Biotrons: advanced research for new cultivation systems
Biotrons represent one of the most advanced infrastructures dedicated to plant research: a next-generation experimental laboratory for developing innovative, sustainable and efficient cultivation systems. At the core of the facility are six climate-controlled chambers, each covering 24 square metres, where temperature, humidity, carbon dioxide concentration and ventilation conditions can be replicated and monitored. Adjustable LED lighting adapts to the specific needs of different crops, while a closed-loop fertigation system enables the use of tailored nutrient solutions and the recovery of drainage water, which is sanitised, corrected and reintroduced into the production cycle. A consumption monitoring system allows detailed analysis of the energy impact of each component and supports the development of increasingly effective optimisation strategies. The laboratory makes it possible to simulate complex and dynamic environmental scenarios, helping researchers study crop responses to climate change and develop innovative and efficient cultivation systems.
The new semi-anechoic chamber and upgraded test track for agricultural vehicles
Modern agricultural tractors and technologically advanced vehicles are increasingly exposed to interference from external electromagnetic fields, which can cause malfunctions. The new semi-anechoic chamber is therefore a key tool for assessing risks associated with such interference.
Measurements focus on the resistance of electrical and electronic systems in agricultural machinery or individual components to artificially generated electromagnetic fields within a standardised testing environment. At the same time, sensors can measure the level of electromagnetic radiation emitted by the vehicles.
Alongside the chamber, the test track of the Agricultural Mechanics Laboratory has undergone major refurbishment, including resurfacing to meet the needs of modern agricultural vehicles and autonomous systems. A new area has also been added for testing tractors and autonomous vehicles, assessing their ability to operate independently within assigned working areas, as well as to detect and avoid unexpected obstacles, ensuring the safety of operators and the surrounding environment. The results will support the development of standardised testing procedures for evaluating the safety performance of autonomous tractors.
A “Living Lab” to improve fruit and vegetable preservation
Within the Agritech project, Living Labs represent the core of innovation and technology transfer to businesses. The Cadriano Living Lab focuses on improving the preservation of fruit and vegetables while maintaining their organoleptic qualities, a key factor in ensuring high nutritional standards for consumers.
In traditional cold storage systems, oxygen levels are reduced and carbon dioxide levels increased to extend shelf life. However, these static conditions throughout storage can alter the metabolism of fruit, encouraging the onset of diseases. The dynamic controlled atmosphere technologies used in the Living Lab’s refrigerated chambers (“DCA”) instead allow continuous monitoring of atmospheric composition and adjustment of nitrogen, carbon dioxide, oxygen and ethylene levels in response to signals from sensors detecting oxidative stress in the fruit. Initial trials have focused on both summer fruit (such as peaches) and long-storage varieties such as kiwifruit, apples and pears, with the aim of transferring new preservation protocols to companies in the sector.