CODE 98222 ACADEMIC YEAR 2023/2024 CREDITS 8 cfu anno 1 ENGINEERING TECHNOLOGY FOR STRATEGY (AND SECURITY) 10728 (LM/DS) - GENOVA SCIENTIFIC DISCIPLINARY SECTOR ING-IND/17 LANGUAGE English TEACHING LOCATION GENOVA SEMESTER Annual TEACHING MATERIALS AULAWEB OVERVIEW This course deals with developing Models and Solutions to analyze Complex Systems and it is developed in synergy with experts of different fields. The course is divided into two main parts: - Modeling and Design of Complex Systems (M&DCS) in Industry - Modeling and Design of Complex Systems (M&DCS) in Defense & Homeland Security Attendees will have to use simulators, tools and AI engines to address realistic problems cooperating with Experts to learn how to apply theories proposed in lectures AIMS AND CONTENT LEARNING OUTCOMES Foundation on Complex Systems. Transfer of knowledge about Simulation Paradigms and Modeling Methodologies effective for addressing Complex Systems.. Transfer of capabilities to analyze real problems and case studies corresponding to Complex Systems. Acquisition of skills in Conceptual Modeling applied to Complex Problems. Acquisition of Skills in design of Simulation Architectures and Model Development applied to Complex Systems. AIMS AND LEARNING OUTCOMES Main Achievements include acquiring skills on: Methodologies and Techniques to Analyze Complex Systems Modeling and Simulation of Complex Systems Combining Data Analytics and Simulation Combining AI and Simulation A Posteriori and A Priori Analysis Experimental Analysis and Data Farming Decision Support in Complex Systems PREREQUISITES The Course does not require specific prerequisites, being accessible to University students and including all the elements and references necessary for the Candidates; therefore basics know-how in engineering, mathematics, statistics and computer use could be useful to improve the Candidate learning curve and performance. TEACHING METHODS Frontal Lectures presenting Theory and practical application of Methodologies related to Modelling and Simulation for Complex Systems. Individual and Team Work Exercises in developing Conceptual Models and verifying, validating, tuning and conducting experiments on Simulators of Complex Systems. Training and Education of the Students in Virtual Experiences within Simulation Labs by using directly the presented methodologies and techniques in realistic problems and case studies using M&S solutions. Educational material available linked to the course on Web site on www.itim.unige.it/strategos Teachers include top experts in this field such as: Prof. Agostino G. Bruzzone, agostino.bruzzone@simulationteam.com Full Professor in Genoa University, President Simulation Team, Further NATO R&D Program Leader Col.Michele Turi (PhD in M&S), michele.turi@simulationteam.com Colonel in Italian Army and Director of NATO M&S Center of Excellence Ing, Federico Tarone (PhD in M&S), federico.tarone@simulationteam.com Business Unit Manager in Major Consulting Company SYLLABUS/CONTENT Introduction to the Complex Systems of the class. Definition of Complex Systems and Emergent Behaviors. Complexity Classes, Attributes, Level of Complexity. Computational Complexity, Kolmogorov complexity, Krohn–Rhodes theory, Network Complexity, Hierarchical Complexity. Complex System Subjects: Dynamic Structures and Complex Dynamics, Complexity in Physical and Chemical systems, Biological Systems, Human Systems, Engineering and Artificial Systems. System of System Engineering and Industrial Plants as examples of Complex Systems. Conceptual Modelling for Complex Systems. Live, Virtual and Constructive Simulation applied to Complex Systems. Challenges in Verification, Validation and Accreditation of Simulators dealing with Complex Systems. Example of Modeling Complex Systems: Stochastic Systems, Multiparticle Systems, Multibody Systems, Models used in Systems of Systems Engineering. Examples of Simulation for different real case of Complex Systems: Case Studies related to real Industrial, Business and Defense Frameworks Strategic Analysis and Decision Making related to Complex Systems, Design and Reengineering of Complex Systems based on Quantitative Modelling & Simulation Techniques for Identification and Analysis of Emergent Behaviors Simulation Paradigms of M&S for Complex Systems; theoretical foundations of interoperable Simulation, distributed simulation, MS2G, MSaaS. Interoperable Simulation and Modelling Solution for Complex Systems. Design of Models and Development of Simulators and Federations of Simulators. Human Behavior Modeling and Intelligent Agents reproducing Population and Social Systems. Operational Expertise in using Modeling and Simulation (M&S) and related experimental methodologies and techniques to investigate complex systems and to support related decision making processes. Lean Simulation: Concept, Methodologies and Techniques, Modeling and Simulation applied to Early Stage Evaluation of Large Programs. Methodologies and Techniques for applying M&S in SME (Small Medium Size Enterprises). Simulation as enabler for Applying Artificial Intelligence and Intelligent Agents in Industrial and Defense Applications: Nested and Combined Simulation to support