bioecon Member area
Bio-solution · EQ01 · Bioprocess equipment

On-farm and regional biofactories (multiplication units, media, quality control) for microbial bio-inputs — Bacillus, Trichoderma, Beauveria, Bt, beneficial insects — instead of importing finished chemical pesticides and fertilizers

Replaces
Imported finished synthetic pesticides and part of mineral fertilizer programmes; also imported finished biologicals with long cold chains
→
Scope
Farm-level and cooperative multiplication units (liquid fermentation kits, solid-state trays/bags), regional biofactories, mass-rearing units for beneficial insects, and the quality-control lab that must come with them
D1 works, adoption not proven · Partial (works where quality control, strain supply and regulation are in place)

Suppliers 4

SolubioBrazilactive
Kayros Ambiental e Agrícola LTDABrazilactive
SuperbacBrazilactive
Biofuturo LimitadaChileactive

Route into Russia / EAEU EAC

Regulator
EAEU accredited bodies / Rosakkreditatsiya
Typical time
declaration registered within 3 working days (testing extra); certification longer
Legal basis
EAEU technical regulations (TR CU 010/2011, 004/2011, 020/2011); EEC Board Decision No. 41 (20.03.2018) on registering declarations

Information, not legal advice — confirm the procedure for your product.

Proof 16 claims

Old process
Imported or commercially purchased chemical pesticides and fertilizers.
→
New practice
On-farm production of microbial bio-inputs (e.g., Bacillus, Trichoderma, Beauveria) in biofactories for own use.
Displaced at scale?
partly
Caveats
While on-farm production is growing, it is often used alongside rather than as a complete replacement for chemical inputs, and there are significant concerns regarding quality control, contamination, and the lack of standardized aseptic practices in many on-farm facilities.
Hand review
D1 No figure for on-farm biofactories: the '85% of soybean area' found refers to inoculation (see A35); Brazil's biopesticides ~6% of the pesticide market (2023/24) is sector-level.
checked
2026-10-06
Biological nitrogen fixation using rhizobia has replaced synthetic nitrogen fertilizer (urea) on approximately 85% of the total soybean cropped area in Brazil as of the 2019–2020 season.
“In this same season, the soybean cropped area in Brazil using this technology reached around 85% of the total [30].”
Brazil · 2019–2020 crop season · majority share of a major market
peer-reviewed ✓
pmc.ncbi.nlm.nih.gov
On-farm production of bioinputs can reduce production costs by 58.6% compared to conventional management in soybean production.
“When comparing two harvests with conventional management with two other harvests in which bioinputs manufactured on the farm were applied, it was revealed that production costs were reduced by 58.6%.”
Brazil · not specified ·
peer-reviewed ✓
pmc.ncbi.nlm.nih.gov
Economic simulations for on-farm microorganism multiplication units in the 2022/2023 season showed savings of 27% to 73% compared to conventional management depending on farm size.
“The results demonstrate that the savings generated by choosing On-Farm biological control compared to conventional management were approximately 73% for 1,000 ha, 63% for 500 ha, 70% for 200 ha, and 27% for 50 ha, considering only soybean cultivation in the season of implementing the multiplication unit.”
Brazil · 2022/2023 season ·
peer-reviewed ✓
exa.ai
On-farm produced Bacillus thuringiensis at an aeration rate of 0.8 vvm showed insecticidal efficacy statistically similar to commercial products against Spodoptera frugiperda.
“The 0.8 vvm rate resulted in the greater production of spores and crystals, and statistically similar results to the commercial product for the control of S. frugiperda.”
Brazil · not specified ·
peer-reviewed
pmc.ncbi.nlm.nih.gov
Regulatory changes, specifically Decree no 6,913 of 2009 and subsequent updates, which exempted on-farm bioinput production for own use from registration, have been a primary driver for the increase in on-farm biofactories.
“As a result of this regulatory change, there has been a significant increase in the production of bioinputs of microbiological origin on farms [43].”
Brazil · 2009 onwards ·
peer-reviewed
pmc.ncbi.nlm.nih.gov
The total area treated with bioinputs in Brazil reached 194 million hectares in 2025.
“Área tratada total no país chega a 194 milhões de hectares”
Brazil · 2025 · large measured reduction of the old process
industry association ✓
croplifebrasil.org
Approximately 55% of agricultural producers in Brazil implement biocontrol techniques.
“Brazil is a global leader in adopting biocontrol techniques, with 55% of agricultural producers implementing them [5].”
Brazil · not specified · majority share of a major market
peer-reviewed ✓
pmc.ncbi.nlm.nih.gov
Approximately 61% of Brazilian farmers used products for biological control in 2024.
“In addition, approximately 61% of Brazilian farmers used products for biological control in 2024, making Brazil a global leader in the use of bio-inputs [10].”
Brazil · 2024 · majority share of a major market
peer-reviewed ✓
mdpi.com
In the 2019-2020 crop season, the soybean cropped area in Brazil using biological nitrogen fixation technology reached around 85% of the total.
“In this same season, the soybean cropped area in Brazil using this technology reached around 85% of the total [30].”
Brazil · 2019-2020 · large measured reduction of the old process
peer-reviewed ✓
pmc.ncbi.nlm.nih.gov
Replacing synthetic nitrogen fertilizer with biological nitrogen fixation in soybean crops generated savings of approximately USD 15.2 billion in the 2019–2020 crop season.
“It was estimated that replacing synthetic nitrogen fertilizer (urea) with biological nitrogen fixation generated a savings of approximately USD 15.2 billion in the 2019–2020 crop season.”
Brazil · 2019–2020 crop season · large measured reduction of the old process
peer-reviewed ✓
pmc.ncbi.nlm.nih.gov
Bionematicides and inoculants are the only categories where farmers reported using biological products as substitutes for chemical ones.
“Bionematicides, together with inoculants, were the only categories in which farmers reported using biological products as alternatives to chemical ones, particularly for preventive purposes, owing to their effectiveness in controlling juvenile and egg populations.”
Brazil · 2024 · minority but measured share or volume
peer-reviewed
mdpi.com
On-farm production of Bacillus thuringiensis at an aeration rate of 0.8 vvm resulted in insecticidal efficacy statistically similar to a commercial product.
“The LC50obtained with the 0.8 vvm rate was statistically similar to the commercial product based on theB. thuringiensissubsp.kurstakistrain HD-1 (Table 3).”
Brazil · not specified · not applicable
peer-reviewed
mdpi.com
Brazil's biopesticide market reached US$690 million in the 2023/24 season, accounting for approximately 6% of the total agricultural pesticide market in the country.
“Data from Blink Consultancy 3 indicate that Brazil’s biopesticide market reached US$690 million in the 2023/24 season, accounting for approximately 6% of the total agricultural pesticide market in the country.”
Brazil · 2023/24 season · minority but measured share or volume
peer-reviewed ✓
www.frontiersin.org
In India, biopesticides account for 4.2% of the country’s total pesticide market.
“In India, biopesticides account for just 4.2% of the country’s total pesticide market.”
India · 2023 · minority but measured share or volume
peer-reviewed ✓
www.mdpi.com
Biopesticides comprise a small share (~10%) of the total crop protection market globally.
“Despite growing global interest, biopesticide use is limited compared to synthetic pesticides, as they comprise a small share (~10%) of the total crop protection market globally, with a value of about US$3 billion worldwide.”
global · 2026 · minority but measured share or volume
peer-reviewed ✓
www.cabidigitallibrary.org
In India, the consumption of chemical pesticides significantly decreased from 56,114 MT to 43,584 MT between 2014–2015 and 2018–2019.
“Meanwhile during the same time period, the consumption of chemical pesticides significantly decreased from 56,114 MT to 43,584 MT [37].”
India · 2014–2015 to 2018–2019 · large measured reduction of the old process
peer-reviewed ✓
www.mdpi.com

