Percorso formativo

Il corso di laurea magistrale in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems) ha l’obiettivo di fornire allo studente approfondite conoscenze teorico-scientifiche e professionali avanzate con competenze specifiche, in particolare di tipo ingegneristico, che gli consentono di interpretare e descrivere problemi complessi dell’Ingegneria Elettrica/Elettrotecnica che possono richiedere anche un approccio interdisciplinare, utilizzando metodi, strumenti e tecniche anche innovativi.

La sua formazione, finalizzata ad ideare, pianificare, progettare e gestire sistemi comunque complessi, è volta anche alla risoluzione dei problemi connessi con la sicurezza degli impianti e con l’impatto ambientale da questi prodotto nei luoghi di insediamento.

Tali capacità sono conseguibili grazie all'arricchimento del solido patrimonio di conoscenze già acquisito con la laurea, che si approfondisce sul piano metodologico ed applicativo attraverso il biennio di studi della laurea magistrale. In tal modo diviene possibile affrontare le problematiche più complesse di sviluppo, di progettazione e di conduzione dei moderni impianti, nonché di contribuire fattivamente all'innovazione ed all'avanzamento scientifico e tecnologico del settore.

La quota dell'impegno orario complessivo a disposizione dello studente per lo studio personale o per altra attività formativa di tipo individuale è pari ad almeno il 60% dello stesso.

Il percorso formativo è svolto interamente in lingua inglese e prevede la mobilità degli studenti all’interno di un consorzio formato tra le seguenti quattro università: Università di Oviedo (Spagna), Università di Nottingham (UK), Università Politecnica di Coimbra (Portogallo), Università degli Studi di Roma “La Sapienza” (Italia). La Laurea Magistrale in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems) è un titolo congiunto emesso e riconosciuto dalle quattro università partner.

Sono previsti tre curricula, il primo dei quali - “Sustainable Transportation”- è mirato a formare figure professionali con spiccate professionalità in tutto l’ambito dei trasposti elettrici e con particolari accenti sulle tecnologie per veicoli elettrici ed ibridi. Il secondo orientamento – “Electrical Power Systems” (Technologies for the More Electronic Grid) – mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dai profondi cambiamenti che stanno subendo i sistemi elettrici con il crescente utilizzo di convertitori elettronici di potenza e con la creazione di micro-grid e smart-grid. Il terzo orientamento – “Electrical Power Systems” (Design, Analysis and Operation for the More Efficient and Resilient Grid) – mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dalla crescente penetrazione di generazione distribuita e smart grids, nonché dall’avvento del mercato elettrico.

Sustainable transportation

Primo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
- A SCELTA DELLO STUDENTE		Primo semestre	12
1038752 - DYNAMIC ANALYSIS AND CONTROL OF AC MACHINES AND CONTROL OF ELECTROMECHANICAL SYSTEMS	The DYNAMIC ANALYSIS AND CONTROL OF AC MACHINES module aims to guide the student in understanding the principles of operation of AC machines at variable speed. The module will provide methods to analyze the behaviour of AC drives both in steady state and during transients. Finally, it will give the student knowledge on how torque is controlled in these machines. The CONTROL OF ELECTROMECHANICAL SYSTEMS module introduces the basic principles and schemes for the regulation of the speed in electrical drives used for motion control. At the end of the module, the student will be able to design a control scheme of the motor speed, based on proportional/integral error feedback and feedforward actions.	Primo semestre	9
CONTROL OF ELECTROMECHANICAL SYSTEMS		Primo semestre	3	ING-INF/04
DYNAMIC ANALYSIS AND CONTROL OF AC MACHINES		Primo semestre	6	ING-IND/32
1038751 - ADVANCED POWER CONVERSION AND ADVANCED AC MACHINES	ADVANCED POWER CONVERSION By the end of the module, students should be able to; - select and apply analytical techniques to perform simple design calculations for switching regulators in continuous and discontinuous mode. - demonstrate an awareness of averaging techniques for creating dynamic models of switching power converters. - select and apply suitable analytical techniques to analyse and design simple control systems for switching converters. - emonstrate an understanding of the basic properties of load resonant converters. - select and apply analytical techniques to analyse or perform design calculations on specified load resonant converter systems. ADVANCED AC MACHINES To provide a good understanding of the concepts of field orientation and vector control for induction and non-salient and salient PM AC machines. To provide information and guidance on the design of control structures and their implementations including parameter dependencies and field weakening To impart design skills through the design of a vector controlled drive using manufacturer’s machine data and defined design specifications To develop critical assessment skills through design evaluation At the end of the module, students will be able to: Explain the physical and operational principles of those AC electrical machines commonly used for high performance vector drives Explain the principles of field orientation for the vector control of AC machines drives Apply the principles of field orientation in order to design vector controllers for practical AC machine drives Analyse and evaluate AC drive performance characteristics based on parametric data, including manufacturers’ data Design a vector control drive including relevant algorithms Evaluate the performance of the designed system using a CAE/D tool or a laboratory rig.	Secondo semestre	10
ADVANCED AC MACHINES		Secondo semestre	5	ING-IND/32
ADVANCED POWER CONVERSION		Secondo semestre	5	ING-IND/32
1038612 - ADVANCED AC DRIVES AND PROJECT	The course will provide a good understanding of the concepts of field orientation and vector control for induction and non-salient and salient PM AC machines. To provide information and guidance on the design of control structures and their implementations including parameter dependencies and field weakening. To impart design skills through the design of a vector controlled drive using manufacturer’s machine data and defined design specifications. To develop critical assessment skills through design evaluation. At the end of the module, students will be able to: Explain the physical and operational principles of those AC electrical machines commonly used for high performance vector drives; Explain the principles of field orientation for the vector control of AC machines drives; Apply the principles of field orientation in order to design vector controllers for practical AC machine drives; Analyse and evaluate AC drive performance characteristics based on parametric data, including manufacturers’ data: Design a vector control drive including relevant algorithms: Evaluate the performance of the designed system using a CAE/D tool or a laboratory.	Secondo semestre	10	ING-IND/32
1055815 - POWER SYSTEMS FOR AEROSPACE MARINE AND AUTOMOTIVE APPLICATION AND TECHNOLOGIES FOR THE HYDROGEN ECONOMY	POWER SYSTEMS FOR AEROSPACE, MARINE AND AUTOMOTIVE APPLICATION This module considers the design and operation of Power Systems in a range or transport related applications. The module is divided into three sections, each presented in an expert in the particular technology: academics and industrialists. One of the aims of this module is to demonstrate the common challenges faced by employing more electric systems in different transport applications. TECHNOLOGIES FOR THE HYDROGEN ECONOMY This module will provide knowledge of technologies relating to future hydrogen fuel systems and their applications. It will include practical experience of fuel cell technologies. It will give a perspective of future energy provision relating to fossil fuels, renewable energies and energy needs.	Secondo semestre	10
TECHNOLOGIES FOR THE HYDROGEN ECONOMY		Secondo semestre	5	ING-IND/33
POWER SYSTEMS FOR AEROSPACE MARINE AND AUTOMOTIVE APPLICATION		Secondo semestre	5	ING-IND/33
AAF1839 - SUMMER SCHOOL	At the end of the 2nd semester, the student will participate in the Summer School (3 ECTS). The students from the different strands will be mixed in groups and will be given an open design project to implement, through team-work and to develop other skills. During three weeks, the students will work together in order to complete the project and a short report and oral presentation will be used for the course evaluation. A board of at least 6 people (one representative for each partner institution plus to invited people from the associated partners, acting as scholars) will evaluate the projects and an award will be given to the highest marked project as a proof of recognition.	Secondo semestre	3
6 CFU A SCELTA IN ST		Vai al gruppo

