If you are a carbon offset provider dealing with the high cost of verifying soil carbon, this project developed a SaaS solution that is up to 90% lower in cost than established services. This allows you to certify more projects with less manual labor.
Satellite-Based AI Software for Measuring Soil Carbon Sequestration and Carbon Credits
Imagine if you could tell how healthy the soil is and how much carbon it's trapping without having to dig thousands of holes and send dirt to a lab. This tech uses satellite photos and a massive library of existing soil data to guess the carbon levels from space. It's like using a high-tech scanner instead of doing a manual biopsy for every inch of a field.
What needed solving
Traditional soil carbon monitoring is too slow and expensive, acting as a bottleneck for the growth of the voluntary carbon market and regenerative farming.
What was built
A satellite-based SaaS platform and a predictor data access pipeline that uses machine learning to quantify soil organic carbon.
Who needs this
Who can put this to work
If you are a farming consultant dealing with slow and expensive soil testing for clients, this project developed a machine learning tool that is up to 30% more accurate than current comparable approaches. You can now provide faster, data-driven proof of soil health improvements.
If you are an NCS developer dealing with monitoring, reporting, and verification (MRV) as a limiting factor for new projects, this project developed a satellite-based monitoring tool. It removes the bottleneck of manual sampling to accelerate project deployment.
Quick answers
How does this affect the cost of soil monitoring?
The solution is designed to be low cost, offering a reduction of up to 90% compared to established services.
Can this be used for large-scale land management?
Yes, the project focuses on cost-effective monitoring, reporting, and verification of soil organic carbon sequestration at scale using satellite-based remote sensing.
What is the intellectual property or licensing model?
Based on available project data, the solution is delivered as a SaaS (Software as a Service) model.
How accurate is the AI compared to traditional methods?
The objective states it is up to 30% more accurate than current comparable approaches and aims to achieve similar accuracy and uncertainty as traditional soil sampling.
What data is used to train the system?
The system uses a database of millions of soil data records combined with satellite data, topography, weather, and climate data.
Who built it
The project is led by a single German SME, SEQANA GmbH, which received an EU contribution of EUR 2,410,174. The 100% industry ratio indicates a strong commercial drive, focusing on a SaaS product rather than academic research.
Contact SEQANA GmbH in Germany for SaaS licensing
Talk to the team behind this work.
Request a demo of the satellite-based SOC monitoring tool