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INNOVATING BIOLOGY

EVerse Biotechnology:
reprogramming agriculture with Bacterial Extracellular Vesicles

What we do:
 
EVerse Biotechnology is an ag-tech startup pioneering the use of extracellular vesicles (EVs) in agriculture, unlocking a new generation of precision biological solutions with applications across biotechnology and human health.

THE PROBLEM WITH CONVENTIONAL AGRICULTURE

Current Challenges

Crop plant protected from pests

​Increasing resistance to chemical pesticides
→ Reduced efficacy against key pests (e.g., soybean pests).

Environmental impact
→ Soil degradation, water contamination, biodiversity loss.

Polluted river with dead fish, dry soil, green tree, and birds flying in the background
Globe with a padlock, ‘Bans’ documents, and a no-insects symbol

Regulatory pressure
→ Restrictions on agrochemicals worldwide.

Bee, fish, and crustaceans in a polluted aquatic environment with suspended particles

Non-specific toxicity
→ Harm to beneficial organisms (pollinators, microbiota).

Farmer concerned about rising agricultural costs

Rising costs for farmers
→ More applications needed for the same effect.

Figures are for illustrative purposes only

Our Vision

 To replace conventional agrochemicals through extracellular vesicle-based technologies, enabling precise, sustainable, and biologically derived agricultural solutions.

Technology

Bacterial extracellular vesicles as a delivery platform

Bacterial extracellular vesicles (bEVs) are nano-sized particles naturally released by bacteria.

These vesicles act as highly efficient delivery systems, transporting proteins, metabolites, lipids, and nucleic acids.

At EVerse, we engineer and harness bEVs as programmable biological carriers that deliver functional molecules directly to plants, insects, and microbial pathogens.

Key Features:

  • Natural and biocompatible nano-carriers;

  • Protection and stabilization of sensitive cargo;

  • Efficient delivery across biological barriers;

  • Scalable production through microbial fermentation;

  • Reduced environmental impact compared to chemical inputs.

TEM bEVs

Transmission electron microscopy (TEM) image of a bacterial cell and associated extracellular vesicles (EVs). The image illustrates the release of bEVs into the extracellular environment, highlighting their natural production and potential role as biological delivery systems. Image acquired by Getulio Oliveira, PhD (EVerse Biotechnology), unpublished data.

Why bEVs Outperform Whole Bacterial Cells as biologicals

Comparison whole bacterial cells vs bEVs

Use of bacteria as biological control in agriculture
Use of bEVs in agriculture highlighting advantages

 Whole Bacterial Cells (Conventional biologicals)

  • Living organisms → unpredictable behavior in the field

  • Depend on survival, colonization, and environmental conditions

  • Delayed mode of action (require growth and metabolite production)

  • Risk of ecological imbalance and horizontal gene transfer

  • More complex and slower regulatory approval pathways

bEVs (EVerse Technology)

  • Cell-free system → highly controlled and reproducible, do not require survival or colonization

  • Pre-loaded with defined bioactive cargo (proteins, metabolites, RNA)

  • Non-replicative → improved biosafety profile

  • More stable and easier to formulate and store

  • Potentially simplified regulatory pathway

Figures are for illustrative purposes only

Applications

Precision agriculture solutions

  • Insect pest control

  • Delivery of bioactive molecules

  • RNA & Gene editing delivery

  • Plant growth promotion

Ongoing Projects

Advancing bacterial extracellular vesicle technologies for next-generation agricultural solutions

  • Bacterial extracellular vesicles (bEV)-based control of soybean pest (Euschistus heros)

Development of bacterial extracellular vesicle (bEV)-based bioinsecticides targeting the neotropical brown stink bug, a major pest impacting soybean production in Latin America.

              🟢 Patent pending

  • bEVs for Lepidopteran pest control​

Exploration of bEV-mediated delivery of insecticidal molecules targeting key Lepidopteran pests affecting major crops.

              🟡 Early-stage development

  • bEV-based strategies for Dipteran pest control

Development of bEV-based platforms targeting Dipteran species, including agricultural and human-relevant insect pests.

              🟡 Early-stage development

  • bEV-mediated delivery of ssDNA against Xanthomonas spp.

Engineering bacterial extracellular vesicles for the delivery of single-stranded DNA (ssDNA) to control Xanthomonas spp., a major bacterial pathogen affecting tomato and other crops.

              🟡 Early-stage development

Survival analysis of Euschistus heros following treatment with bEV. bEV-treated insects show reduced survival compared to control, supporting the potential of bEVs as effective bioinsecticidal agents. Representative data generated by Getulio Oliveira (unpublished; included in ongoing patent filings and manuscript preparation)

Survival analysis of Euschistus heros following treatment with bEV. bEV-treated insects show reduced survival compared to control, supporting the potential of bEVs as effective bioinsecticidal agents. Representative data generated by Getulio Oliveira (unpublished; included in ongoing patent filings and manuscript preparation).

survival1_edited.jpg

Why Invest in EVerse Technology

Pioneering a new class of bioinputs powered by extracellular vesicles.

  • Explosive growth of the biologicals market

  • Brazil: a global agricultural powerhouse

  • Favorable and evolving regulatory framework

 

  • The next frontier: extracellular vesicle-based biologicals

TEAM

Founder and CEO

Getulio Oliveira, PhD, is the Founder and CEO of EVerse, a biotechnology company focused on developing extracellular vesicle-based solutions for agriculture and human health.

Dr. Oliveira has over 15 years of experience in extracellular vesicle research, with expertise spanning molecular biology, proteomics, nanotechnology, and advanced vesicle characterization.

He completed his postdoctoral training at Beth Israel Deaconess Medical Center, Harvard Medical School, where he worked on cutting-edge EV technologies.

He has collaborated with leading institutions, including Harvard Medical School, Massachusetts General Hospital, Northeastern University, and industry partners in biotechnology, contributing to the development of innovative EV-based platforms.

He is currently developing his research at the Universidade Católica de Brasília, Brazil, focusing on translating extracellular vesicle science into scalable and impactful biotechnological applications.

His work bridges fundamental science and translational applications, with a focus on scalable and impactful biotechnologies.

Profiles & Publications

EVERSE BIOTECHNOLOGY LTDA logo with a galaxy circle
GOLab (Getúlio Oliveira Extracellular Vesicles Research Group) logo

Partners and collaborators 

Universidade Católica de Brasília logo
Universidade de Brasília - Logo
Harvard Medical School Logo
Beth Israel Lahey Health Beth Israel Deaconess Medical Center Logo
Northeastern University Logo

CONTACT

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Interested in partnerships, collaborations, or investment opportunities?

Connect with us to explore how we can accelerate the development and commercialization of extracellular vesicle-based solutions together.

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