Secondo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
1038611 - DESIGN OF HYBRID HEV AND ELECTRIC VEHICLES EV	This subject deals with the analysis and design of different power stages in HEV/EV. It will cover the main power stage as well as the auxiliary equipment and control systems.	Primo semestre	9	ING-IND/32
1038478 - ENERGY STORING AND RECOVERING IN POWER SYSTEMS AND HYBRID ELECTRIC VEHICLES	The use of different energy storing systems (such as batteries, flywheels and ultra-capacitors) is studied in this subject. In addition, the impact on the design of the power electronics and on the control algorithms is analyzed.	Primo semestre	6	ING-IND/32
1055811 - APPLIED SIMULATION TO ELECTRICAL TRANSPORTATION AND ELECTROMAGNETIC COMPATIBILITY	APPLIED SIMULATION TO ELECTRICAL TRANSPORTATION This subject covers the simulation of complex electric transportation systems, including steady state and transient response, as well as close loop operation. ELECTRO MAGNETIC COMPATIBILITY (EMC) The aim of this course is to study the impact of Electro Magnetic Compatibility (EMC) in the design of Hybrid Electric and full Electric transportation systems. From the description of the EMC issues applied to Electric Mobility, the course studies the basic concepts of EMC, including the electromagnetic elements the can produce electromagnetic fields, the propagation of these fields, shielding techniques, testing, measurement and modelling for the electromagnetic compatibility and, finally, practical considerations in the vehicle design, including electrical as well as electronic equipment.	Primo semestre	9
ELECTROMAGNETIC COMPATIBILITY		Primo semestre	4	ING-IND/31
APPLIED SIMULATION TO ELECTRICAL TRANSPORTATION		Primo semestre	5	ING-IND/33
1055812 - SUSTAINABLE TRANSPORTATION LABORATORY AND PROJECT	Hands-on laboratory, where students must build a full operational prototype of one plant already analyzed during the theoretical subjects. The prototype will be based in a previous simulated plant, so the student can learn the possibilities that simulations brings to the design of Electrical Power Systems focused on the Sustainable Transportation subject.	Primo semestre	6	ING-IND/32
AAF1016 - PROVA FINALE	Il candidato dovrà produrre un elaborato originalea carattere preferibilmente sperimentale, supportato da adeguato corredo cartografico e iconografico, attraverso cui dimostri di aver acquisito la capacità di gestire ed elaborare autonomamente le competenze teoriche e metodologiche maturate nel corso di studio, con particolare riferimento alla ricerca delle fonti e delle informazioni bibliografiche e cartografiche, alla gestione ed elaborazione deidati statistici, all'esposizione di riflessioni critiche e personali, alla traduzione ed estensionedelle esperienze maturate nell'ambito degli stage e dei tirocini frequentati	Secondo semestre	18
AAF1466 - INTERNSHIP	Internships will be devoted for the development of the Master Thesis in an associated partner university or company of the EMMC STEPS programme. Internships will be co-tutored by a Master's professor and an external person belonging to the associated partner. Internship will be assessed together with the Master Thesis. The supervisor of the Internships at the host organisation shall issue a report stating that the student has satisfactorily completed the Internship period, and the activities carried out, that should be connected to the Master Thesis topic. A chapter of the Master Thesis will describe the Internship activities and the outcomes that may be relevant to the Thesis.	Secondo semestre	12

Electrical power systems: tecnologies for the more electronic grid

Primo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
- A SCELTA DELLO STUDENTE		Primo semestre	12
1055917 - RENEWABLE GENERATION TECHNOLOGIES AND TECHNOLOGIES FOR WIND GENERATION	RENEWABLE GENERATION TECHNOLOGIES This module covers the analysis and design of renewable and sustainable energy systems. It covers the various types of renewable energy and the resources available. It uses an understanding of the physical principles of various types of energy resources in order to develop analytical models which can be applied to the design of renewable energy systems, including energy conversion and storage, especially for electrical power generation. TECHNOLOGIES FOR WIND GENERATION This module provides students with an understanding of the technologies used in wind power systems. It investigates the operation of wind generators and of wind farms and the current developments in electrical engineering for wind power.	Secondo semestre	10
TECHNOLOGIES FOR WIND GENERATION		Secondo semestre	5	ING-IND/32
RENEWABLE GENERATION TECHNOLOGIES		Secondo semestre	5	ING-IND/32
1055925 - COMBINED HEAT AND POWER AND FACTS AND DISTRIBUTED GENERATION	COMBINED HEAT AND POWER The objective of this module is to examine Combined Heat and Power (CHP) technology including large, mini and small-scale systems. The module will include topics on prime movers technology used in different types of CHP schemes (steam, gas, CCGT, IC, Stirling engine, and Fuel cells) and associated electric generators/alternators, and control devices. Operation and performance of each CHP scheme (large scale CHP, District heating, mini-CHP for large buildings, and micro-CHP for single dwellings) will also be covered. Assessment of economical feasibility and sizing of a mini-CHP and/or micro-CHP system will be demonstrated in the form of a mini-project to assess economical viability of such schemes. FACTS AND DISTRIBUTED GENERATION This module provides students with an understanding of power systems which include renewable energy generators. It investigates the operation of renewable energy generators at a systems level, including analysis of distributed generation systems.	Secondo semestre	10
COMBINED HEAT AND POWER		Secondo semestre	5	ING-IND/32
FACTS AND DISTRIBUTED GENERATION		Secondo semestre	5	ING-IND/32
1038612 - ADVANCED AC DRIVES AND PROJECT	The course will provide a good understanding of the concepts of field orientation and vector control for induction and non-salient and salient PM AC machines. To provide information and guidance on the design of control structures and their implementations including parameter dependencies and field weakening. To impart design skills through the design of a vector controlled drive using manufacturer’s machine data and defined design specifications. To develop critical assessment skills through design evaluation. At the end of the module, students will be able to: Explain the physical and operational principles of those AC electrical machines commonly used for high performance vector drives; Explain the principles of field orientation for the vector control of AC machines drives; Apply the principles of field orientation in order to design vector controllers for practical AC machine drives; Analyse and evaluate AC drive performance characteristics based on parametric data, including manufacturers’ data: Design a vector control drive including relevant algorithms: Evaluate the performance of the designed system using a CAE/D tool or a laboratory.	Secondo semestre	10	ING-IND/32
AAF1839 - SUMMER SCHOOL	At the end of the 2nd semester, the student will participate in the Summer School (3 ECTS). The students from the different strands will be mixed in groups and will be given an open design project to implement, through team-work and to develop other skills. During three weeks, the students will work together in order to complete the project and a short report and oral presentation will be used for the course evaluation. A board of at least 6 people (one representative for each partner institution plus to invited people from the associated partners, acting as scholars) will evaluate the projects and an award will be given to the highest marked project as a proof of recognition.	Secondo semestre	3
9 cfu a scelta PER EPS		Vai al gruppo
6 CFU A SCELTA in EPS		Vai al gruppo

