Agriculture faces a defining challenge: producing more food, feed, fiber, and agricultural commodities while simultaneously improving resource efficiency, conserving water, rebuilding soils, reducing waste, and protecting agricultural ecosystems.

Meeting these objectives will require more than simply replacing one agricultural input with another. It requires improving the biological processes connecting plants, roots, microorganisms, nutrients, water, organic matter, and soil.

MicrobeBio® develops biological technologies around this principle.

PRODUCE MORE Improve biological productivity.

WASTE LESS Improve resource efficiency.

REGENERATE MORE Strengthen biological foundations.

 

The MicrobeBio® approach is organized around six interconnected objectives:

• Reduce Fertilizer Dependency — Improve nutrient-use efficiency.
• Conserve Water — Improve biological water productivity.
• Build Soil — Restore biological activity and organic matter.
• Increase Carbon — Strengthen root biomass and carbon cycling.
• Protect Ecosystems — Reduce nutrient losses and environmental pressure.
• Advance Circularity — Transform waste into biological resources.

Scientific research has established the importance of plant-associated and soil microorganisms in nutrient acquisition, root development, plant stress responses, organic-matter transformation, soil aggregation, and carbon cycling. Beneficial microorganisms therefore represent an important component of emerging strategies for more resource-efficient and biologically integrated agriculture. [1–8]

The opportunity is to translate biological principles into practical technologies capable of operating reliably and economically at agricultural scale.

1. THE AGRICULTURAL CHALLENGE

Modern agriculture has achieved extraordinary productivity. However, intensive production can require substantial quantities of fertilizer, irrigation water, energy, crop-protection products, and other external resources.

Not every nutrient applied to agricultural fields is ultimately captured by crops. Nitrogen, phosphorus, potassium, and micronutrients interact with complex physical, chemical, and biological processes within soil. Nutrients may become unavailable to plants or leave agricultural systems through leaching, runoff, volatilization, erosion, and other pathways.

Water presents another constraint. Agriculture accounts for a major share of global freshwater withdrawals, while drought, changing precipitation patterns, salinity, soil degradation, and competition for water resources increasingly affect production. At the same time, degradation of soil structure, loss of organic matter, erosion, and disruption of soil biological communities can reduce productive capacity and resilience.

How can agriculture increase biological productivity without proportionally increasing resource consumption and environmental pressure?

Biotechnology provides one potential pathway.

2. SOIL IS A LIVING SYSTEM

Soil is much more than a physical medium supporting plant roots. It is a complex biological ecosystem.

The narrow zone surrounding plant roots, known as the rhizosphere, contains intense interactions among plant roots, microorganisms, nutrients, minerals, organic compounds, and water. Plants release carbon-rich compounds through their roots, helping shape microbial communities surrounding the root system. Microorganisms, in return, can interact with soil minerals, nutrients, organic matter, and plant roots.

Research on plant growth-promoting microorganisms has identified mechanisms including:

• biological nitrogen fixation;
• phosphorus solubilization and mobilization;
• siderophore and phytohormone production;
• organic-matter transformation;
• micronutrient mobilization;
• stimulation of root development; and
• modulation of plant responses to environmental stress. [1–3]

These relationships create a biological interface between soil resources and plant productivity. MicrobeBio® technologies are designed to work within this interface.

 

 

3. THE MICROBEBIO® SYMBIOTIC CYCLE

The MicrobeBio® approach can be represented as a continuous biological cycle:

PLANT ROOTS release carbon-rich compounds

MICROORGANISMS interact with soil resources

STRONGER PLANTS return biomass to the system

 

Plant Roots → Microorganisms → Nutrients → Soil → Stronger Plants → Greater Root and Biomass Inputs → Renewed Biological Activity

Plants and microorganisms have evolved together over immense periods of time. Plant roots provide microorganisms with carbon compounds. Microorganisms interact with nutrients, minerals, organic matter, water, and roots. Plants use these biological and mineral resources to develop biomass. Additional plant material and root-derived carbon subsequently return to the soil system.

MicrobeBio® technologies are designed to support and strengthen selected processes within this naturally occurring biological cycle.

4. REDUCE FERTILIZER DEPENDENCY

Improve Nutrient-Use Efficiency

Fertilizer remains essential to modern agricultural productivity. The biological opportunity is not simply to eliminate fertilizer. It is to help plants and soils make more efficient use of available fertility.

