Education

UNIVERSITY courses

BIOFUELS: PRODUCTION AND APPLICATIONS 

(Teachers: Doct. Gioele Di Marcoberardino and Matteo Galloni)

The aim of the course is to provide the basic principles (chemical, physical and thermodynamic) of the traditional processes for biofuels production and application. Students will also be able to develop simple technical-economic analyses of these processes. 

ENERGY CONVERSION SYSTEMS 

(Teacher: Prof. Paolo Giulio Iora, Prof. Costante Mario Invernizzi and Michele Doninelli)

The aim of the course is to ensure that the student learns and acquires a basic methodology to evaluate the performances of most common conversion energy systems, understands the criteria for a proper choice of components and machines necessary for the realization of energy systems and acquires a good capacity to model typical conversion energy systems.

Integrated course (Teacher: Eng. Elio Gabriele Mazzi): "Heat recovery systems from process and industrial gas"

 


ENERGY SYSTEMS MODELLING 

(Teacher: Doct. Gioele Di Marcoberardino and Michele Doninelli)

The aim of the course is to provide the basic principles for the characterization and the design of the main components of traditional energy systems. Students will also be able to develop numerical projects using a commercial code (Aspen Plus). 

FLUID MACHINERY AND ENERGY CONVERSION SYSTEMS (Teacher: Prof. Paolo Giulio Iora, Mattia Baiguini and Michele Doninelli)

The course provides an understanding of engineering components, machinery and equipment that ensure the production and use of energy, with particular attention to the technical and economic aspects, energy efficiency and environmental protection. The knowledge acquired during the course can be applied to the resolution of problems relating to the design of components used in energy conversion systems (e.g. turbomachinery and heat exchangers).

INNOVATIVE TECHNOLOGIES FOR ENERGY DECARBONIZATION 

(Teachers: Prof. Paolo Giulio Iora and Mattia Baiguini)

Innovative Technologies for Energy Decarbonization provides the engineering knowledge related to the technologies that allow to reduce the carbon footprint in industrial processes and in the production electricity, heat, and cooling, with particular attention to the use of renewable energies and hydrogen as energy carrier. Finally, the aim of the course is to provide the correct communication skills in the technical language adopted in this context.

Integrated course (Teacher: Eng. Elio Gabriele Mazzi): "Nuclear Energy"


TECHNOLOGIES FOR SUSTAINABLE MOBILITY 

(Teacher: Prof. Paolo Giulio Iora and Daniele Beltrami)

The course provides basic knowledge on the principles of operation, the thermodynamic characteristics and technology, the economic implications, and prospects for use of engines and non-traditional fuels currently under study, development, or testing. The course focuses particularly on engines and power trains of electric, hybrid and fuel cell vehicles. Finally, the aim of the course is to provide the correct communication skills in the technical language adopted in this context.


TECHNOLOGIES OF THE RENEWABLE ENERGIES 

(Teacher: Prof. Costante Mario Invernizzi and Mattia Baiguini)

The aim of the course is to ensure that the student learns and acquires the reasons and the concepts underlying the particular characteristics of the renewable energy sources, understands the ways of a proper choice of the devices and of the technical and economic design (albeit preliminary) for the systems of energy conversion and of the production of electricity and heat through the use of renewable energies.

Phd courses

FUEL CELLS SYSTEM FOR POWER PRODUCTION: FROM THE FUNDAMENTALS AND THE MULTI PHYSICS MODELLING TO THEIR APPLICATIONS 

(Teacher: Doct. Gioele Di Marcoberardino)

Starting from the description of the different types of fuel cells, the course covers:

1.  Definition of the basic principles and the main operating parameters

2.  Fuel cell system modelling and applications: plant layout, energy balance, efficiency, and some practical examples

3.  Multi physics modelling of fuel cell stacks

4.  The numerical framework towards implementation of Multi physics models of fuel cell stacks