Technology | 25th August 2026
https://www.innovationnewsnetwork.com/artificial-intelligence-and-sensor-fusion-systems-in-sustainable-robotics-for-precision-agriculture/73254/
The AIGreenBots project is a Doctoral Network that aims to foster the development of the next generation of intelligent AI-based agricultural robotics
Agriculture has been embracing new technological innovations rapidly and is becoming a sector of – even more – strategic significance because of the need to produce more food for an increasing population of people and animals, under limited natural resources (where water is becoming critical) and climate change impacts.
Precision agriculture (PA) – a concept that can be understood as digital-intelligent or automated agriculture – encompasses the use of technology in agricultural production, protection, monitoring, and management. Due to the importance of agriculture in our lives, PA has become a key approach to enhancing food security and safety, as well as environmental sustainability. Besides the potential for agricultural science, PA became a ‘specialisation’ for other engineering scientific areas, including robotics, remote sensing, and AI/ML. However, a major step from research to applications in realistic conditions has still to be achieved.
Real-life application domain is very important for any engineering system towards offering relevant outcomes for the agriculture sector, allowing the verification of assumptions made, identifying new challenges, and leveraging future scenarios.
AIGreenBots is a Doctoral Network that aims to provide advanced training and real-life experience for researchers (i.e., doctoral candidates) who will cope with the next-generation of agricultural robotics. Agricultural robotics is growing and rapidly evolving, thus AIGreenBots will expose the next generation of researchers to broad, innovative (research-related), and transferable competences delivered by world-leading academic and SMEs located in five countries.
Objectives
AIGreenBots project sets out to fulfil key scientific and technical objectives in line with the five research WPs and the doctoral candidates’ (DCs) work plans. They are:
- Design and development of novel robotic platforms for precision agriculture: Field robots, UGVs, automated machinery and systems. (WP3)
- Development of new multi-sensor robotic perception systems: Based on cameras, LiDARs, GNSS-IMU, and machine learning. (WP4)
- Endow the robots/systems with reliable ML capabilities: Probabilistic DL, regularisation, IoT, uncertainty quantification. (WP5)
- Decision-making for robots operating in real-world agricultural conditions, conditioned to safe decisions. (WP6)
- Safety-legal operation of the agri-bots on the field: Expert-based approach to ‘translate’ safety-legal rules into the decision-making mechanisms. (WP7)
The training objectives, transversal to the project, will be achieved by implementing inter-multidisciplinary training, career development and research collaborations for the 11 DCs, involving research institutions, agriculture-stakeholders, living labs, and SMEs.
Work packages
The structure of AIGreenBots comprises seven work packages (WP 1-7), covering all parts of the project from research, management, training, dissemination, exploitation and public engagement. WP1 and WP2 are non-research work packages established to support DCs’ contributions at administrative, training, and dissemination levels. WP3, WP4, WP5, WP6 and WP7 reflect the key components of the research objectives of AIGreenBots: sensing, data, ML, decision, action. Collectively, AIGreenBots will work with the DCs to develop agricultural robotic platforms (WP3), new agricultural-robots perception and sensor-fusion (WP4), reliable ML (WP5), robot decision-making (WP6), safety and important legislation aspects will be investigated as well (WP7).
Methodology
Agricultural robotics is broad and multidisciplinary, encompassing several topics, including machinery automation, systems engineering, AI/ML techniques, SLAM, agriculture science, remote sensing, sensor/information processing, IoT, data fusion, digital twin (i.e., data-driven models), among others.
The AIGreenBots project will essentially focus on three topics:
- Agricultural/field robotics and agri-machinery;
- Multisensory robotic perception and decision-making; and
- Reliable ML and safety – while the application domain (precision agriculture) will close the loop.
Data sources will be provided by the onboard sensor, field-sensors, and the remote systems (UAV, satellites), as well as complementary information supplied by experts in agriculture science.
The AIGreenBots research programme relies essentially on three pillars:
- Research and technology;
- Application domain (i.e., real-world precision agriculture/farming needs); and
- Training and transferable skills (e.g., entrepreneurship, ‘hands-on’ skills, career management, teamwork).
AIGreenBots’ three pillars programme integrates techniques, methods, and complementary disciplines towards the objectives of the project and the respective IRPs (i.e., the research-projects).
AIGreenBots research projects
The Horizon MSCA-DC project AIGreenBots includes 11 individual research projects (IRPs), and has been conducted by motivated and talented doctoral candidates to develop the next generation of intelligent AI-based agricultural robotics. The summary of the IRPs and the respective DC is provided below.
Acknowledgement
The AIGreenBots project is funded by the European Union (EU) under the Marie Sklodowska-Curie Action (MSCA) Doctoral Network (DN) grant no. 101169330.