We combine
nature and science
to fight indoor
air pollution

Microbiome Engineering

Using directed evolution, we selected and trained bacterial strains to become highly efficient at breaking down volatile organic compounds (VOCs). By gradually increasing their exposure to pollutants, we enhanced their ability to metabolize harmful compounds like formaldehyde and BTEX.

We worked on two specific bacterial strains to create a microbiome that excels at air purification:

  • Engineering strain 1

    Pseudomonas putida

  • Iteration and development

    1.5 years

  • Targeted pollutants

    Benzene, toluene, and xylene

  • Engineering strain 2

    Methylobacterium extorquens

  • Iteration and development

    3 years

  • Targeted pollutants

    Formaldehyde

Learn moreOpens in a new tab.

Performance Testing

We rigorously analyze the air purification capability of our bioengineered microbiome through multiple levels of testing, progressively increasing in complexity:

  • (1) Molecular testing

    Initial screening of bacterial strains in petri dishes, exposing them to VOCs to identify the most effective pollutant-eaters.

  • (2) 2L chamber testing

    Introducing the best strains into soil and measuring how they remove gaseous pollutants in a controlled chamber environment.

  • (3) 30L chamber testing

    Scaling up to a larger chamber, with continuous pollutant flow to assess the strains' performance under constant exposure.

  • (4) Bedroom-size testing

    Final large-scale test in a 160 sq ft room (1400 cu ft), comparing air quality improvements between a control room and one containing Neoplants enhanced with their microbiome.

See our detailed resultsOpens in a new tab.

Scientists

microbiomes in the lab
microbiomes in the lab

Plant Metabolism Engineering

We see nature as the key to a greener future. Our mission is to drive positive change by placing it at the center of innovation and shifting toward nature tech over machines.


To achieve this, we are advancing projects beyond microbiome engineering. Optimizing plant metabolism is our next step, to enhance their ability to convert harmful indoor pollutants into harmless substances.


We’re currently focusing on gene modification techniques to fine-tune metabolic pathways, ensuring effective responses while maintaining plant health.