Details

Replaces (partial): imported chemical pesticides/fertilizers and imported finished biologicals · Scope: farms, cooperatives, regional plants · Evidence: medium–high

The chemical problem#

  • Biological alternatives exist for many chemical uses (A-series, NU02), but finished products are often imported, expensive and short-lived, so farmers default to the chemical.
  • Live microbes and insects lose viability in long, hot supply chains.
  • Brazil showed another route: large farms and cooperatives multiply Bacillus, Trichoderma, Beauveria and other agents on the farm, at a fraction of the cost of finished products. A 2024 federal law regulates on-farm production for own use.

Product overview#

  1. Liquid fermentation kits — stainless or plastic bioreactors (hundreds to thousands of litres) with sterilizable media, aeration and temperature control, supplied with certified starter strains.
  2. Solid-state units — trays or bags of rice or other grain for fungal agents (Beauveria, Metarhizium, Trichoderma).
  3. Mass-rearing units — insectaries for predatory mites, Trichogramma and other beneficials.
  4. Quality-control lab — CFU counting, purity and identity checks (microscopy, plating, PCR) for every batch.
  5. Service model — the equipment supplier sells strains, media, training and QC as a package.

Active ingredient / Composition#

  • Certified strains from a registered supplier, culture media (molasses, yeast extract, salts), sterile water, air filters.
  • Output: liquid concentrate (Bacillus, often 10⁸–10⁹ CFU/mL) or conidia on solid substrate.

Key facts#

ParameterValue
ScaleBrazil: on-farm multiplication is widespread on large grain and cotton farms
CostMain driver: on-farm product at a fraction of finished-product cost
Main riskContamination (including human pathogens) and low or variable CFU if sterility and QC are weak
RegulationBrazil: federal bio-inputs law (2024) for on-farm production for own use; most other countries still require a registered product

Advantages#

  • Fresh, high-viability product exactly when the crop needs it; no cold chain.
  • Lower cost per hectare than finished imported products.
  • Builds local technical capacity (strains, fermentation, QC) — an import-substitution story.
  • Equipment, media and QC are a recurring business for suppliers.