Plant-associated microorganisms can participate in multiple nutrient processes. Certain microorganisms can fix atmospheric nitrogen, mobilize phosphorus, influence micronutrient availability, produce siderophores, transform organic nutrients, and stimulate root development. Research has therefore identified the rhizosphere microbiome as an important target for improving plant nutrition and nutrient-use efficiency. [1–3, 11–13]

Root development is equally important. A larger, deeper, or more extensively branched root system can explore a greater volume of soil and potentially increase access to water and nutrients.

Fertilizer → Soil → Microorganisms → Roots → Plant

MicrobeBio® views biological technologies as potential complements to properly designed fertility programs.

The objective: More agricultural productivity from each unit of nutrient available to the crop.

Reducing fertilizer dependency should result from demonstrated improvements in nutrient efficiency and crop performance—not simply from reducing fertilizer application without agronomic evidence.

5. CONSERVE WATER

Improve Biological Water Productivity

Microorganisms cannot create water. They can, however, influence the biological system through which plants interact with available water.

Beneficial microorganisms have been investigated for effects on root development, phytohormone signaling, osmotic adjustment, antioxidant responses, nutrient acquisition, extracellular polysaccharide production, soil aggregation, and plant responses to drought stress. [4,5]

A larger or deeper root system may allow plants to explore a greater soil volume for available moisture. Microbial activity can also influence soil aggregation and physical characteristics associated with infiltration and water retention.

Biological water productivity means improving the amount of plant productivity supported by the water available to the crop.

The objective is not simply to irrigate less. It is to create a more biologically efficient soil–root–water system. Actual irrigation requirements and potential reductions depend on crop, soil, climate, irrigation technology, rooting depth, rainfall, management, formulation, and environmental conditions, and therefore require crop- and site-specific validation.

6. BUILD SOIL

Restore Biological Activity and Organic Matter

Healthy agricultural soil contains a complex network of microorganisms, roots, organic matter, minerals, water, air, and nutrients.

Microorganisms participate in decomposition, nutrient mineralization, residue transformation, aggregate formation, and numerous biochemical processes influencing soil function. Plant roots contribute carbon compounds to the rhizosphere through root exudates. These compounds support microbial communities, which subsequently transform organic materials and interact with minerals and nutrients.

PLANTS feed microorganisms

MICROORGANISMS transform nutrients and residues

SOIL supports renewed plant growth

 

The result is a biological feedback loop: roots explore soil; plants produce biomass; biomass returns carbon and residues to soil; and biological cycling continues.

The long-term objective is to help strengthen the biological capacity of agricultural soil.

7. INCREASE ORGANIC MATTER

Turn Biological Productivity Into Soil Resources

Soil organic matter is fundamental to nutrient cycling, aggregate stability, biological activity, soil structure, and water relationships.

Organic matter originates substantially from biological materials, including roots, root exudates, crop residues, microbial biomass, manure and compost, cover crops, and other plant-derived materials. Microorganisms are among the primary biological agents responsible for transforming these materials.

Plant Productivity → Root Biomass → Crop Residues → Microbial Transformation → Soil Organic Matter Cycling

A productive crop can contribute to soil improvement when sufficient biomass and root-derived materials are returned to soil and appropriately managed. Increasing soil organic matter is generally a long-term process influenced by climate, soil texture, cropping system, tillage, residue management, biomass production, microbial decomposition, and other management factors.

8. INCREASE CARBON

Strengthen Root Biomass and Carbon Cycling

Plants provide one of agriculture’s fundamental pathways for transferring atmospheric carbon into biological systems. Through photosynthesis, plants capture carbon dioxide and convert it into plant biomass.

Some carbon moves belowground through root growth, root turnover, root exudation, crop residues, and microbial transformation of plant-derived material. Microorganisms then play a major role in determining what happens to that carbon: some is respired, some becomes microbial biomass, some enters soil organic-matter pools, and some may become associated with minerals or aggregates for longer periods.

Research into microbial approaches to soil carbon highlights both the importance of microorganisms and the complexity of predicting long-term carbon storage. [6,7]

Healthy Plants → Greater Root Development → Increased Rhizosphere Activity → Biological Carbon Inputs → Soil Carbon Cycling

The distinction between increasing biological carbon inputs and guaranteeing permanent carbon sequestration is important. Long-term sequestration requires appropriate measurement and verification.