Secondo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
1055923 - SMARTGRIDS AND MICROGRIDS	SMARTGRIDS AND MICROGRIDS This subject is focused on the impact of distributed generation in the design of the new electrical networks and, particularly, the description and analysis of different microgrids topologies, coordination issues and power grid evolution to the smart grid concept.	Primo semestre	9	ING-IND/33
1055922 - APPLIED SIMULATION TO POWER SYSTEMS AND CONTROL OF POWER CONVERTERS FOR FACTS AND HVDC APPLICATIONS	APPLIED SIMULATION TO POWER SYSTEMS The design and operation of today power systems heavily relies on the use of simulation tools, both for planning the initial infrastructure when designing a new power system network but also to test the effects on changes on the network, propagation of faults and modifications in the topology in order to include new distributed generation mills or new loads. New simulation tools allow the integration of power electronics devices in the power network, including a seamlessly integration from the power systems level to the device level. For this reason, learning on how to use these tools in a combined way is a fundamental skill that students in the field of the power systems must acquire.	Primo semestre	6
APPLIED SIMULATION TO POWER SYSTEMS		Primo semestre	3	ING-IND/33
CONTROL OF POWER CONVERTERS FOR FACTS AND HVDC APPLICATIONS		Primo semestre	3	ING-IND/32
1055918 - POWER SYSTEMS LABORATORY AND PROJECT AND ELECTRICAL ENERGY AND COOPERATION FOR DEVELOPMENT	POWER SYSTEMS LABORATORY AND PROJECT Hands-on laboratory, where students must build a full operational prototype of some plant already analyzed during the theoretical subjects. The prototype will be based in a previous simulated plant, so the student can learn the possibilities that simulations brings to the design of Electrical Power Systems. ELECTRICAL ENERGY AND COOPERATION FOR DEVELOPMENT Students will be able to acquire a supportive and global vision of the reality, complementing the conventional technical learning with ethical principles that should guide their professional exercise, what includes abilities as the following:	Primo semestre	9
ELECTRICAL ENERGY AND COOPERATION FOR DEVELOPMENT		Primo semestre	3	SECS-P/06
POWER SYSTEMS LABORATORY AND PROJECT		Primo semestre	6	ING-IND/33
1055919 - DESIGN OF POWER CONVERTERS FOR ENERGY STORAGE APPLICATIONS	The use of different energy storage systems (such as batteries, flywheels and ultra-capacitors) is studied in this subject, for several applciations. In addition, the impact of this systems on the design of the power electronics and on the control algorithms of several type of converters is also analyzed. 1. introduction to Power Electronic Systems for Energy Storage Applications 1.1. Review of energy storage systems 1.2. Basic power schemes (DC-DC, DC-AC, AC-DC, AC-AC) 2. Specific topologies for storage systems (characteristics, technologies, drawbacks and advantages, power and energy constraints) 2.1. Specific topologies for Storage Systems in Renewable Generation Systems 2.2. Specific topologies for Storage in Grid Support 2.3. Specific topologies for Transportation 3. Control of converters for Energy Storage applications	Primo semestre	6	ING-IND/32
AAF1466 - INTERNSHIP	Internships will be devoted for the development of the Master Thesis in an associated partner university or company of the EMMC STEPS programme. Internships will be co-tutored by a Master's professor and an external person belonging to the associated partner. Internship will be assessed together with the Master Thesis. The supervisor of the Internships at the host organisation shall issue a report stating that the student has satisfactorily completed the Internship period, and the activities carried out, that should be connected to the Master Thesis topic. A chapter of the Master Thesis will describe the Internship activities and the outcomes that may be relevant to the Thesis.	Secondo semestre	12
AAF1016 - PROVA FINALE	Il candidato dovrà produrre un elaborato originalea carattere preferibilmente sperimentale, supportato da adeguato corredo cartografico e iconografico, attraverso cui dimostri di aver acquisito la capacità di gestire ed elaborare autonomamente le competenze teoriche e metodologiche maturate nel corso di studio, con particolare riferimento alla ricerca delle fonti e delle informazioni bibliografiche e cartografiche, alla gestione ed elaborazione deidati statistici, all'esposizione di riflessioni critiche e personali, alla traduzione ed estensionedelle esperienze maturate nell'ambito degli stage e dei tirocini frequentati	Secondo semestre	18

Electrical power systems: design, analysis and operation for the more efficient and resilient grid

Primo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
1055991 - ELECTRIC POWER SYSTEMS AND INTRODUCTION TO RENEWABLE ENERGIES	The subject provides to the students skills related with the knowledge of electrical power systems. With this course, the student learn about the components and technologies involved in electrical transmission and distribution grids and the role that each component plays within the system. This issue involves the analysis of power systems starting with the calculation of electrical lines parameters and of the equivalent circuits of the system components. These parameters are used to model power systems in order to perform network analysis in normal and fault conditions. Models and solution methods are presented for the steady-power flow. Some references are provided also for the fault analysis and the neutral grounding choices are presented. Voltage and frequency control and regulation aspects are investigated.	Primo semestre	9
INTRODUCTION TO RENEWABLE ENERGIES		Primo semestre	3	ING-IND/32
ELECTRIC POWER SYSTEMS		Primo semestre	6	ING-IND/33
- A SCELTA DELLO STUDENTE		Primo semestre	12
1056003 - POWER SYSTEMS FOR AEROSPACE MARINE AND AUTOMOTIVE APPLICATION AND ENERGY STORE	POWER SYSTEMS FOR AEROSPACE, MARINE AND AUTOMOTIVE APPLICATION This module considers the design and operation of Power Systems in a range or transport related applications. The module is divided into three sections, each presented in an expert in the particular technology: academics and industrialists. One of the aims of this module is to demonstrate the common challenges faced by employing more electric systems in different transport applications.	Secondo semestre	10
ENERGY STORE		Secondo semestre	5	ING-IND/33
POWER SYSTEMS FOR AEROSPACE MARINE AND AUTOMOTIVE APPLICATION		Secondo semestre	5	ING-IND/33
1055934 - ADVANCED ELECTRICAL MACHINES AND PROJECT	ADVANCED ELECTRICAL MACHINES This module will build on the material covered in Electrical Machines by introducing advanced concepts and applications in the area of more electric transport, renewable generation and industrial automation. Both theoretical and practical characteristics are covered.	Secondo semestre	10	ING-IND/32
1055925 - COMBINED HEAT AND POWER AND FACTS AND DISTRIBUTED GENERATION	COMBINED HEAT AND POWER The objective of this module is to examine Combined Heat and Power (CHP) technology including large, mini and small-scale systems. The module will include topics on prime movers technology used in different types of CHP schemes (steam, gas, CCGT, IC, Stirling engine, and Fuel cells) and associated electric generators/alternators, and control devices. Operation and performance of each CHP scheme (large scale CHP, District heating, mini-CHP for large buildings, and micro-CHP for single dwellings) will also be covered. Assessment of economical feasibility and sizing of a mini-CHP and/or micro-CHP system will be demonstrated in the form of a mini-project to assess economical viability of such schemes. FACTS AND DISTRIBUTED GENERATION This module provides students with an understanding of power systems which include renewable energy generators. It investigates the operation of renewable energy generators at a systems level, including analysis of distributed generation systems.	Secondo semestre	10
COMBINED HEAT AND POWER		Secondo semestre	5	ING-IND/32
FACTS AND DISTRIBUTED GENERATION		Secondo semestre	5	ING-IND/32
AAF1839 - SUMMER SCHOOL	At the end of the 2nd semester, the student will participate in the Summer School (3 ECTS). The students from the different strands will be mixed in groups and will be given an open design project to implement, through team-work and to develop other skills. During three weeks, the students will work together in order to complete the project and a short report and oral presentation will be used for the course evaluation. A board of at least 6 people (one representative for each partner institution plus to invited people from the associated partners, acting as scholars) will evaluate the projects and an award will be given to the highest marked project as a proof of recognition.	Secondo semestre	3
6 CFU EPS2		Vai al gruppo