Mode of action#

  • Same biology as the finished products (A04, A13, A21, A25, NU02): multiplication simply happens near the field.
  • Solid-state fermentation favours aerial conidia of entomopathogenic and antagonistic fungi; submerged fermentation suits bacteria.

Application#

SituationTargetMethod, timing and specifics
Large grain/cotton farmsBacillus, Trichoderma for seed and soilLiquid kits with certified strains; batch QC before every application
CooperativesShared productionRegional unit with a lab and an agronomist; members collect fresh product
Horticulture, orchardsBeneficial insectsMass-rearing unit or regional insectary (A24, A30)
Countries without on-farm rulesLegal complianceProduce through a registered regional biofactory instead

Limitations#

  • Quality is the whole game: unsupervised production can multiply contaminants instead of the target strain.
  • Illegal in many countries for products not registered (only own use, if at all).
  • Needs trained staff, clean water, power and a lab.
  • Strain theft and IP disputes when strains are copied from commercial products.

Evidence of displacement — D1: works, adoption not proven#

Assessment (hand-reviewed): No figure for on-farm biofactories: the ‘85% of soybean area’ found refers to inoculation (see A35); Brazil’s biopesticides ~6% of the pesticide market (2023/24) is sector-level.

Figures found (verified as quoted, but the assessment above explains why they do not count as displacement evidence for this substitution):

  • displacement — Biological nitrogen fixation using rhizobia has replaced synthetic nitrogen fertilizer (urea) on approximately 85% of the total soybean cropped area in Brazil as of the 2019–2020 season. (Brazil, 2019–2020 crop season; peer-reviewed: pmc.ncbi.nlm.nih.gov)
  • displacement — In the 2019-2020 crop season, the soybean cropped area in Brazil using biological nitrogen fixation technology reached around 85% of the total. (Brazil, 2019-2020; peer-reviewed: pmc.ncbi.nlm.nih.gov)
  • displacement — Brazil’s biopesticide market reached US$690 million in the 2023/24 season, accounting for approximately 6% of the total agricultural pesticide market in the country. (Brazil, 2023/24 season; peer-reviewed: frontiersin.org)
  • displacement — In India, biopesticides account for 4.2% of the country’s total pesticide market. (India, 2023; peer-reviewed: mdpi.com)

Suppliers — real products and services (from the vendor index)#

Active vendors whose own card shows biofactory equipment, media/strains for biofactories, or operating biofactories. The index holds few dedicated equipment makers; most are integrated platform or production companies.

CompanyRegion · CountryWhat the index showsCard
SolubioLatAm · Brazilon-farm bio-input production platform: biofactory equipment, microbial inputs, quality control, technical assistancecard
Kayros Ambiental e Agrícola LTDALatAm · Brazilnutrient broth and microorganisms supplied for biofactoriescard
SuperbacLatAm · Brazilindustrial biofactory; bioprocess development and scale-upcard
Biofuturo LimitadaLatAm · Chilebiofactory for beneficial insects; SAG-authorized laboratorycard

Government funding signals#

Scanned 2026-10-02 (OpenAIRE + NSF + USDA); candidates reviewed by hand.

Signal: Moderate. Production of biological pesticides is funded as applied work: Czech TA ČR TA01021452 and MZE QI111C039 (development and production of a new biological pesticide), Innovate UK 10075718 (plant-cell biomanufacturing platform for a biopesticide, £356 k) and ANR-25-CE20-2881. Brazil’s on-farm model was driven by farmers and the 2024 law rather than grants.

Scientific evidence#

  • Mascarin GM, Lopes RB, Delalibera Í, et al. (2019). Current status and perspectives of fungal entomopathogens used for microbial control of arthropod pests in Brazil. Journal of Invertebrate Pathology 165: 46–53.
  • Herrmann L, Lesueur D (2013). Challenges of formulation and quality of biofertilizers for successful inoculation. Applied Microbiology and Biotechnology 97: 8859–8873.
  • Santos MS, Nogueira MA, Hungria M (2019). Microbial inoculants: reviewing the past, discussing the present and previewing an outstanding future for the use of beneficial bacteria in agriculture. AMB Express 9: 205.
  • Jackson MA, Dunlap CA, Jaronski ST (2010). Ecological considerations in producing and formulating fungal entomopathogens for use in insect biocontrol. BioControl 55: 129–145.

Bioeconomy value#

The equipment, strains and QC that let a region make its own biologicals. This sells a capability rather than a product, and in an import-substitution market it is often an easier pitch than selling the finished biological.

First article of equipment (2026-10-02). Cross-links: A04, A13, A21, A24, A25, A30 (agents); NU02 inoculants; EQ02 fermentation equipment; DX01 diagnostics.

Technologies