Academic structure and content overview
EMSSE is a new training initiative that seeks to propose a complete programme covering all Systems Engineering components, with a specific emphasis on sustainability and innovation.
The academic path comprises two academic years (120 ECTS credits). Each year is split into two semesters, indicated hereinafter as MxSy where Mx (i.e., M1 and M2) is referred to the year of study and Sy (i.e., S1 and S2) is referred to the specific semester of that year. The program of the first year is devoted to establishing a deep and jointly designed background on SE topics. Moreover, during M1S1, each HEI will offer language courses to be attended by all students, whereas during M1S2, a course will be devoted to public speaking, collaborative working, and project-based learning.
The second year is aimed at providing EMSSE students with a specialization related to three relevant SE areas. Then, in the second year, the course teaching is structured around three academic paths, covering the following three main areas of system engineering:
Path1: SoSE — Systems of Systems Engineering led by UniGe
This training path addresses and analyses the methods and tools for designing and implementing methods and software tools working behind autonomous mutually interacting systems, i.e., systems of systems (SoS). These systems generally show capabilities related to perception, communication, learning, decision-making and action, and are able to interact with their environment and with similar systems. They must also handle numerous sources of uncertainty that can impact performance and, consequently, monitor the performance and the behavior of the whole system. More specifically, this training path aims at providing modelling and methodological approaches to sensing, actuation, and control in order to describe and analyses a system, and take decisions based on the available data in a distributed, predictive and/or adaptive manner, thereby performing “smart actions”. The student will approach such smart systems by studying proper models and methods in different application contexts, such as connected autonomous vehicles and platooning, drones, smart power grids and energy efficient buildings, distributed logistics, and environmental monitoring. The first semester of second year will take place at UNIGE, which have full potential of experimental platforms and recognized research/teaching teams in this field.
There are two mobility paths for SoSE:
- Mobility path 1 (UTC-UPT-UniGe) ;
- Mobility path 2 (UPC-UPT- UniGe).
Path 2: AOS — Advanced machine learning and Optimisation of Systems led by UTC
This training path focuses on learning theory/practice and optimization, as applied to autonomous interacting technology-intensive systems. The focus will be in decision making and decision support in the context of complex systems with advanced optimization methods also capable of treating the presence of uncertainty. The applications will refer to ‘autonomous vehicles able to communicate with each other, to smart transport system infrastructures, to airborne mini drones, and to sensor networks that exchange data in real time, to logistic warehouses needing for prediction real-time data analysis, simulation and optimization. The platforms available in the Heudiasyc Laboratory (autonomous vehicle, virtual reality, railway simulator or mini drones) are at disposal of master students. The studied systems implement machine learning, decision-making and action capabilities, while interacting with their environment and other systems. The first semester of second year will take place at UTC, which is successfully experiencing a master specialization track, combining optimization and machine learning.
There are two mobility paths for AOS:
- Mobility path1 (UPC-UPT-UTC) ;
- Mobility path 2 (UniGe-UPT-UTC).
Path 3: AMS — Advanced Manufacturing Systems led by UPC
Today’s society demands breakthrough technologies in emerging areas as digital industry and smart factories. Facing such challenges requires that interdisciplinary engineering teams work together to come up with creative, reliable, ethical and sustainable solutions. One of the key factors in leading successful projects is for professionals from different areas to have strong skills in modern engineering methods such as big data, 3D printing, smart sensors, and computer simulation. This training path has been designed to enhance students’ academic background with such skills, thus preparing them for the future. The specializations will allow them to face real problems in the emerging area of smart factories. During the training path, planning, scheduling and control problems will be formalized and solved according to the framework proposed by the ANSI/ISA-95 international standard. Special focus will be devoted to the primary and support functions given by the Manufacturing Execution System (MES). At the end of the training path, the student will be able to position an industrial automation problem in the context of ANSI/ISA-95 and to formalize and to solve decision-making problems, using proper methods and tools. The first semester of second year will mostly take place at UPC which is fully equipped for experimentation and have also a long successful experience on this area.
There are two mobility paths for AMS:
- Mobility path1 (UTC-UPT-UPC) ;
- Mobility path 2 (UniGe-UPT-UPC).
In the last semester M2S2, students have the opportunity to work on their Master Thesis in the most suitable context for their project, which can be a “research lab environment” or a company in which the student can perform an internship period.