First Year – Core Courses

Modeling, Design and Simulation of Mechatronic Systems

This learning area focuses on precision, reliability, and integration of mechanical components and measurement systems. The objective is to provide the skills needed to develop high-performance design solutions using advanced simulation and analysis tools.

• Modeling and simulation of mechatronic systems
• Design of precision systems
• Mechanical Design for Mechatronics.

Artificial Intelligence and Embedded Electronics

This learning area integrates knowledge of artificial intelligence techniques, signal processing methods, and hardware architectures based on microprocessors and microcontrollers. The objective is to provide the skills required for the development and implementation of machine and deep learning algorithms for the management and control of complex mechatronic systems.

• AI for Mechatronics
• Embedded Systems
• Digital Signal Processing for Mechatronics.

Control and Optimization of Dynamic Mechatronic Systems

This learning area provides advanced conceptual tools for the modeling, dynamic analysis, optimization, and control of complex systems. The objective is to develop the skills required to design high-performance systems, through the application of optimal control techniques and optimization algorithms.

• Dynamics and vibration of mechatronic systems
• Automatic Control
• Numerical Optimization and Optimal Control for Dynamical Systems.

Digital Manufacturing

This learning area addresses methods and tools for the design and management of industrial systems and products, integrating product development, manufacturing processes and advanced software tools. The knowledge provided enables work in digitalized production environments and concurrent engineering contexts, with a systemic and innovation-oriented approach.

• Digital Manufacturing
• Design Methods for Industrial Engineering.

Second Year – Curricula

Mechanics

The curriculum provides knowledge on the design of advanced high-performance mechanical systems, with a focus on structural and dynamic modeling, finite element methods and innovative actuators. Applications in strategic sectors are covered, to provide and consolidate skills in developing high-performance mechanical solutions integrated into advanced mechatronic systems.

• Advanced Mechanical Systems
• Modeling and Design with Finite Elements
• Space Mechanisms and Space Systems Engineering
• Vehicle Dynamics
• Functional and Smart Materials
• Renewable Energy Conversion Systems.

Robotics and Intelligent Vehicles

The curriculum is dedicated to the design and control of robotic systems and autonomous vehicles, integrating perception, localization, planning, dynamic control, and machine learning techniques. Students acquire advanced skills to develop intelligent and cooperative robots and autonomous driving systems.

• Distributed Robotics and Perception
• Smart Sensing for Robotics and Augmented Reality
• Intelligent Vehicles and Autonomous Driving
• Dynamic Robot Control
• Learning and Optimization for Robot Control
• Vehicle Dynamics

Space Systems and Instruments

The curriculum addresses the design of systems and instruments for space applications, with an integrated approach that considers hardware design and qualification, sensing technologies, data processing systems and onboard artificial intelligence. The program explores advanced measurement techniques and remote sensing, as well as space mission design.

• Remote Sensing Systems and Image Analysis
• Spacecraft Sensors and Instrumentation
• Scientific mission design
• Space Structures and Advanced Applications
• AI and On Board Computing Design
• Space Mechanisms and Space Systems Engineering

Electronics and Smart Energy Systems

This curriculum provides advanced expertise in electronics, power systems and smart grids for the integration of renewable energy sources. The program explores microelectronic devices and sensors, hardware for energy conversion and management, smart grids, and intelligent IoT solutions, with a strong focus on design and laboratory experimentation.

• Microelectronic Devices, Sensors and MEMS
• Laboratory of Internet of Things
• Electronics and Instrumentation for Power Systems
• Spacecraft Sensors and Instrumentation
• Smart Grids for Renewable Energy Integration
• Renewable Energy Conversion Systems.

With a Master’s degree in Intelligent Mechatronic Engineering, you will learn how to design and manage complex intelligent systems that integrate mechanics, electronics, control and artificial intelligence.

You will be able to:

• model, simulate and control advanced mechatronic and cyber-physical systems
• integrate mechanical design, embedded systems and AI into coherent architectures
• optimise system performance and manage interactions between subsystems
• address autonomy, adaptability and technological complexity

In the first year, you will build solid foundations in modelling, control, embedded systems and AI for mechatronics. Laboratory activities and applied projects strengthen your analytical and design skills.

In the second year, you will personalise your path through one of four curricula

Upon graduation, you will be able to:

• develop a systemic view of complex mechatronic systems
• design and control intelligent systems in industrial, robotic, space or energy contexts
• apply optimisation, control and AI methods to real engineering challenges
• contribute to innovation in advanced technological sectors

You will not learn engineering only from lectures. You will learn it by designing, testing, simulating and solving real problems.

Throughout the programme, you will:

• Work in laboratories where theory becomes experimentation
• Develop projects in teams, tackling concrete engineering challenges
• Use advanced simulation and digital design tools
• Participate in workshops, seminars and student challenges
• Engage with researchers and industry professionals
• Gain professional experience through internships in Italy or abroad

This hands-on approach helps you build technical confidence, autonomy and the ability to operate in complex and evolving technological environments.

Career Opportunities

Graduates in Intelligent Mechatronic Engineering are prepared to operate in advanced technological sectors shaped by automation, artificial intelligence and digital transformation.

You can work in:

• Industrial and manufacturing companies
• Robotics and automation sectors
• Automotive and intelligent mobility industries
• Space and aerospace organisations
• Energy and smart infrastructure companies
• Research centres and high-tech start-ups
• Public institutions and engineering consultancy

You will be prepared for roles such as:

• Systems engineer for complex and intelligent systems
• Designer of mechatronic, robotic, autonomous or space systems
• Specialist in control, optimisation and AI-based engineering solutions
• Technical manager or innovation leader

The programme provides the competencies required by contemporary production systems and emerging technological domains.

Further Studies

If you are motivated to explore new technologies at the frontier of research, this degree provides a strong foundation for doctoral studies in mechatronics, mechanics, electronics, automation and related fields.

At the University of Trento, you may apply to a Phd programm that allows you to deepen your expertise, contribute to cutting-edge research and participate in international scientific collaborations: