University of Canterbury: Novel Biofertilizer Technology Seeking Investment, Commercial Partners and Trial partners

Opportunity for

• Commercial partners and investors interested in sustainable agricultural inputs
• Agribusinesses, distributors, or input manufacturers exploring biological product lines
• Producers or trial site hosts in dairy, horticulture, broadacre, or dryland farming willing to participate in field demonstrations
• Research organisations interested in collaborative field validation

Industry challenge

Global agriculture is under increasing pressure to produce more with less. Synthetic fertilisers like urea, a cornerstone of modern farming, are energy-intensive to produce, reliant on finite resources like methane gas, and often need to be imported at significant cost. 

At the same time, producers across Australia and New Zealand are contending with rising water scarcity, tightening environmental regulations, and growing demand for more sustainable farming systems. Irrigation costs continue to climb, and in many regions, water availability is becoming a limiting factor for productivity. Meanwhile, a large proportion of the phosphorus applied to soils becomes chemically fixed and unavailable to plants, meaning producers are paying for nutrients their crops can't actually access. 

There is a clear and growing need for input solutions that can reduce reliance on synthetic fertilisers and irrigation, improve nutrient availability, and support healthier soils, all without compromising yield or adding complexity at the farm gate.

Current opportunity

A novel biofertilizer technology has been developed that harnesses naturally occurring mycorrhizal fungi and rhizobacteria to deliver nutrients and moisture directly to plants. Early-stage pot trials have demonstrated the potential to reduce irrigation requirements by 40–50% and synthetic nitrogen (urea) use by 60–70%, while also unlocking phosphorus already present but fixed in soils. 

The product is organic in nature, made from locally sourced bio-waste, and is customised to local soil conditions based on key soil properties. The technology is now seeking partners to support the next phase of commercialisation, specifically, investment to fund field trials and demonstrations across dairy, horticulture, and broadacre systems, as well as commercial partners or distributors interested in bringing a new biological input to market.

 A licensing model is envisioned, where the patented formulation is licensed to manufacturers or distributors for local production and sale. The right partnership could unlock early market entry in a rapidly growing biologicals sector with strong global tailwinds.

Opportunity background

This technology has been developed over more than two decades of research in soil science, environmental science, and plant-soil-microbe interactions, led by a team based at the University of Canterbury with deep expertise in biochar, compost systems, and soil remediation. 

The lead researcher holds a PhD from Lincoln University, has published over 40 peer-reviewed papers, including in Australia's Crop and Pasture Science Journal, and has supervised numerous postgraduate students in this field. The team brings additional applied experience from environmental consultancy work with organisations including Fonterra and several New Zealand district councils on biosolids and soil contaminant management.

Potential other applications

While the immediate focus is on broadacre, dairy, and horticultural cropping systems, this biofertilizer technology has potential applications across a range of sectors and geographies. Its ability to improve water retention and nutrient cycling in soils makes it particularly relevant for dryland and arid-climate agriculture, a growing challenge across much of inland Australia, the Middle East, sub-Saharan Africa, and South Asia. The organic composition of the product also positions it well for organic and regenerative farming systems, where demand for non-synthetic inputs is accelerating. 

Beyond traditional agriculture, the underlying science around microbial soil enhancement could be adapted for use in land rehabilitation, mine-site remediation, urban greening, and amenity turf management, where improved soil health and reduced water use are equally valued. As global regulatory and market pressure continues to shift away from synthetic inputs and toward biological alternatives, this technology sits at the intersection of several converging trends with significant long-term commercial potential