Decision Making and Planning. Artificial Intelligence Techniques integrated with Simulation for Strategic Decision Making. Strategic Decision Making Based on Simulation in Defense over Multiple Join Domains: M&S of Joint Operations over a Comprehensive Approach and Simulation for Transformation (e.g. Autonomous Multi Domain Systems, Hybrid Warfare, Threat Networks). Simulation of Complex Systems in Business and Industrial Plants (e.g. MOSES, CUMANA, LEM, LEXIS, GreenLog, SISOM). Simulation of Complex Systems in Defense and Homeland Security(e.g. JESSI, CAPRICORN, IA-CGF, IDRAS). Direct Experiences in applying different Simulation Tools, Models, Soft Computing Intelligent Agents and technologies to address specific problems involving Complex Systems (e.g. MISCHIEF, SIMCJOH, T-REX, DT). Experimentation and Use of Simulation Environments: e.g. LEM Simulation for Strategic Planning in Automotive Industry, MOSES Simulator for Evaluating Sustainability of new Industrial Plant into a Region. GreenLog Green Logistics Modeling. FRINE Simulation and Artificial Intelligence for Production Planning over the Supply Chain, COMADREJA Company Model for Process Reengineering, CALYPSO Life Cycle Simulation for New Carrier in Ship Building, LEXIS Industrial Plant Reorganization Simulator, CUMANA Simulation for Competitive and Cooperative Education & Training of Industrial Managers. MEGACITY Models of Development for Logistics, Safety and Energy, SISOM VR & AR for New Service Models, SECSIM Port Simulation, Logos Simulator for Strategic Planning of Fleet, Marlon SOUCI Simulation for Critical Industrial Infrastructure Protection from Physical and Cyber Threats etc.) Educational material available by link on web site on www.itim.unige.it/strategos RECOMMENDED READING/BIBLIOGRAPHY Banks, J. (1998) "Handbook of Simulation: Principles, Methodology, Advances, Applications and Practice", John Wiley & Sons, ISBN 978-0471134039 Bossomaier, T.R. & Green, D.G. (2000) “Complex systems”, Cambridge University Press, UK Bruzzone, A.G. & Massei, M. (2017) "Simulation-Based Military Training", in Guide to Simulation-Based Disciplines, Springer, pp. 315-361, ISBN 978-3319612638 Bruzzone A.G., Giambiasi N., Gambardella L.M., Merkuryev Y.A. (2001) "Harbour, Maritime & Multmodal Logistics Modelling & Simulation 2001", SCS Europe Publishing House, ISBN 90-77039-03-1 Bruzzone, A.G., Kerckhoffs (1996) "Simulation in Industry", SCS Europe Publishing House, Vol. I & II, ISBN 1-56555-099-4 Clemen R.T, Reilly T. (2001) "Making Hard Decisions", Duxbury, Pacific Grove CA McLeod, J. (1982) “Computer Modeling and Simulation: Principles of Good Practice”, Society for Computer Simulation, San Diego, ISBN 978-9992501733 Montgomery, D.C. (2000) "Design and Analysis of Experiments", John Wiley & Sons, New York Stern, C.W., Stalk, G. (1998) "Perspective on Strategy", John Wiley & Sons, Hoboken, NJ Spiegel, M.R., Schiller, L.J.(1999) "Statistics", McGraw Hill, NYC Zeigler, B.P., Praehofer, H. & Kim, T. G. (2000) "Theory of Modeling and Simulation integrating Discrete Event and Continuous Complex Dynamic Systems", Elsevier, Academic Press, ISBN 978-0127784557 TEACHERS AND EXAM BOARD AGOSTINO BRUZZONE Ricevimento: It follows lectures schedule (right before/after). For any special need or request, please contact Prof. Agostino Bruzzone at agostino@itim.unige.it. Additional contact: Marina Massei +39 019 219 45251 Additional contact: Marco Gotelli marco.gotelli@unige.it MICHELE TURI MARCO GOTELLI Ricevimento: An appointment must be arranged by email. Exam Board AGOSTINO BRUZZONE (President) RICCARDO BERTA ROBERTO CIANCI GIULIANO FABBRINI BHARATH KUMAR GADUPURI FEDERICO TARONE MARCO GOTELLI (President Substitute) LESSONS LESSONS START https://corsi.unige.it/10728/p/studenti-orario Class schedule The timetable for this course is available here: Portale EasyAcademy EXAMS EXAM DESCRIPTION Multiple Experiences carried out in Virtual Labs where the Students are evaluated on Simulation Exercises and Experiences, based on Individual and in team working by Collaborative and/or Competitive approach, representing Micro Projects devoted to address specific issues within realistic complex problems by using M&S (e.g. MISCHIEF, SIMCJOH, T-REX, DT). Some Homeworks will be provided to the students as reporting on class works and simulations. Final Exam will be carried out by Oral Exam including review of the Simulation Exercises & Experiences and by requiring to demonstrate skills in conceptual modeling and simulation development. ASSESSMENT METHODS Oral exam with review of Exercises and Experiences carried out in Class as well as discussion over homeworks. Exam schedule Data appello Orario Luogo Degree type Note 26/12/2023 10:00 GENOVA Orale 22/01/2024 10:00 GENOVA Orale 19/06/2024 10:00 GENOVA Orale 16/07/2024 10:00 GENOVA Orale 20/08/2024 10:00 GENOVA Orale 10/09/2024 10:00 GENOVA Orale FURTHER INFORMATION Time Zone A: Genoa, Italy (CET), GMT+1 (normally), during daylight saving time GMT+2 Agenda 2030 - Sustainable Development Goals Good health and well being Quality education Clean water and sanitation Affordable and clean energy Industry, innovation and infrastructure Sustainable cities and communities