Delivering nutrients to crops when they are most needed
CategoriesSustainable News

Delivering nutrients to crops when they are most needed

Delivering nutrients to crops when they are most needed

Spotted: Soil is a living ecosystem and soil health is vital for clean air and water, healthy crops and forests, productive grazing lands, diverse wildlife, and beautiful landscapes. However, the overuse of artificial fertilisers and pesticides can damage soil health and pollute waterways and land.

Lucent BioSciences has developed a fertiliser, called Soileos, that improves microbial biomass in the soil and enhances organic carbon levels. Soileos is made from cellulose left over from crop processing, such as pea and lentil hulls and rice husks. The startup’s scientists have developed technology to bind micronutrients to the cellulose. Natural biological activity in the soil then triggers the release of these micronutrients when they are most needed by the crop. This stands in contrast to other fertilisers which release micronutrients all in one go.

The company claims that the fertiliser is not only carbon-neutral, but climate-positive. Its manufacture uses less water and has a lower carbon footprint than conventional fertilisers. In addition, it improves microbial biomass in the soil and enhances carbon levels in the ground. This results in higher crop yields and improved soil nutrient density.

The company is currently working with food processing companies to upcycle their low-value cellulose fibres and is collaborating with several large fertiliser companies to develop custom fertiliser solutions. And, just a few days ago, Lucent Bio announced that its technology had received patent approval, a “milestone in the progression of commercializing Soileos”.

Soil health is vital for improving crop yields in a sustainable way. This knowledge has led to increased interest in financial support for regenerative agriculture and innovations in the Springwise archive such as pre and probiotics for improving soil health.

Written By: Lisa Magloff

Reference

Microbes turn harmful methane into soil nutrients
CategoriesSustainable News

Microbes turn harmful methane into soil nutrients

Microbes turn harmful methane into soil nutrients

Spotted: The move to get to net zero is often focused heavily on CO2, but methane, which has an 84-86 times higher global warming potential than CO2 in a 20-year period, is also rapidly accumulating in the Earth’s atmosphere. One reason for the increase in methane levels is that conventional agriculture practices have degraded soil health, causing a loss of naturally occurring, methane-digesting microbes.

A solution being developed by agritech startup Windfall Bio involves capturing methane and transforming it into living organic fertiliser. Windfall Bio uses a proprietary, nature-based technology to capture methane and use it to enrich methane-eating microbes that are found in soils. These organisms consume the methane, while also capturing nitrogen from the air, and transform these naturally into organic fertiliser.

Windfall Bio’s process takes place on-site, allowing agricultural enterprises such as farms and dairies to transform waste emissions into high-value organic fertiliser. This can either be used directly or sold to organic farms to generate new revenue streams.

The company recently announced it raised $9 million (around €8.3 million) in a seed round led by Mayfield and venture fund Untitled, with participation from additional investors. The capital raised will be used to begin pilot deployments on farms and to accelerate research and development (R&D) activities. Windfall Bio plans to enter broad commercial deployment soon.

There is growing concern about the role of methane in global warming. Luckily, this concern is beginning to be met with new innovations aimed at reducing methane levels. In the archive, Springwise has spotted the use of seaweed to tackle methane emissions from cattle and a plant that turns manure – a major source of methane – into biogas.

Written By: Lisa Magloff

Reference