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Regenysis

Feed the Soil ‒ Feed the Planet

Our Planet and People Mission

We aim to replace chemical and manure fertilizers by transforming raw manure into a nitrogen-rich plant protein alternative that restores the soil microbiome to its natural state.

Maximum Impact & Maximum Food

When measured by near-term emissions and a reduced capacity to feed a growing population, the harm caused by chemical and manure fertilizers is unmatched. We replace them with a dual-action nitrogen alternative that feeds plants and the nutrient-recycling microbes that do it naturally.

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Manure and Chemical Emissions and Their Devastating Soil Impacts

Chemical. Ammonia-based fertilizers generate more emissions per ton than burning coal—a dubious distinction—and cause severe damage to the natural soil microbiome.

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Soil microbe impacts include:

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  • Nitrogen-Fixing Bacteria. Reduces the dominant diazotrophic genera by up to 46.8% compared to unfertilized soils.

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  • Arbuscular Mycorrhizal Fungi. Moderate degradation of agricultural and grassland soils decreases AMF diversity and abundance by 36.5%. Reduces the abundance of beneficial fungal genera that interact with AMF networks by up to 95%.

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  • Broad Organic Matter Degraders. Reduces the relative abundance by 70%.

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Manure. Lifecycle emissions per unit of nitrogen rival chemical fertilizers, but they risk introducing antibiotics, heavy metals, and human foodborne pathogens like Salmonella into the soil and shocking the soil ecosystem, causing rapid and unbalanced microbial shifts:

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  • Nitrogen-Fixers: Suppressed, as they consume the readily available nitrogen instead of fixing it from the atmosphere.

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  • Beneficial PGPRs: Disrupted and outcompeted in the root zone by fast-growing, opportunistic microbes.

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  • Nitrifiers & Denitrifiers: Highly stimulated, accelerating nitrogen cycling and causing localized spikes in N2O emissions.

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Microbial Biofertilizer Emissions and Their Regenerative Soil Impacts

​Microbial Biofertilizers. Lifecycle emissions of nitrogen-fixing microbes are up to 96% lower than ammonia-based fertilizers.

Needless to say, they radically enhance the microbiome. 

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Regenysis Plant Protein Biofertilizer. Lifecycle emissions are net-negative: The 1.5 ton CO₂e emitted during production is more than offset by the 61.7 ton CO₂e of methane (biomethane) sequestered during manufacturing.

 

Equally important, it heals and feeds the microbiome. 

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  • Native Microbes: Grow faster and diversify by directly absorbing energy-efficient amino acids instead of expending energy on chemical conversion.

  • Nitrifiers: Suppressed by the slow, natural breakdown of organic nitrogen, preventing N₂O emission spikes.

  • Fungal Networks: Re-established to retain moisture, bypassing the chemical signals that normally suppress symbiotic relationships.

  • Carbon Mining: Halted, as the coupled delivery of carbon and nitrogen satisfies microbial diets without depleting existing soil organic matter.

  • Pathogens: Eliminated by replacing raw manure with sterile plant proteins, removing enteric contaminants and competition.

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Available in Denmark in June 2027 for select partners.

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