If you are a software provider dealing with data gaps in cloudy tropical regions — this project developed a multi-sensor diagnostic tool that integrates SAR and optical data. This allows for continuous crop monitoring throughout the growing season, reducing the reliance on clear skies.
All-Weather Satellite Monitoring Tool for Precision Crop Management and Input Reduction
Imagine trying to take a photo of your garden, but it's always cloudy. Most satellites can't see through clouds, but this tool combines regular photos with radar that 'sees' through the weather. It's like giving a farmer X-ray vision to know exactly when their crops need water or fertilizer, regardless of the storm outside.
What needed solving
Farmers in cloudy tropical regions cannot use standard satellite monitoring because clouds block the view. This leads to the excessive use of fertilizers and water, increasing costs and environmental damage.
What was built
A diagnostic tool and algorithms that merge optical, infrared, and radar (SAR) data to monitor crop health regardless of cloud cover.
Who needs this
Who can put this to work
If you are a plantation manager dealing with high fertilizer costs — this project developed a monitoring method that reduced nitrogen use from 165 to 139 kg/ha in Colombia. This helps match inputs to actual crop needs, lowering the environmental footprint.
If you are a verification firm dealing with the difficulty of monitoring degraded land in the tropics — this project developed a physically based tool to monitor crop phenology and health. This ensures reliable time series data even in cloud-prone areas.
Quick answers
How much does the tool cost to implement?
Based on available project data, specific pricing or implementation costs are not provided.
Can this be scaled to other crops beyond sugarcane?
Yes, the project plans to transfer the use case to maize, sunflower, sugar beet, potato, and wheat in Ukraine.
Who owns the intellectual property and licensing?
Based on available project data, the IP and licensing terms are not specified.
How does it integrate with existing satellite systems?
The tool integrates multi-sensor Copernicus data, specifically combining SAR (Sentinel-1) and optical (Sentinel-2) signals early in the processing chain.
What is the timeline for the final results?
The project period runs from 2024-01-01 to 2026-12-31.
Who built it
The consortium is heavily industry-driven with an 86% industry ratio, consisting of 6 industrial partners and 1 university. With 5 SMEs involved across 4 countries (NL, CO, ES, FR), the project is structured for commercial application rather than pure academic research, led by an SME coordinator (ELEAF BV).
Contact ELEAF BV in the Netherlands
Talk to the team behind this work.
Contact us to explore licensing for multi-sensor crop monitoring algorithms.