Bajric Sanel
Ph.D. Economics & Computer Science
Pioneering a Smarter Agriculture: Personal Journey Implementing IoT in French Agriculture
Amid the dawn of the digital era, IoT is emerging as a driving force in many sectors. Agriculture, a sphere not conventionally associated with cutting-edge technology, is currently undergoing an unprecedented transformation thanks to the power of IoT. In this regard, I’d like to share my team’s personal journey implementing a smart agricultural system in France, a project that was as challenging as it was rewarding.
Understanding the Distinctiveness of Agricultural IoT:
While IoT has made significant strides in industrial and logistics sectors, its implementation in agriculture poses unique challenges and opportunities. My team and I acknowledged from the start that applying IoT in agriculture required a differentiated approach, taking into account the unique characteristics of farming, such as dependence on weather patterns, disease management, and the interconnectedness of various ecological factors.
Envisioning the IoT-Based Agricultural Production System:
Our primary goal was to develop an IoT-based agricultural production system that could stabilize the supply and demand of agricultural products. To achieve this, we focused on creating environment sensors and a prediction system that could gather critical environmental information. This data would help estimate the growth and production quantity of crops, contributing to a more predictable agricultural supply chain.
Historically, while the demand for agricultural products could be predicted quantitatively, predicting variations in harvest and production due to changes in cultivation areas, weather fluctuations, and disease outbreaks posed significant challenges. This lack of predictability often led to imbalances in the supply and demand of agricultural products.
Implementing the IoT System:
Our IoT-based system utilized a network of sensors deployed across farmlands to collect a range of data – from soil composition, moisture levels, and temperature to pest activity and weather patterns. This data was fed into a centralized system that used advanced analytics to make predictions about crop growth and yield.
The power of IoT manifested in correlation analysis between crop statistical information and agricultural environmental information. This capability substantially improved farmers’, researchers’, and government officials’ ability to analyze current conditions and predict future harvests.
End-to-End Decision Support:
A significant outcome of our project was an IoT-based decision support system. This system allowed farmers to monitor the entire agricultural cycle, from seeding to selling. By having access to real-time data and predictive insights, farmers could make timely decisions about irrigation, pest control, and optimal harvesting time. This not only stabilized supply but also improved the quality of agricultural products.
The Personal Impact and Future of IoT in Agriculture:
Looking back at our journey, the transformation of French agriculture through the application of IoT is a testament to our commitment to innovation. Seeing farmers leverage the IoT system to optimize their practices and increase their yield was deeply rewarding for our team.
As we look to the future, we see a world of possibilities for further innovation in agricultural IoT. These could include integrating AI to improve predictive analysis, using drones for crop monitoring, and expanding the use of IoT in livestock farming.
Our work in France serves as a case study for the potential of IoT in agriculture – an initiative that empowers farmers, contributes to a balanced agricultural supply chain, and ultimately, paves the way for a sustainable and technologically advanced farming future.