Secondo anno

Orientamento unico
Insegnamento		Semestre	CFU	SSD
1056005 - ELECTRICAL MARKETS AND PROJECT MANAGEMENT FOR CONVENTIONAL AND RENEWABLE ENERGY APPLICATION	ELECTRICAL MARKETS In this subject students will identify the main agents involved in the European electrical and gas markets understanding the role of each one in the whole market operation. Also the operation of the spot and future markets will be treated. PROJECT MANAGEMENT FOR CONVENTIONAL RENEWABLE ENERGY APPLICATION Students will be able to assess and to compare different offers and develop an efficient management of power systems projects.	Primo semestre	9
PROJECT MANAGEMENT FOR CONVENTIONAL AND RENEWABLE ENERGY APPLICATION		Primo semestre	4	ING-IND/33
ELECTRICAL MARKETS		Primo semestre	5	ING-IND/33
1055939 - ADVANCED POWER SYSTEMS DESIGN AND ANALYSIS AND ANALYSIS AND SIMULATION OF RAILWAY POWER SYSTEMS	This subject is focused on the description of the power systems used specifically for feeding trains and trams, different kind of simplified train models will be studied but focusing specially on the network models and the influence of the different trains and devices on the network variables. The student will learn how to simulate traffic and how to link this traffic simulators with the electrical ones.	Primo semestre	9
ADVANCED POWER SYSTEMS DESIGN AND ANALYSIS		Primo semestre	6	ING-IND/33
ANALYSIS AND SIMULATION OF RAILWAY POWER SYSTEMS		Primo semestre	3	ING-IND/33
1055937 - ECONOMICAL AND FINANCIAL ANALYSIS AND ELECTRICAL ENERGY AND COOPERATION FOR DEVELOPMENT	ECONOMICAL AND FINANCIAL ANALYSIS This subject will give an overview of the macroeconomic context in the electricity sector, aiming to define the structure of the energy market. The value chain of the different energy Business and the main aspects relative to investments, financing, management of risks and tax system on the energetic markets will be analyzed. ELECTRICAL ENERGY AND COOPERATION FOR DEVELOP Students will be able to acquire a supportive and global vision of the reality, complementing the conventional technical learning with ethical principles that should guide their professional exercise, what includes abilities as the following:	Primo semestre	6
ELECTRICAL ENERGY AND COOPERATION FOR DEVELOPMENT		Primo semestre	3	SECS-P/06
ECONOMICAL AND FINANCIAL ANALYSIS		Primo semestre	3	SECS-P/06
1055922 - APPLIED SIMULATION TO POWER SYSTEMS AND CONTROL OF POWER CONVERTERS FOR FACTS AND HVDC APPLICATIONS	APPLIED SIMULATION TO POWER SYSTEMS The design and operation of today power systems heavily relies on the use of simulation tools, both for planning the initial infrastructure when designing a new power system network but also to test the effects on changes on the network, propagation of faults and modifications in the topology in order to include new distributed generation mills or new loads. New simulation tools allow the integration of power electronics devices in the power network, including a seamlessly integration from the power systems level to the device level. For this reason, learning on how to use these tools in a combined way is a fundamental skill that students in the field of the power systems must acquire.	Primo semestre	6
APPLIED SIMULATION TO POWER SYSTEMS		Primo semestre	3	ING-IND/33
CONTROL OF POWER CONVERTERS FOR FACTS AND HVDC APPLICATIONS		Primo semestre	3	ING-IND/32
AAF1466 - INTERNSHIP	Internships will be devoted for the development of the Master Thesis in an associated partner university or company of the EMMC STEPS programme. Internships will be co-tutored by a Master's professor and an external person belonging to the associated partner. Internship will be assessed together with the Master Thesis. The supervisor of the Internships at the host organisation shall issue a report stating that the student has satisfactorily completed the Internship period, and the activities carried out, that should be connected to the Master Thesis topic. A chapter of the Master Thesis will describe the Internship activities and the outcomes that may be relevant to the Thesis.	Secondo semestre	12
AAF1016 - PROVA FINALE	Il candidato dovrà produrre un elaborato originalea carattere preferibilmente sperimentale, supportato da adeguato corredo cartografico e iconografico, attraverso cui dimostri di aver acquisito la capacità di gestire ed elaborare autonomamente le competenze teoriche e metodologiche maturate nel corso di studio, con particolare riferimento alla ricerca delle fonti e delle informazioni bibliografiche e cartografiche, alla gestione ed elaborazione deidati statistici, all'esposizione di riflessioni critiche e personali, alla traduzione ed estensionedelle esperienze maturate nell'ambito degli stage e dei tirocini frequentati	Secondo semestre	18

Gruppi Opzionali

**Lo studente deve acquisire 6 CFU dagli esami presenti nel gruppo**
Insegnamento		Anno	Semestre	CFU	SSD
1055993 - ELECTRICAL MACHINES I	In this subject the main types of electric machines are taught, focusing on transformers, on machines used as generators in modern power stations, and on machines used in traction applications.	Primo anno	Primo semestre	6	ING-IND/32
1038515 - POWER PLANTS	In this subject the main types of power stations used to generate electrical energy are explained, considering the basic components and its main operation principles. The main aims of this course unit include the concepts of electric energy generation; developing of analytical skills needed for economic analysis of electric energy generation projects and understandinf the modern energy paradigm.	Primo anno	Primo semestre	6	ING-IND/33
1038517 - DISTRIBUTION SYSTEMS	This course provides students with an understanding of the technologies used in electrical distribution systems. The students will be able to recognize the problems which may occur during the operation of distribution systems and propose solutions to correct those problems in order to improved electricity service with better continuity and quality of supply.	Primo anno	Primo semestre	6	ING-IND/33
1056020 - ELECTRIC POWER SYSTEMS I	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters.	Primo anno	Primo semestre	6	ING-IND/33
1055992 - POWER ELECTRONICS I	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters.	Primo anno	Primo semestre	6	ING-IND/32