9. PROTECT ECOSYSTEMS

Reduce Nutrient Losses and Environmental Pressure

Agricultural resources that are not efficiently utilized can move beyond the production system. Nitrogen and phosphorus losses can contribute to groundwater contamination, eutrophication, greenhouse-gas emissions, and other environmental impacts.

If biological technologies help crops access nutrients more effectively, support root development, and improve nutrient cycling, they may form part of broader strategies intended to improve agricultural resource efficiency.

Greater Biological Efficiency → Greater Resource Efficiency → Potentially Lower Environmental Pressure

Microbial technologies should be integrated with soil testing, fertility and irrigation management, integrated pest management, crop rotation, residue management, and other crop-specific agronomic practices.

 

 

10. ADVANCE CIRCULARITY

Transform Waste Into Biological Resources

Agriculture and food systems generate enormous quantities of biological materials, including crop residues, food-processing by-products, food waste, manure, plant biomass, organic industrial by-products, and other carbon- and nutrient-containing materials.

LINEAR Produce → Consume → Discard

CIRCULAR Produce → Recover → Transform

REGENERATIVE Return → Reuse → Regenerate

 

Microorganisms are central to transformation. Microbial communities perform many biochemical processes used in composting, fermentation, anaerobic digestion, residue decomposition, and nutrient recovery.

Research has demonstrated pathways for converting agricultural and food wastes into composts, digestates, biofertilizer materials, biochar-based amendments, and other products capable of returning nutrients and carbon to agricultural systems. [8–10]

What is currently treated as waste may, following appropriate processing, quality control, contaminant management, and biological transformation, become a resource for agricultural production and soil management.

11. FROM WASTE TO SOIL WEALTH

Circular agriculture becomes especially powerful when biological transformation is connected directly to soil restoration.

Farm & Food Waste → Collection and Separation → Biological Transformation → Stabilization and Quality Control → Nutrient and Carbon Recovery → Soil Application → Plant Production → New Biomass

This creates a potential closed-loop agricultural model. Instead of treating organic material exclusively as a disposal problem, biotechnology can help investigate how appropriate waste streams may become feedstocks for new biological resources.

From waste management to biological resource management.

12. FROM INDIVIDUAL MICROBES TO BIOLOGICAL SYSTEMS

The future of biological agriculture is unlikely to depend simply on adding increasing numbers of microorganisms to formulations. Microbial performance depends on ecological interactions.

Research demonstrates that inoculant performance can be affected by strain selection, formulation, viability, root chemistry, native microbial communities, soil properties, temperature, moisture, crop species, application timing, and establishment within the rhizosphere. [3,11,14,15]

The next generation of agricultural biotechnology should increasingly be designed around biological function, not simply organism count.

• nutrient acquisition;
• root development;
• organic-matter transformation;
• rhizosphere activity;
• plant stress resilience;
• soil biological activity;
• carbon cycling;
• biological crop support; and
• waste transformation.

The objective is to develop biological technologies capable of supporting multiple functions within the broader soil–plant ecosystem.

 

 

13. BIOTECHNOLOGY AT SCALE

Scientific discovery alone does not transform agriculture. Technology must function on farms. For biological agriculture to operate at commercial scale, multiple requirements must be addressed simultaneously.

Biological Efficacy	Selected microorganisms and biological technologies must perform their intended functions.
Formulation Stability	Biological components must maintain appropriate quality through manufacturing, storage, transportation, and application.
Manufacturing	Fermentation, downstream processing, formulation, packaging, quality control, and supply chains must be scalable.
Compatibility	Technologies should integrate effectively with existing agricultural equipment and management systems where appropriate.
Field Consistency	Products must be evaluated under relevant crops, soils, climates, and production environments.
Economics	Technologies must provide sufficient agronomic or operational value to justify adoption.
Measurement	Agronomic and environmental outcomes should be quantified through appropriately designed research and field trials.
Quality Control	Identity, purity, viability, stability, contamination control, and formulation specifications are fundamental.

The challenge is not simply biotechnology. It is Biotechnology at Scale.

