
This Learning Object is part of Master AGRITECH EU – Digital Agriculture for Sustainable Development, an Italian one-year specialisation programme organised by University of Pisa, University of Macerata, National Research Council (CNR) and Quinn Consortium (Consorzio Quinn)
For more information about the programme and to enroll here
It is possible to enroll for the whole programme or for the single Learning Object (Module) you are interested in
Module details
The module explores sensing technologies applied to the agricultural context, with a focus on Internet of Things (IoT) and cyber-physical systems, including their energy aspects. It also covers RFID technologies, rain sensing, and the use of both airborne and ground-based drones as tools for distributed field data collection.
Proposer: University of Pisa (UNIPI)
Organization: University of Pisa (UNIPI), National Reasearch Council (CNR), University of Macerata (UNIMC)
Duration: 64h
ECTS: 5
Shortcut access code: No
Year of pubblication: 2026
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Architectures for sensing
Architectures for data collection and monitoring activities
Description: Overview of the technologies employed in smart agritech in order to improve the efficiency of the workDuration: 4hTeacher: Costa (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
Cyber physical systems
Architectures for data collection and cyber-physical systems to support sensing activities
Description: This unit introduces cyber-physical systems as integrated frameworks where physical agricultural processes are continuously monitored, controlled, and optimized through embedded computing and communication technologies.Duration: 4hTeacher: Giordano (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
Robotics
Presentation of Robotic solutions for agro-food sector, including testimonials from experts and companies
Description: An overview of the use of robotics in agriculture, with a focus on perception aspects and harvesting. Robotic havesting,usage of robotic hands and sensor for this purpose. Different types of robotic hands. Not only autonomous robots but also robots that can share informations with a remote human operator who is controlling the robot.Duration: 6hTeacher: Bianchi (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
Integrated communications and sensing
Precipitation measurement by using the downlink of communication satellites as opportunity signals
Description: This unit explores how integrated communication and sensing technologies work together to enable real-time data acquisition and transmission across agricultural environments, supporting more responsive and connected farming systemsDuration: 6hTeacher: Giannetti (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
Sensors for Precision Agricolture
How a sensor works and how we can develop a sensor for agriculture
Description: What is a sensor,how it works and how we can develop sensors for precision agriculture.Focus on artificial versus natural sensors, sensor’s parameters, physical sensors, chemical sensorsDuration: 4hTeacher: Barillaro (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
RFID technology
RFID technologies and applications
Description: This unit introduces RFID technology and its applications in agriculture, covering the principles of radio-frequency identification and its use in livestock tracking, supply chain management, and asset monitoring.Duration: 4hTeacher: Costa (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
IoT – energy considerations
Energy aspects related to IOT communication technologies
Description: Energy aspects related to the IOT communication technologies,no details on energy consumption of specific sensors/devices but more focused on the communication systemsDuration: 4hTeacher: Garroppo (DII - Department of Information Engineering)Delivery method: On LineTeaching method: Lectures, Working Group -
Imaging Sensors in Agritech
Overview of imaging sensors and their applications
Description: Overview of imaging sensors,light and sensor physics,NDVI and thermal imaging cases.Multicamera system and multispectral reconstruction,the full pipeline: connecting AUVs surveys to variable rate systems and final reflections and future trendsDuration: 10hTeacher: Moroni (CNR)Delivery method: On LineTeaching method: Lectures, Working Group -
Introduction to UAVs in Agriculture
History and development of UAV technology;Use cases in precision and sustainable agriculture
Description: This unit introduces Unmanned Aerial Vehicles (UAVs) and their growing role in agriculture, exploring how drones are deployed for crop monitoring, precision spraying, and large-scale field data collection.Duration: 6hTeacher: Berton, Ercolini (CNR)Delivery method: On LineTeaching method: Lectures, Working Group -
Fundamentals of Photogrammetry
Principles of photogrammetry;Planning a photogrammetric survey;Hands-on
Description: An Introduction to Photogrammetry and why it is useful in Agricultural Technology,basic facts,shooting and reconstruction data for precision agriculture, application examplesDuration: 8hTeacher: Pascali (CNR)Delivery method: On LineTeaching method: Lectures, Working Group -
Advanced Photogrammetry and Sensors
Advanced techniques in photogrammetry;Calibration of imaging sensors for optimal data quality;Integration of handheld devices and UAV-acquired data
Description: This unit covers advanced photogrammetry techniques and sensor technologies — including multispectral, thermal system — and their application to high-resolution mapping and crop analysis in precision agriculture.Duration: 8hTeacher: Pascali (CNR)Delivery method: On LineTeaching method: Lectures, Working Group
