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Opportunities to Publish

If you have the ability, and are interested to publish your work in a peer reviewed journal, we can provide activated microbes for testing. Some deliberately varied possibilities:

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  1. Methane Suppression in Green Waste — Measure methane emissions from treated versus untreated organic waste.

  2. Odor Reduction in Green Waste — Quantitatively measure hydrogen sulfide, ammonia, VOCs, and odor intensity following treatment.

  3. Accelerated Compost Maturation — Compare decomposition and stabilization time against conventional composting.

  4. Nutrient Enrichment — Measure changes in nitrogen, phosphorus, potassium, organic matter, and micronutrients.

  5. Carbon Retention — Determine how much feedstock carbon remains in the finished soil product rather than being emitted.

  6. Soil Carbon Persistence — Study the stability and expected residence time of carbon after treated material is incorporated into soil.

  7. Fire Risk Reduction — Examine whether treatment reduces temperatures, spontaneous heating, or combustion risk in large organic waste piles.

  8. Water Conservation — Determine whether treated soil improves water holding capacity and reduces irrigation requirements.

  9. Desert Soil Rehabilitation — Test whether the resulting soil amendment can increase plant productivity in arid or severely degraded soils.

  10. PFAS Reduction — Conduct controlled trials measuring PFAS reduction in samples.

  11. E. Coli and Salmonella Elimination — We have a some helpful data collected on this already showing that E. Coli and Salmonella can be eliminated by regulatory treatment definitions.

  12. Soil Microbiome Development — Use DNA sequencing to examine changes in microbial diversity and biological activity.

  13. Plant Disease Resistance — Investigate whether treated soils affect incidence or severity of common soil borne plant pathogens.

  14. Land Reclamation — Test the material for restoring mine land, construction damaged soil, depleted farmland, or other disturbed landscapes.

  15. Forestry Residual Conversion — Study conversion of bark, sawdust, chips, and other lumber mill residuals into agricultural soil amendments.

  16. Lifecycle Carbon Analysis — Conduct a complete independent LCA comparing the process with conventional composting, landfilling, biomass burning, or other disposal pathways.

  17. Economics of Waste Transformation — Analyze the economic value created per ton through avoided disposal costs, soil products, increased throughput, carbon value, and other benefits. We have a lot of preliminary work, models, and data on this and would be happy to provide this.

  18. Food Production on Previously Marginal Land — A multidisciplinary study examining whether treated organic residuals, irrigation, and appropriate agronomy can economically transform marginal or arid land into productive agricultural acreage.

 

Disclaimers. We protect our technology with trade secrets. We will not disclose how we activate or prepare our bacteria, so prepare to be disappointed by that part! We are already used to other scholars saying, "how can that be possible?" so we're telling you now, it is a trade secret. It should be noted that we reserve the right to refuse to work with you if we believe that your funding presents a conflict of interest (for example, if your funding comes from a competitor or other organization that could be financially at risk because of our technology). 

Links to Our Own Work
 

Efficacy of MicroSnap Microbial Treatment for Rapid Reduction of Pathogens and Select PFAS in Municipal Biosolids: 

A Pilot Study

T. F. Moffitt


 

Abstract

MicroSnap, a proprietary microbial inoculant, was applied to municipal biosolids to accelerate digestion and reduce pathogens and PFAS (per- and polyfluoroalkyl substances). In a series of field trials at a Florida wastewater facility, treatment resulted in substantial reductions in fecal coliform, Salmonella, E. coli, and select PFAS compounds compared to untreated controls. Mean reductions exceeded 90% for key bacterial indicators within 7–10 days. Statistical analysis (paired t-tests and Wilcoxon signed-rank tests) confirmed highly significant improvements (p < 0.01 for most parameters). Some variability in later samples was attributed to facility cross-contamination during sampling. These findings support MicroSnap as a promising technology for safer, faster biosolids remediation.

For the full article, please click the link below. No part of this article may be used without the express permission of the author. 

https://docs.google.com/document/d/1sUSrmauiyjKxv-ca7s3lwJOtKCDR9WlvnQr3YAZzh9Y/edit?usp=sharing

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