Are you looking for a service to validate, test or evaluate your agrifood product? Explore our Catalogue to find the perfect service tailored to your needs!
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Our infrastructures are composed of different facilities that could be exploited in several sectors and countries.
This pilot service focuses on the integration of robotic systems into agricultural processes, enabling the automation of key tasks such as planting, harvesting, and crop monitoring. By combining robotics with advanced software, this service improves operational efficiency, reduces labor costs, and enhances the precision of agricultural tasks. The integration ensures that robotic systems work seamlessly within existing workflows and provide consistent, high-quality performance.
This service applies artificial intelligence (AI) algorithms to process and analyse large datasets collected from agricultural operations. By leveraging machine learning and data analytics, the service generates predictive insights about crop needs, such as water, fertilizer, and pest control, allowing for more accurate and efficient resource use. The AI-driven approach helps farmers and agribusinesses optimise their production processes, reduce waste, and improve yields by making data-driven decisions.
FEM will support companies developing machine vision tools (both hardware and software), e.g., for counting and estimating the size of fruits, either by collecting ground-truth data or by comparing the results of the FEM algorithms with the customer solution. These activities are supported by both physical and digital facilities.
This service focuses on the collection and processing of data from sensors connected to a 5G or LoRaWAN networks. Leveraging the high-speed, low-latency capabilities of 5G, it facilitates efficient data transmission, ensuring comprehensive coverage and timely data collection across various environments. The collection and processing methods yield high-quality datasets that are essential for training AI models and developing decision-making algorithms, supporting diverse applications. Additionally, the scalable environment developed allows for adaptability across different sensors, use cases, locations, and even communication technologies.
This service specialises in generating high-quality terrain datasets using sensor-equipped UGVs (unmanned ground vehicles). By employing autonomous UGVs, the service streamlines the data collection process, ensuring efficiency and accuracy in gathering crucial parameters like humidity, pH, temperature, etc. This equipped UGV navigates diverse terrains, autonomously collecting data in specific locations planned by the user. The automated data collection not only enhances the speed of information gathering but also facilitates the generation of comprehensive datasets. This information is invaluable for professionals seeking to make AI models, make data-driven decisions, and analyse the impact of different strategies on the lands.
The service provides tailored testing and implementation support for smart energy monitoring, IoT solar sensors, and energy management systems designed for agri-food companies, helping them reduce costs, improve energy efficiency, and support sustainability.
The service offers specialised support in developing and testing IoT solutions for agricultural weather monitoring and forecasting. Aimed at AgriTech companies, it leverages advanced technology to help farmers better understand and respond to climate-related challenges. By enhancing real-time weather insights, the service empowers informed decision-making and promotes greater resilience in agricultural practices.
This service provides a lab-based evaluation for AI classification models, contrasting their results with a gold-standard analysis to assess accuracy and reliability. Focused on applications in food processing, such as beekeeping and pollen counting, this service ensures that AI models meet high standards of precision, which is essential for fields requiring validated data accuracy.
This service supports companies that are developing non-destructive spectral (NDS) instrumentation for agri-food applications, providing validation studies focused on spectral repeatability, signal-to-noise ratio, and quality assessment. Using a well-equipped sensor lab, the service includes comparisons with commercially available instruments and access to a referenced agri-food sample bank. By conducting repeatability and performance assessments, clients gain insights into device robustness and potential design improvements.
To deliver this service, we identify key areas that contribute to the overall environmental footprint of the system and quantify its overall environmental sustainability (based on metrics such as, e.g., energy consumption levels, water usage, impact of chemical inputs, and others). The service provides the customers with the results of the LCA analysis and with a set of actionable recommendations to improve the environmental sustainability of their system. LCA analysis becomes difficult to perform when the machine involves AI or robotics: specialised knowledge of these fields is needed to correctly consider them and their impact on machine operation. For this reason, this service benefits from the expertise not only of LCA professionals but also of AI and robotics experts.
This service utilises a progressive tilt platform to conduct stability testing on self-propelled vehicles and robotics machinery, determining essential parameters of rollover stability. The testing infrastructure is designed to validate the effectiveness of rollover prevention systems, ensuring that machinery meets safety and operational standards. Ideal for arable farming, tree crops, and viticulture, this service provides clients with critical insights into the stability performance of their robotics equipment under varying tilt conditions.
We offer hands-on expertise in validating navigation algorithms deployed on physical ground robots in agricultural environments. The service includes the use of Simultaneous Localisation and Mapping (SLAM) techniques and terrain classification to enable accurate autonomous navigation. Robots are guided to distinguish between user-defined accessible and non-accessible zones, helping prevent damage to crops and ensuring adherence to safe paths. Our support focuses on real-environment testing, operational validation, and practical advice for improving system performance in the field.