**Lo studente deve acquisire 6 CFU dagli esami presenti nel gruppo**
Insegnamento		Anno	Semestre	CFU	SSD
1038474 - POWER ELECTRONICS	In this subject the main types of power converters are taught, focusing on dc-dc converters, with and without isolation, on inverters and on rectifiers.	Primo anno	Primo semestre	6	ING-IND/32
1038509 - DIGITAL CONTROL AND MICROCONTROLLERS	The course provides methodologies for the analysis of linear and nonlinear discrete time and sampled dynamics, the design of digital controllers with a major focus on linear systems, and implementation on embedded microcontrollers. The student will be able to compute digital models of given discrete time systems as well as digital discrete time equivalent models of continuous dynamics, to design digital control laws both for discrete and for continuous systems and to use standard microcontrollers for their implementation.	Primo anno	Primo semestre	6	ING-INF/04
1038510 - MECHANICAL BACKGROUND	The contents of this course include the basics for the dynamic modelling and control of industrial motor-driven electromechanical systems. Control algorithms are explained in order to allow students to make digital implementation. Motor efficiency maximization centred control methods are discussed in the scope of industrial applications. The control of electrical generators is briefly discussed.	Primo anno	Primo semestre	6	ING-IND/13
1038476 - ELECTRICAL MACHINES	Sulla base delle conoscenze acquisite nei corsi di Elettrotecnica, l'obiettivo è quello di affrontare lo studio degli apparati di conversione dell'energia, elettrici ed elettromeccanici utilizzati nell'ambito della produzione, della distribuzione e dell' utilizzazione dell'energia elettrica (quali trasformatori, generatori e motori), pervenendo alla individuazione di modelli matematici e circuiti equivalenti che consentano di analizzare il funzionamento degli apparati stessi nelle diverse condizioni e di valutarne le prestazioni. Sono prese in considerazione le principali tipologie di macchine e le diverse condizioni di funzionamento, a regime e in transitorio.	Primo anno	Primo semestre	6	ING-IND/32
1055813 - ELECTRIC POWER SYSTEMS	The subject provides to the students skills related with the knowledge of electrical power systems. With this course, the student learn about the components and technologies involved in electrical transmission and distribution grids and the role that each component plays within the system. This issue involves the analysis of power systems starting with the calculation of electrical lines parameters and of the equivalent circuits of the system components. These parameters are used to model power systems in order to perform network analysis in normal and fault conditions. Models and solution methods are presented for the steady-power flow. Some references are provided also for the fault analysis and the neutral grounding choices are presented. Voltage and frequency control and regulation aspects are investigated.	Primo anno	Primo semestre	6	ING-IND/33

**Lo studente deve acquisire 9 CFU dagli esami presenti nel gruppo**
Insegnamento		Anno	Semestre	CFU	SSD
1055908 - DIGITAL CONTROL AND MICROCONTROLLERS AND ELECTRIC POWER SYSTEMS CONTROL AND OPERATION	DIGITAL CONTROL The contents of this course include an introduction to control system design. Implementation of digital control algorithms using different approach to control a integrated System. MICROCONTROLLERS This module covers the design, development and maintenance of microcontroller based systems. It includes: (a) Understanding the operation of a microprocessor and a microcontroller; (b) Using design and development tools for creating control applications based on the i8051 and Texas Instruments F28X microcontrollers. ELECTRIC POWER SYSTENS CONTROL AND OPERARTION In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters.	Primo anno	Primo semestre	9
ELECTRIC POWER SYSTEMS CONTROL AND OPERATION		Primo anno	Primo semestre	3	ING-IND/33
DIGITAL CONTROL		Primo anno	Primo semestre	3	ING-INF/04
MICROCONTROLLERS		Primo anno	Primo semestre	3	ING-INF/04
1056325 - ELECTRICAL MACHINES I AND ELECTRICAL POWER SYSTEMS CONTROL AND OPERATION	ELECTRICAL MACHINES The content of this course includes the study of the most used of electrical machines, focusing on power transformers, industrial motors and generators used in conventional and emerging power plants. CONTROL OF ELECTROMECHANICAL SYSTEMS The contents of this course include the basics for the dynamic modelling and control of industrial motor-driven electromechanical systems. Control algorithms are explained in order to allow students to make digital implementation. Motor efficiency maximization centered control methods are discussed in the scope of industrial applications. The control of electrical generators is briefly discussed.	Primo anno	Primo semestre	9
ELECTRICAL POWER SYSTEMS CONTROL AND OPERATION		Primo anno	Primo semestre	3	ING-IND/33
ELECTRICAL MACHINES I		Primo anno	Primo semestre	6	ING-IND/32
1055910 - DIGITAL CONTROL AND DSP COMMUNICATIONS AND ELECTRIC POWER SYSTEMS CONTROL AND OPERATION	DIGITAL CONTROL The contents of this course include an introduction to control system design. Implementation of digital control algorithms using different approach to control a integrated System. DSP AND COMMUNICATIONS In this course, the fundamental concepts and mathematical tools for signal processing and digital signal processing are introduced. Building on this fundamental concepts and tools, simple specific communications applications are presented, demonstrating the full relevance of these topics for the development and implementation of communication technologies. ELECTRIC POWER SYSTENS CONTROL AND OPERARTION In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters.	Primo anno	Primo semestre	9
DIGITAL CONTROL		Primo anno	Primo semestre	3	ING-INF/04
ELECTRIC POWER SYSTEMS CONTROL AND OPERATION		Primo anno	Primo semestre	3	ING-IND/33
DSP AND COMMUNICATIONS		Primo anno	Primo semestre	3	ING-INF/04
1055966 - MICROCONTROLLERS AND DSP AND COMMUNICATIONS AND ELECTRIC POWER SYSTEMS CONTROL AND OPERATION	MICROCONTROLLERS This module covers the design, development and maintenance of microcontroller based systems. It includes: (a) Understanding the operation of a microprocessor and a microcontroller; (b) Using design and development tools for creating control applications based on the i8051 and Texas Instruments F28X microcontrollers. DSP AND COMMUNICATIONS In this course, the fundamental concepts and mathematical tools for signal processing and digital signal processing are introduced. Building on this fundamental concepts and tools, simple specific communications applications are presented, demonstrating the full relevance of these topics for the development and implementation of communication technologies.	Primo anno	Primo semestre	9
MICROCONTROLLERS		Primo anno	Primo semestre	3	ING-INF/04
ELECTRIC POWER SYSTEMS CONTROL AND OPERATION		Primo anno	Primo semestre	3	ING-IND/33
DSP AND COMMUNICATIONS		Primo anno	Primo semestre	3	ING-INF/04
1056324 - ELECTRICAL MACHINES I AND MICROCONTROLLERS	ELECTRICAL MACHINES The content of this course includes the study of the most used of electrical machines, focusing on power transformers, industrial motors and generators used in conventional and emerging power plants. MICROCONTROLLERS This module covers the design, development and maintenance of microcontroller based systems. It includes: (a) Understanding the operation of a microprocessor and a microcontroller; (b) Using design and development tools for creating control applications based on the i8051 and Texas Instruments F28X microcontrollers.	Primo anno	Primo semestre	9
ELECTRICAL MACHINES I		Primo anno	Primo semestre	6	ING-IND/32
MICROCONTROLLERS		Primo anno	Primo semestre	3	ING-INF/04
1056315 - ELECTRICAL MACHINES I AND DIGITAL CONTROL	ELECTRICAL MACHINES The content of this course includes the study of the most used of electrical machines, focusing on power transformers, industrial motors and generators used in conventional and emerging power plants. DIGITAL CONTROL The contents of this course include an introduction to control system design. Implementation of digital control algorithms using different approach to control a integrated System.	Primo anno	Primo semestre	9
DIGITAL CONTROL		Primo anno	Primo semestre	3	ING-INF/04
ELECTRICAL MACHINES I		Primo anno	Primo semestre	6	ING-IND/32
1056316 - POWER ELECTRONICS I AND ELECTRIC POWER SYSTEMS CONTROL AND OPERATION	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters.	Primo anno	Primo semestre	9
ELECTRIC POWER SYSTEMS CONTROL AND OPERATION		Primo anno	Primo semestre	3	ING-IND/33
POWER ELECTRONICS I		Primo anno	Primo semestre	6	ING-IND/32
1038789 - DIGITAL CONTROL AND MICROCONTROLLERS AND DSP AND COMMUNICATIONS	DIGITAL CONTROL The contents of this course include an introduction to control system design. Implementation of digital control algorithms using different approach to control a integrated System. MICROCONTROLLERS This module covers the design, development and maintenance of microcontroller based systems. It includes: (a) Understanding the operation of a microprocessor and a microcontroller; (b) Using design and development tools for creating control applications based on the i8051 and Texas Instruments F28X microcontrollers. DSP AND COMMUNICATIONS In this course, the fundamental concepts and mathematical tools for signal processing and digital signal processing are introduced. Building on this fundamental concepts and tools, simple specific communications applications are presented, demonstrating the full relevance of these topics for the development and implementation of communication technologies.	Primo anno	Primo semestre	9
DIGITAL CONTROL		Primo anno	Primo semestre	3	ING-INF/04
DSP AND COMMUNICATIONS		Primo anno	Primo semestre	3	ING-INF/04
MICROCONTROLLERS		Primo anno	Primo semestre	3	ING-INF/04
1056322 - POWER ELECTRONICS I AND DIGITAL CONTROL	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters. DIGITAL CONTROL The contents of this course include an introduction to control system design. Implementation of digital control algorithms using different approach to control a integrated System.	Primo anno	Primo semestre	9
POWER ELECTRONICS I		Primo anno	Primo semestre	6	ING-IND/32
DIGITAL CONTROL		Primo anno	Primo semestre	3	ING-INF/04
1056314 - POWER ELECTRONICS I AND MICROCONTROLLERS	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters. MICROCONTROLLERS This module covers the design, development and maintenance of microcontroller based systems. It includes: (a) Understanding the operation of a microprocessor and a microcontroller; (b) Using design and development tools for creating control applications based on the i8051 and Texas Instruments F28X microcontrollers.	Primo anno	Primo semestre	9
MICROCONTROLLERS		Primo anno	Primo semestre	3	ING-INF/04
POWER ELECTRONICS I		Primo anno	Primo semestre	6	ING-IND/32
1056321 - POWER ELECTRONICS I AND DSP AND COMMUNICATIONS	POWER ELECTRONICS In this course, the student should be able to identify different power converter topologies and to understand and apply the specific and particular design and control techniques involved in the operation of power converters. DSP AND COMMUNICATIONS In this course, the fundamental concepts and mathematical tools for signal processing and digital signal processing are introduced. Building on this fundamental concepts and tools, simple specific communications applications are presented, demonstrating the full relevance of these topics for the development and implementation of communication technologies.	Primo anno	Primo semestre	9
DSP AND COMMUNICATIONS		Primo anno	Primo semestre	3	ING-INF/04
POWER ELECTRONICS I		Primo anno	Primo semestre	6	ING-IND/32
1056323 - ELECTRICAL MACHINES I AND DSP AND COMMUNICATIONS	LECTRICAL MACHINES The content of this course includes the study of the most used of electrical machines, focusing on power transformers, industrial motors and generators used in conventional and emerging power plants. DSP AND COMMUNICATIONS In this course, the fundamental concepts and mathematical tools for signal processing and digital signal processing are introduced. Building on this fundamental concepts and tools, simple specific communications applications are presented, demonstrating the full relevance of these topics for the development and implementation of communication technologies.	Primo anno	Primo semestre	9
DSP AND COMMUNICATIONS		Primo anno	Primo semestre	3	ING-INF/04
ELECTRICAL MACHINES I		Primo anno	Primo semestre	6	ING-IND/32