14. THE MICROBEBIO® MODEL

MicrobeBio® is developing biological technologies designed around interconnected challenges within agricultural systems. The platform can be summarized through three principles.

PRODUCE MORE Nutrient acquisition, roots, vigor, resilience and productive potential.

WASTE LESS Efficiency and cycling of fertilizer, water, nutrients and residues.

REGENERATE MORE Soil biology, root biomass, organic matter, carbon inputs and circularity.

 

15. A NEW MEASURE OF AGRICULTURAL PRODUCTIVITY

Historically, agricultural performance has primarily been measured by yield per hectare or acre. Yield remains essential. However, future agricultural productivity will increasingly need to consider resource productivity as well.

• How much crop can be produced per unit of fertilizer?
• How much crop can be produced per unit of water?
• How effectively are nutrients retained and cycled?
• How much root biomass and plant-derived carbon are returned belowground?
• How effectively can organic materials be recovered and reused?
• How resilient is the soil–plant system under environmental stress?
• Can productivity increase without proportionally increasing resource consumption?

Produce more agricultural value from every unit of land, water, nutrients, carbon, and biological resources available to the farming system.

 

 

16. MEASURING BIOLOGICAL PERFORMANCE

Biological agriculture must ultimately be measurable. Depending on the technology and intended function, evaluation may include:

Plant Performance	Yield, biomass, crop quality and plant vigor.
Root Performance	Root mass, length, density and rooting depth.
Nutrient Efficiency	Tissue nutrient concentration, uptake and fertilizer-use efficiency.
Water Productivity	Irrigation volume, yield per unit of water and soil-moisture dynamics.
Soil Biology	Microbial biomass, microbial activity and selected biological indicators.
Soil Properties	Organic matter, aggregate stability, infiltration and nutrient availability.
Carbon	Root biomass, soil organic carbon, inputs and validated carbon indicators.
Circularity	Material and nutrient recovery, quality, safety and avoided disposal.

Measurement allows biological technology to move from concept to evidence.

17. THE PATH FORWARD

Agricultural biotechnology is entering a new stage. The first stage demonstrated that microorganisms can influence plant and soil processes. The next challenge is determining how biological technologies can be consistently formulated, manufactured, applied, measured, and integrated into commercial agricultural systems.

SCIENCE Microbiology, plant and soil science

DELIVERY Fermentation, formulation and manufacturing

VALIDATION Agronomy, data and field measurement

 

Progress requires collaboration across microbiology, agronomy, soil science, plant science, fermentation, formulation science, manufacturing, data science, environmental science, and farm management.

The future is not biology instead of agronomy. It is biology integrated with agronomy—and ultimately, biology integrated with agriculture at scale.

18. CONCLUSION

Agriculture does not necessarily have to choose between productivity and regeneration. The opportunity is to develop systems in which biological efficiency contributes to both.

Microorganisms already perform many processes upon which agricultural ecosystems depend: nutrient transformation, organic-matter decomposition, plant–root interactions, mineral mobilization, soil aggregation, biological cycling, and carbon transformation.

Modern biotechnology provides new tools to identify, select, formulate, manufacture, deliver, and evaluate these biological functions. MicrobeBio® is working to translate these principles into scalable agricultural technologies.

PRODUCE MORE.

Improve Biological and Resource Productivity

Support agricultural productivity by improving biological processes associated with nutrient availability, nutrient acquisition, root development, plant vigor, and productive potential. The objective is greater agricultural value from the land, nutrients, water, and biological resources available to the farming system.

WASTE LESS.

Improve Efficiency and Circularity

Improve the efficiency with which agriculture uses and cycles fertilizer, water, nutrients, organic materials, and other resources. More nutrients reaching crops, more water supporting productive growth, and more organic material returned to beneficial use can reduce waste and unnecessary environmental pressure.

REGENERATE MORE.

Strengthen Biological Foundations

Support root development, rhizosphere activity, organic-matter cycling, biological carbon inputs, nutrient recycling, soil function, and circular agricultural systems. Regeneration is not a single product application; it is a continuing process involving plants, roots, microorganisms, organic matter, water, minerals, nutrients, and management working together over time.

Science + Formulation + Manufacturing + Agronomy + Field Validation + Measurement + Scale

MicrobeBio® calls this approach Biotechnology at Scale: biological science translated into practical technologies intended to support productive, resource-efficient, and regenerative agricultural systems.

