfur compounds
  • Minerals
  • Microorganisms

MicrobeBio connects Water & Environmental Biology™ with Biomining & Bioleaching™ to support integrated resource recovery and water management.

35. Monitoring Water Biology

Biological water systems must be measured.

Relevant chemical indicators may include:

  • pH
  • Dissolved oxygen
  • Conductivity
  • Salinity
  • BOD
  • COD
  • Ammonia
  • Nitrite
  • Nitrate
  • Phosphorus
  • Metals
  • Hydrocarbons

Physical indicators may include:

  • Temperature
  • Turbidity
  • Flow
  • Suspended solids
  • Sludge depth

Biological indicators may include:

  • Microbial populations
  • Community composition
  • Enzyme activity
  • Respiration
  • Biofilm development
  • Algal biomass

The strongest diagnosis combines all three categories.

36. Microbiome Diagnostics

Modern microbiome tools allow water systems to be studied in greater detail.

Potential approaches include:

  • Culture-based microbiology
  • qPCR
  • DNA sequencing
  • Metagenomics
  • Microscopy
  • Enzyme assays
  • Metabolomics

These tools can help answer:

Who is there?

What functions are present?

What pathways are active?

How is the system changing?

MicrobeBio’s long-term goal is to connect microbial diagnostics with operational decision-making.

37. Precision Water Biology

The future of biological water management is precision.

Instead of asking:

Which microorganisms should we add?

MicrobeBio asks:

Which biological function is missing, which environmental condition is limiting it, and what intervention is required?

The answer may involve:

  • Microbial consortia
  • Enzymes
  • Nutrients
  • Aeration
  • Carbon management
  • pH adjustment
  • Hydraulic changes
  • Biofilm management

This is a systems approach rather than a product-only approach.

38. Sensors and Automation

Water systems generate continuous data.

Sensors can measure:

  • Dissolved oxygen
  • pH
  • Temperature
  • Conductivity
  • Turbidity
  • Flow
  • Oxidation-reduction potential

These data can be integrated with microbial and chemical measurements.

The result is a more complete understanding of biological system performance.

39. Artificial Intelligence and Water Biology

Artificial intelligence may help analyze relationships among:

  • Chemistry
  • Microbiology
  • Flow
  • Temperature
  • Oxygen
  • Nutrients
  • Treatment history

Future MicrobeBio systems may use these datasets to support:

  • Dosing recommendations
  • Aeration optimization
  • Early detection of instability
  • Treatment timing
  • Sludge management
  • Nutrient control

The objective is to make biological treatment increasingly predictive.

40. A MicrobeBio® Water & Environmental Biology Model

MicrobeBio’s approach can be summarized in seven stages.

1. Characterize

Understand water chemistry, contaminants, flow, physical conditions, and treatment objectives.

2. Analyze the Biology

Evaluate the existing microbial community and biological activity.

3. Identify the Limitation

Determine whether performance is constrained by:

  • Oxygen
  • Nutrients
  • Microbial population
  • Organic load
  • pH
  • Salinity
  • Hydraulics

4. Design

Select appropriate microorganisms, enzymes, nutrients, or environmental adjustments.

5. Pilot

Test the biological program under controlled conditions.

6. Measure

Track biological, chemical, operational, environmental, and economic performance.

7. Optimize

Adjust the system using measured data.

This transforms biological treatment into a measurable engineering discipline.

41. Environmental Stewardship

Water connects communities, agriculture, industry, energy, mining, and ecosystems.

Improving water biology can therefore produce benefits beyond the treatment system itself.

Potential outcomes include:

  • Improved water quality
  • Reduced nutrient pollution
  • Lower organic load
  • Better water reuse
  • Reduced sludge
  • Improved environmental restoration
  • More efficient use of infrastructure

The broader objective is to work with natural microbial processes while maintaining appropriate engineering and environmental controls.

42. Connecting the MicrobeBio® Platforms

Water & Environmental Biology™ connects many MicrobeBio platforms.

Microbiome Science™
Characterizes microbial communities in water and sediments.

Fungal & Enzyme Science™
Supports organic matter transformation.

Soil & Root Biology™
Connects irrigation water to the rhizosphere.

Biological Nutrition™
Links water quality with nutrient availability.

Municipal Water Biotechnology™
Applies microbial ecology to treatment plants.

Oil & Gas Biotechnology™
Supports produced-water and hydrocarbon treatment.

Biomining & Bioleaching™
Connects mine water with mineral recovery.

Water Conservation™
Supports recovery and reuse.

Circular Bioeconomy™
Transforms wastewater from a disposal stream into a resource stream.

Together, these platforms create an integrated biological approach to water.

43. The MicrobeBio® Vision

Water management has traditionally focused on:

Chemistry + Hydraulics + Engineering

MicrobeBio believes another discipline must be considered equally:

Biology.

Microorganisms determine how organic matter is transformed.

They influence nutrient cycles.

They affect sulfur and metal chemistry.

They create and inhabit biofilms.

They participate in remediation.

They help determine whether a water system is stable or unstable.

The future of water management therefore lies in combining:

Chemistry + Biology + Engineering + Data

This represents a transition:

From treating water as a passive resource

to

Managing water as a living system.

Conclusion

Water is both a chemical and biological system.

Its quality is influenced by microorganisms, nutrients, minerals, organic matter, oxygen, sediments, plants, contaminants, and environmental conditions.

MicrobeBio® Water & Environmental Biology™ studies these interactions across irrigation water, aquaculture, wastewater, wetlands, produced water, mine water, groundwater, sediments, and contaminated environments.

By combining microbiome science, microbial ecology, enzyme technology, water chemistry, biological treatment, environmental engineering, sensors, and data-driven optimization, MicrobeBio seeks to build cleaner, more resilient, and more resource-efficient water systems.

The objective is not simply to remove contaminants.

It is to understand and manage the living processes that determine how water systems function.

Understand the Biology. Improve the Water. Restore the System.

About MicrobeBio®

MicrobeBio® is a biotechnology company developing integrated biological platforms based on microorganisms, fungi, microbial communities, enzymes, fermentation, biological metabolites, mineral interactions, plant biology, soil science, water science, and environmental biotechnology.

Through MicrobeBio Water & Environmental Biology™, the company studies and develops biological systems for irrigation water, aquaculture, municipal and industrial wastewater, wetlands, produced water, mine water, contaminated environments, water reuse, and ecosystem restoration.

Water & Environmental Biology connects directly with MicrobeBio’s broader work in Microbiome Science™, Soil & Root Biology™, Fungal & Enzyme Science™, Biological Nutrition™, Municipal Water Biotechnology™, Oil & Gas Biotechnology™, Biomining & Bioleaching™, Water Conservation™, and Circular Bioeconomy™.

MicrobeBio®

Biology Rising™

One Science. Twelve Platforms. Infinite Possibilities.