**Lo studente deve acquisire 6 CFU dagli esami presenti nel gruppo**
Insegnamento		Anno	Semestre	CFU	SSD
1055941 - ELECTRICAL COMPONENTS AND TECHNOLOGIES FOR POWER SYSTEMS	The main objectives of the Course are: 1) Knowledge of the main insulating and conductive materials. Magnetic materials. 2) Knowledge of the main insulating systems in gas (also SF6), liquids, solids or oil-paper. 3) Knowledge of partial discharge and breakdown phenomena. 4) Knowledge and design of the main HV electrical components as overhead lines, terrestrial and submarine cables; power capacitors, GIS and technologies of the HV SF6 switchgears. 5) Environmental and normative references for HV electrical components (Kioto Protocol, European Directive on REACH and RAEE, Stockholm Protocol).	Primo anno	Primo semestre	6	ING-IND/33
1055942 - POWER SYSTEMS FOR ELECTRICAL TRANSPORTATION	Il corso si propone di fornire gli strumenti idonei per la progettazione dell’elettrificazione di una linea di trasporto di massa (viaggiatori e merci), su rotaia e su strada. A valle della trattazione dei principali sistemi elettrici impiegati per i veicoli dotati di motori elettrici alimentati da una fonte di energia interna ed esterna (la linea di trazione), viene richiesto all’allievo di svolgere una esercitazione che conduca alla simulazione della marcia dei veicoli ferroviari. Successivamente, trattati i principali sistemi di elettrificazione ferroviaria, viene richiesto all’allievo di svolgere la progettazione dell’elettrificazione ferroviaria a partire da un tracciato predefinito e dalla simulazione di marcia precedentemente realizzata.	Primo anno	Primo semestre	6	ING-IND/33
1038474 - POWER ELECTRONICS	In this subject the main types of power converters are taught, focusing on dc-dc converters, with and without isolation, on inverters and on rectifiers.	Primo anno	Primo semestre	6	ING-IND/32
1038476 - ELECTRICAL MACHINES	Sulla base delle conoscenze acquisite nei corsi di Elettrotecnica, l'obiettivo è quello di affrontare lo studio degli apparati di conversione dell'energia, elettrici ed elettromeccanici utilizzati nell'ambito della produzione, della distribuzione e dell' utilizzazione dell'energia elettrica (quali trasformatori, generatori e motori), pervenendo alla individuazione di modelli matematici e circuiti equivalenti che consentano di analizzare il funzionamento degli apparati stessi nelle diverse condizioni e di valutarne le prestazioni. Sono prese in considerazione le principali tipologie di macchine e le diverse condizioni di funzionamento, a regime e in transitorio.	Primo anno	Primo semestre	6	ING-IND/32
1055994 - TELECOMMUNICATIONS IN ELECTRIC POWER SYSTEMS	Il corso si prefigge lo scopo di fornire allo studente gli strumenti per comprendere i meccanismi che sono alla base delle telecomunicazioni partendo da concetti di strato fisico, alla gestione dei collegamenti a alla ottimizzazione delle reti.	Primo anno	Primo semestre	6	ING-INF/03