Produce More. Waste Less. Regenerate More. This is Biotechnology at Scale. This is the MicrobeBio® approach.

 

 

SCIENTIFIC REFERENCES

1. Backer, R., et al. (2018). Plant growth-promoting rhizobacteria: Context, mechanisms of action, and roadmap to commercialization of biostimulants for sustainable agriculture. Frontiers in Plant Science, 9, 1473. https://doi.org/10.3389/fpls.2018.01473
2. Basu, A., et al. (2021). Plant growth promoting rhizobacteria (PGPR) as green bioinoculants: Recent developments, constraints, and prospects. Sustainability, 13(3), 1140. https://doi.org/10.3390/su13031140
3. Vessey, J. K. (2003). Plant growth promoting rhizobacteria as biofertilizers. Plant and Soil, 255, 571–586. https://doi.org/10.1023/A:1026037216893
4. Nadeem, S. M., et al. (2014). The role of mycorrhizae and plant growth promoting rhizobacteria in improving crop productivity under stressful environments. Biotechnology Advances, 32(2), 429–448. https://doi.org/10.1016/j.biotechadv.2013.12.005
5. Vurukonda, S. S. K. P., et al. (2016). Enhancement of drought stress tolerance in crops by plant growth promoting rhizobacteria. Microbiological Research, 184, 13–24. https://doi.org/10.1016/j.micres.2015.12.003
6. Kuzyakov, Y., & Domanski, G. (2000). Carbon input by plants into the soil. Journal of Plant Nutrition and Soil Science, 163(4), 421–431. https://doi.org/10.1002/1522-2624(200008)163:4%3C421::AID-JPLN421%3E3.0.CO;2-R
7. Cotrufo, M. F., et al. (2013). The Microbial Efficiency-Matrix Stabilization framework integrates plant litter decomposition with soil organic matter stabilization. Global Change Biology, 19(4), 988–995. https://doi.org/10.1111/gcb.12113
8. FAO. (2017). Water for Sustainable Food and Agriculture: A Report Produced for the G20 Presidency of Germany. Food and Agriculture Organization of the United Nations.
9. United Nations Environment Programme. (2024). Food Waste Index Report 2024: Think Eat Save—Tracking Progress to Halve Global Food Waste. UNEP.
10. Bernal, M. P., Alburquerque, J. A., & Moral, R. (2009). Composting of animal manures and chemical criteria for compost maturity assessment: A review. Bioresource Technology, 100(22), 5444–5453. https://doi.org/10.1016/j.biortech.2008.11.027
11. Jacoby, R., et al. (2017). The role of soil microorganisms in plant mineral nutrition—Current knowledge and future directions. Frontiers in Plant Science, 8, 1617. https://doi.org/10.3389/fpls.2017.01617
12. Richardson, A. E., et al. (2009). Acquisition of phosphorus and nitrogen in the rhizosphere and plant growth promotion by microorganisms. Plant and Soil, 321, 305–339. https://doi.org/10.1007/s11104-009-9895-2
13. Lugtenberg, B., & Kamilova, F. (2009). Plant-growth-promoting rhizobacteria. Annual Review of Microbiology, 63, 541–556. https://doi.org/10.1146/annurev.micro.62.081307.162918
14. Trivedi, P., et al. (2020). Plant–microbiome interactions: From community assembly to plant health. Nature Reviews Microbiology, 18, 607–621. https://doi.org/10.1038/s41579-020-0412-1
15. Toju, H., et al. (2018). Core microbiomes for sustainable agroecosystems. Nature Plants, 4, 247–257. https://doi.org/10.1038/s41477-018-0139-4
16. Bender, S. F., Wagg, C., & van der Heijden, M. G. A. (2016). An underground revolution: Biodiversity and soil ecological engineering for agricultural sustainability. Trends in Ecology & Evolution, 31(6), 440–452. https://doi.org/10.1016/j.tree.2016.02.016
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SCIENTIFIC AND CLAIMS DISCLOSURE

This white paper describes scientific principles, research findings, and potential applications of biological technologies in agriculture. References to nutrient-use efficiency, water productivity, soil biological activity, root development, organic-matter transformation, carbon cycling, environmental protection, waste valorization, fertilizer optimization, or crop productivity should not be interpreted as guarantees of specific results from any individual MicrobeBio® product.

