Optimal farm management with soil, manure, compost, water, crop and forage testing to boost yields and sustainable profitability.
Accurate data on soil, crops, and feed, to enable better sourcing, traceability and sustainability decisions across the entire supply chain.
High-quality data on soil health, nutrients and crop performance to support smarter product development and targeted applications.
Detailed insights into soil quality and nutrient balance to help landscaping professionals and golf courses maintain healthy turf.
Reliable soil, crop and feed analyses with clear interpretation and practical advice to optimise yields, sustainability and profitability.
Supporting seed producers with science-driven solutions that enhance breeding, production, and quality assurance.
Verified data on soil health, crop performance and nutrient flows to support finance, carbon and sustainability platforms.
Insights into soil and forage quality to support optimal pasture management, balanced nutrition and equine health.
Precise analyses and clear insights to optimise crop production, improve sustainability and strengthen cooperative advisory services.
Data-driven insights into soil, crop and nutrient conditions to support smarter, more precise and sustainable agricultural machinery.
Reliable soil, crop and nutrient data to support policy development, sustainable land use, infrastructure planning and research.
NIRS, or Near-InfraRed Spectroscopy, is a spectroscopic method that uses the near-infrared region of the electromagnetic spectrum (from 800 - 2500 nm). Karl H. Norris developed this technique in the 1960s, in order to analyse agricultural products in particular.
Eurofins Agro uses NIRS for the analysis of forage, raw materials, soil and manure samples.
NIRS is a useful analytical technique due to the fact that different molecules absorb and reflect near-infrared light to different extents. When molecules absorb energy from near-infrared light, this energy is converted into kinetic energy. As a result, the atoms within the molecules move faster, bending, stretching or rotating alongside one another.
The more light that is absorbed by molecules, the less light that is left to be reflected. The near-infrared portion of the light spectrum is primarily absorbed by bonds between hydrogen, carbon, oxygen, nitrogen and sulfur. Such chemical elements are found in water and compounds such as fats, proteins and cell walls.
Minerals and trace elements, on the other hand, are not visible in a NIR-spectrum, because they do not have such bonds.
Curious about the difference between handheld and laboratory measurements?
In this flyer you can find the answers >
Want to know more about the background of NIRS?
This white paper provides insight >