Obiettivi formativi specifici
Il corso di laurea magistrale in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems) ha l’obiettivo di fornire allo studente approfondite conoscenze teorico-scientifiche e professionali avanzate con competenze specifiche, in particolare di tipo ingegneristico, che gli consentono di interpretare e descrivere problemi complessi dell’Ingegneria Elettrica/Elettrotecnica che possono richiedere anche un approccio interdisciplinare, utilizzando metodi, strumenti e tecniche anche innovativi.
La sua formazione, finalizzata ad ideare, pianificare, progettare e gestire sistemi comunque complessi, è volta anche alla risoluzione dei problemi connessi con la sicurezza degli impianti e con l’impatto ambientale da questi prodotto nei luoghi di insediamento.
Tali capacità sono conseguibili grazie all'arricchimento del solido patrimonio di conoscenze già acquisito con la laurea, che si approfondisce sul piano metodologico ed applicativo attraverso il biennio di studi della laurea magistrale. In tal modo diviene possibile affrontare le problematiche più complesse di sviluppo, di progettazione e di conduzione dei moderni impianti, nonché di contribuire fattivamente all'innovazione ed all'avanzamento scientifico e tecnologico del settore.
La quota dell'impegno orario complessivo a disposizione dello studente per lo studio personale o per altra attività formativa di tipo individuale è pari ad almeno il 60% dello stesso.
Il percorso formativo è svolto interamente in lingua inglese e prevede la mobilità degli studenti all’interno di un consorzio formato tra le seguenti quattro università: Università di Oviedo (Spagna), Università di Nottingham (UK), Università Politecnica di Coimbra (Portogallo), Università degli Studi di Roma “La Sapienza” (Italia). La Laurea Magistrale in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems) è un titolo congiunto emesso e riconosciuto dalle quattro università partner.
Sono previsti tre curricula, il primo dei quali: Sustainable Transportation, è mirato a formare figure professionali con spiccate professionalità in tutto l’ambito dei trasposti elettrici e con particolari accenti sulle tecnologie per veicoli elettrici ed ibridi. Il secondo orientamento - Electrical Power Systems: Technologies for the More Electronic Grid, mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dai profondi cambiamenti che stanno subendo i sistemi elettrici con il crescente utilizzo di convertitori elettronici di potenza e con la creazione di micro-grid e smart-grid. Il terzo orientamento – Electrical Power Systems: Design, Analysis and Operation for the More Efficient and Resilient Grid, mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dalla crescente penetrazione di generazione distribuita e smart grids, nonché dall’avvento del mercato elettrico.
Conoscenze richieste per l'accesso (DM 270/04, art. 6, comma 1 e 2)
Per essere ammessi al percorso “Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems (EMJMD STEPS)”, occorre essere in possesso di una laurea nelle classi L-7, L-8, L-9, che abbiano maturato un minimo di 90 crediti negli ambiti disciplinari riportati nel seguito, suddivisi secondo il seguente schema:
• almeno 45 crediti nei settori scientifico-disciplinari degli ambiti della Matematica, Informatica, Statistica, Fisica e Chimica della classe dell’Ingegneria Industriale;
• almeno 45 crediti nei settori scientifico-disciplinari caratterizzanti le classi dell’Ingegneria Industriale, dell’Informazione e dell’Ingegneria Civile ed Ambientale, dei quali almeno 6 CFU nel SSD ING-IND/31.
Inoltre, gli studenti dovranno possedere una idonea certificazione che attesti una adeguata conoscenza, in forma scritta e parlata, della lingua inglese (livello minimo richiesto: C1).
Essendo il percorso formativo a numero chiuso, per essere ammessi occorrerà inoltre superare una apposita procedura di selezione. Ulteriori informazioni sulla procedura di selezione sono disponibili sul sito www.emjmdsteps.eu.
Descrizione del percorso
Il corso prevede lo svolgimento di attività formative che consentano all’allievo di sviluppare, in ambito lavorativo, quelle capacità indispensabili all’analisi di problemi complessi e alla loro soluzione, alla pianificazione di interventi, alla progettazione di soluzioni anche di tipo innovativo.
Il corso di studio è organizzato in tre curricula.
Curriculum “Sustainable Transportation”
Il curriculum prevede le attività formative obbligatorie riportate in tab. I.
Il percorso formativo si completa effettuando scelte per complessivi 6 CFU tra gli insegnamenti affini riportati in tab. II.
Tab. I
Moduli didattici obbligatori:
Dynamic Analysis and control of AC Machines (and) 6 CFU
Control of Electromechanical Systems 3 CFU
Power Systems for Aerospace, Marine and Automotive Application (and) 5 CFU
Technologies for the Hydrogen Economy 5 CFU
Advanced power Conversion (and) 5 CFU
Advanced Electrical Machines 5 CFU
Advanced AC Drives and Project 10 CFU
Design of hybrid (HEV) and electric vehicles (EV) 9 CFU
Energy storing and recovering in power systems and hybrid/electric vehicles 6 CFU
Applied simulation to electrical transportation (and) 4 CFU
Electromagnetic Compatibility 4 CFU
Sustainable Transportation Laboratory and Project 6 CFU
TOTALE CFU 69
Tab. II
Moduli didattici “affini” facoltativi:
Digital control and Microcontrollers 6 CFU
Power Electronics 6 CFU
Mechanical Background 6 CFU
Electrical Machines 6 CFU
Electric Power Systems 6 CFU
Curriculum Electrical Power Systems: Technologies for the More Electronic Grid.
Il curriculum prevede le attività formative obbligatorie riportate in tab. III.
Il percorso formativo si completa effettuando scelte per complessivi 15 CFU, dei quali 6 CFU tra
gli insegnamenti caratterizzanti elencati in tab. IV e 9 CFU tra gli insegnamenti affini riportati in tab. V.
Tab: III
Moduli didattici obbligatori:
Renewable Generation Technologies (and) 5 CFU
Technologies for Wind Generation 5 CFU
Combined Heat and Power (and) 5 CFU
FACTS and Distributed Generation 5 CFU
Advanced AC Drives and Project 10 CFU
Smartgrids and Microgrids 9 CFU
Applied Simulation to Power Systems (and) 3 CFU
Control of Power Convertes for FACTS and HVDC Applications 3 CFU
Power Systems Laboratory and Project (and) 6 CFU
Electrical Energy and Cooperation for Development 3 CFU
Design of Power Converters for Energy Storage Applications 6 CFU
TOTALE CFU 51
Tab. IV
Moduli didattici caratterizzanti facoltativi:
Power Plants 6 CFU
Electric Power Systems I 6 CFU
Distribution Systems 6 CFU
Electrical Machines I 6 CFU
Power Electronics I 6 CFU
Tab. V
Moduli didattici affini facoltativi:
Digital control (and) 3 CFU
Microcontrollers (and) 3 CFU
Electric Power Systems Control and Operation 3 CFU
Digital control (and) 3 CFU
DSP and Communications (and) 3 CFU
Electric Power Systems Control and Operation 3 CFU
Microcontrollers (and) 3 CFU
DSP and Communications (and) 3 CFU
Electric Power Systems Control and Operation 3 CFU
Digital control (and) 3 CFU
Microcontrollers (and) 3 CFU
DSP and Communications 3 CFU
Electrical Machines I (and) 6 CFU
Electric Power Systems Control and Operation 3 CFU
Electrical Machines I (and) 6 CFU
Digital control 3 CFU
Electrical Machines I (and) 6 CFU
Microcontrollers 3 CFU
Electrical Machines I (and) 6 CFU
DSP and Communications 3 CFU
Power Electronics I (and) 6 CFU
Digital Control 3 CFU
Power Electronics I (and) 6 CFU
Electric Power Systems Control and Operation 3 CFU
Power Electronics I (and) 6 CFU
Microcontrollers 3 CFU
Power Electronics I (and) 6 CFU
DSP and Communications 3 CFU
Curriculum Electrical Power Systems: Design, Analysis and Operation for the More Efficient and Resilient Grid).
Il curriculum prevede le attività formative obbligatorie riportate in tab. VI.
Il percorso formativo si completa effettuando scelte per complessivi 6 CFU tra gli insegnamenti affini riportati in tab VII.