Scientific literature cited in this paper provides evidence concerning microorganisms, microbial mechanisms, soil processes, plant–microbe interactions, and biological agricultural technologies generally. Unless specifically identified as a MicrobeBio® field trial, the cited studies were not conducted using MicrobeBio® commercial products and should not be represented as direct evidence of product-specific efficacy.

Product performance may vary according to crop, cultivar, soil characteristics, native microbial communities, climate, weather, irrigation practices, fertility program, application timing, application method, product handling, storage conditions, compatibility with other agricultural inputs, and other agronomic or environmental factors.

Statements such as “Reduce Fertilizer Dependency,” “Conserve Water,” “Build Soil,” “Increase Carbon,” “Protect Ecosystems,” “Advance Circularity,” “Produce More,” “Waste Less,” and “Regenerate More” describe technology objectives, scientific rationales, or intended directions. They are not guarantees of a particular percentage reduction, yield increase, carbon accumulation, irrigation reduction, fertilizer reduction, environmental outcome, or economic return unless the specific result is supported by appropriate product-specific evidence.

References to improving nutrient-use efficiency do not mean fertilizer requirements can automatically be reduced. Fertility programs should be based on crop requirements, soil and tissue analysis where appropriate, local agronomic recommendations, and validated field performance.

References to water conservation or biological water productivity do not mean MicrobeBio® technologies create water or guarantee a particular reduction in irrigation. Irrigation requirements depend on crop demand, soil characteristics, climate, rainfall, evapotranspiration, irrigation technology, rooting depth, and management.

References to soil carbon, carbon cycling, increased carbon inputs, or root-derived carbon should not be interpreted as guarantees of permanent carbon sequestration, carbon-credit generation, greenhouse-gas reductions, or specified increases in soil organic carbon. Long-term carbon storage requires appropriate measurement, verification, and recognized accounting methodologies where such claims are made.

References to building soil or increasing organic matter describe biological processes and management objectives. Changes in soil organic matter generally occur over time and depend on soil, climate, cropping system, biomass production, tillage, residue management, and other factors.

References to protecting ecosystems or reducing environmental pressure describe potential benefits associated with improved resource efficiency and do not guarantee prevention of nutrient runoff, leaching, emissions, contamination, eutrophication, or other environmental impacts.

References to circularity or transforming waste into biological resources assume appropriate feedstock characterization, processing, contaminant management, quality control, testing, and regulatory compliance. Biological treatment alone does not establish that a waste-derived material is safe or legally suitable for agricultural use.

Discussion of microorganisms or biological mechanisms does not imply that every MicrobeBio® product contains every microorganism, strain, metabolite, or function described. Individual product composition, guaranteed analysis, directions for use, and permitted claims are determined by applicable product specifications and labeling.

MicrobeBio® technologies are intended to complement sound agronomic management and should be used according to applicable product labeling and regulatory requirements. Nothing in this paper represents that a product is approved, registered, certified, or authorized for a particular crop, pest, disease, environmental claim, jurisdiction, or use unless such authorization has specifically been obtained.

MicrobeBio® field trials, demonstrations, observations, and commercial experiences, when separately referenced, represent results obtained under the particular conditions of those evaluations. Individual results should not be assumed to represent performance across all crops, soils, climates, management systems, locations, or growing seasons.

Established Scientific Knowledge → Biological Mechanisms → Technology Objectives → Product-Specific Evidence → Validated Field Outcomes

As MicrobeBio® technologies continue to be evaluated, product-specific claims should be based on evidence generated for the relevant formulation, crop, application program, geography, production environment, and regulatory jurisdiction.

IMPORTANT NOTICE

This publication is provided for scientific, technical, educational, and informational purposes. It does not constitute a guarantee of agronomic, environmental, regulatory, financial, or commercial performance.

Growers and agricultural professionals should make management decisions based on local growing conditions, crop requirements, soil and plant analysis where appropriate, applicable product labeling, qualified agronomic guidance, and relevant regulatory requirements.

Scientific references cited in this publication remain the intellectual property of their respective authors and publishers.

 

MICROBEBIO® — Biological Technologies for Productive, Resource-Efficient and Regenerative Agriculture

Produce More. Waste Less. Regenerate More.

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