Tab: VI
Moduli didattici obbligatori:
Electric Power Systems (and) 6 CFU
Introduction to Renewable Energies 3 CFU
Combined Heat and Power (and) 5 CFU
FACTS and Distributed Generation 5 CFU
Advanced Electrical Machines and Project 10 CFU
Power Systems for Aerospace, Marine and Automotive Application (and) 5 CFU
Energy Storage 5 CFU
Applied Simulation to Power Systems (and) 3 CFU
Control of Power Convertes for FACTS and HVDC Applications 3 CFU
Economical and Financial Analysis (and) 3 CFU
Electrical Energy and Cooperation for Development 3 CFU
Advanced Power Systems Design and Analysis (and) 6 CFU
Analysis and Simulation of Railway Power Systems 3 CFU
Elctrical Markets (and) 5 CFU
Project Management for Conventional and Renewable Energy Applications 4 CFU
TOTALE CFU 69
Tab. VII
Moduli didattici “affini” facoltativi:
Electrical Components and Technologies for Power Systems 6 CFU
Power Systems for Electrical Transportation 6 CFU
Power Electronics 6 CFU
Telecomunications in Electric Power Systems 6 CFU
Electrical Machines 6 CFU
Per tutti i curricula, il corso di laurea si completa con l’acquisizione di:
• 12 CFU, ai sensi dell’art.10, comma 5, lett. A del D.M. 22 ottobre 2004, n. 270,
• 15 CFU, mediante attività di tirocinio,
• 18 CFU, mediante attività di tesi che, indirizzata dal Consiglio d’Area, è mirata alla progettazione o all’analisi. Compatibilmente con i tempi dell’Allievo e con le disponibilità operative, il Consiglio d’Area stimolerà la sinergia ed il confronto con il mondo del lavoro. La tesi di laurea permette la verifica del grado di preparazione raggiunto dall’Allievo, della sua maturità tecnico–scientifica, della sua capacità di inserimento nell’ambiente lavorativo.
L’acquisizione dei CFU associati ai singoli moduli didattici è subordinata al superamento di un esame che prevede una prova orale ed eventualmente una prova scritta. Possono essere effettuate, durante il periodo in cui si svolge l’insegnamento, prove che contribuiscono alla valutazione finale.
Caratteristiche della Prova Finale
La prova finale consiste nello svolgimento di una tesi teorica, sperimentale o progettuale su argomenti relativi agli insegnamenti del corso di laurea magistrale, da svilupparsi sotto la guida di un docente appartenente al consorzio delle quattro Università, anche in collaborazione con enti pubblici e privati, aziende manifatturiere e di servizi, centri di ricerca operanti nel settore di interesse.
Nel corso della elaborazione della tesi lo studente dovrà, in primo luogo, analizzare la letteratura tecnica relativa all'argomento in studio e procedere successivamente ad una sintesi delle conoscenze già acquisite.
A valle di questa fase il laureando, in maniera autonoma e a seconda della tipologia della tesi, dovrà:
• nel caso di lavoro progettuale, individuare soluzioni al problema proposto con una modellizzazione che consenta di analizzare la risposta del sistema in corrispondenza a variazioni delle variabili caratteristiche del sistema stesso, analizzando gli aspetti tecnologici, economici, della sicurezza, dell'impatto ambientale e del controllo,
• nel caso di lavoro sperimentale, elaborare un piano della sperimentazione che consenta di ottenere i risultati desiderati e presentare una modellizzazione dei risultati ottenuti per consentire l’applicazione dei risultati sperimentali anche in condizioni diverse da quelle investigate.
I risultati del lavoro dell’Allievo sono documentati da un elaborato che viene sottoposto alla Commissione degli Esami di laurea. La valutazione da parte di tale Commissione dell’elaborato concorre alla formazione del voto finale. La valutazione della tesi di laurea è effettuata con riferimento all’attualità delle tematiche studiate, alla modernità ed all’innovazione delle tecniche di studio proposte, al grado di importanza dei risultati ottenuti. Particolare attenzione viene dedicata alla capacità di sintesi del candidato, all’efficacia della trattazione e alla qualità della presentazione.
All’attività di tesi sono attribuiti 18 CFU
Sbocchi professionali
La cultura ad ampio spettro che il laureato in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems) acquisisce consente un’ampia flessibilità in ambito professionale con opportunità presso aziende elettromeccaniche e manifatturiere, imprese e società di ingegneria, enti pubblici e privati che operano nel settore dell’approvvigionamento energetico e dell’utilizzazione dell’energia elettrica, aziende per la commercializzazione dell’energia elettrica, ecc..
Sono di seguito elencati in sintesi i principali sbocchi professionali di un laureato magistrale in Ingegneria Elettrotecnica (Erasmus Mundus Joint Master Degree on Sustainable Transportation and Electrical Power Systems):
− aziende per la produzione, generazione, trasmissione e distribuzione dell’energia elettrica;
− aziende per la commercializzazione dell’energia elettrica;
− enti pubblici e privati che operano nel settore dell’approvvigionamento energetico e dell’utilizzazione dell’energia elettrica;
− industrie per la produzione di apparecchiature e macchinari elettrici;
− aziende manifatturiere con grande impegno di energia non soltanto di natura elettrica (aziende chimiche, meccaniche, elettroniche, …):
− aziende per i servizi di gestione e manutenzione di impianti ed apparecchiature elettriche ed elettroniche;
− aziende pubbliche e private ospedaliere, cliniche, case di cura e della sanità;
− aziende di mobilità e movimentazione (trasporto ferroviario e di trasporto locale: autobus, filovie, tranvie, metropolitane), enti di gestione di aeroporti, porti, enti di gestione gallerie stradali ed autostradali, parcheggi e strade;
− enti pubblici (comuni, province, regioni …);
− aziende private come ingegnere di sistema;
− enti in cui è richiesta la figura del responsabile della pianificazione energetica ed ambientale (energy manager);
− enti in cui è richiesta la figura del responsabile della sicurezza, prevenzione e protezione, del responsabile di impresa, di impianto e di conduzione dell’attività lavorativa;
− ASL come controllori in relazione ai problemi di sicurezza;
− libera professione, grandi aziende di progettazione e studi di Ingegneria;
− attività di ricerca e sviluppo attive presso grandi aziende pubbliche e/o private (ad es. Alenia, Ansaldo, Enel, Fiat, STM, RFI, Trenitalia, ABB, Bombardier, Daimler-Benz, Ford, General Electric, Intel, Siemens, …), italiane e/o comunitarie, nonché nel pubblico impiego (ad es. istituti superiori, Università, CNR,ENEA, INFN, CERN).

Il corso prevede lo svolgimento di attività formative che consentano all’allievo di sviluppare, in ambito lavorativo, quelle capacità indispensabili all’analisi di problemi complessi e alla loro soluzione, alla pianificazione di interventi, alla progettazione di soluzioni anche di tipo innovativo.
Sono previsti tre curricula, il primo dei quali - “SustainableTransportation”- è mirato a formare figure professionali con spiccate professionalità in tutto l’ambito dei trasposti elettrici e con particolari accenti sulle tecnologie per veicoli elettrici ed ibridi. Il secondo orientamento – “ElectricalPower Systems” (Technologies for the More Electronic Grid) – mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dai profondi cambiamenti che stanno subendo i sistemi elettrici con il crescente utilizzo di convertitori elettronici di potenza e con la creazione di micro-grid e smart-grid. Il terzo orientamento – “ElectricalPower Systems” (Design, Analysis and Operation for the More Efficient and ResilientGrid) – mira invece a formare figure professionali capaci di affrontare con le necessarie competenze le complesse sfide per i sistemi elettrici derivanti dalla crescente penetrazione di generazione distribuita e smartgrids, nonché dall’avvento del mercato elettrico.

Allegati

rd_e_manifesto_emjmd_steps_2018-19.pdf