Environmental Engineering focuses on the planning, design, and management of: complex water systems; hydraulic defense systems for protecting the territory; water, air, and soil decontamination projects; energy resource exploitation projects in line with sustainable environmental and territorial policies; environmental quality control and monitoring systems; and the assessment of environmental impacts and compatibility for plans and infrastructure projects.
Overview of the program
- ELEMENTS OF MATHEMATICS 6 CFU - 46 hours 1st semester
- INTRODUCTION TO POWER SYSTEMS AND ELECTRICAL MACHINES 9 CFU - 77 hours 2nd semester
- ENVIRONMENTAL PHYSICS AND HYDRAULIC SYSTEMS 9 CFU - 86 hours 1st semester
- FLUID MECHANICS AND ADVANCED HYDRAULICS 12 CFU - 100 hours Annual
- PLANNING OF ENERGY CONVERSION SYSTEMS 6 CFU - 60 hours 2nd semester
- WATERWORKS AND SEWERAGE SYSTEMS PROJECT 6 CFU - 66 hours 2nd semester
- VALORIZATION AND OPTIMIZATION OF RESIDUES FROM WATER AND WASTE TREATMENT 6 CFU - 50 hours 1st semester
- ENERGY CONVERSION AND RENEWABLE ENERGY SOURCES 6 CFU - 45 hours 2nd semester
- GENERAL MICROBIOLOGY 6 CFU - 45 hours 1st semester
- CLIMATE DYNAMICS AND CHANGES 6 CFU - 45 hours
- FLUVIAL HYDRAULICS 6 CFU - 60 hours
- SOLAR AND BIOMASS ENERGY SYSTEMS 6 CFU - 45 hours
- HYDROELECTRIC AND WIND POWER PLANTS 6 CFU - 46 hours
- FINAL EXAM 21 CFU - 0 hours
- WASTE ENERGY RECOVERY 3 CFU - 25 hours
- WATER ENERGY SUSTAINABLE URBAN DEVELOPMENT 6 CFU - 50 hours
- BUILDING ACOUSTICS 3 CFU - 29 hours
- COMPUTATIONAL FLUID DYNAMICS 6 CFU - 51 hours
- ELEMENTS OF OFFSHORE ENGINEERING AND MARITIME HYDRAULICS 6 CFU - 52 hours
- FLOOD PROPAGATION 6 CFU - 50 hours
- FLUVIAL PROTECTION WORKS 6 CFU - 49 hours
- PHOTOGRAMMETRY, LIDAR AND GIS 6 CFU - 61 hours
- DESIGN OF SHELL STRUCTURES 6 CFU - 45 hours
- HYDRAULIC MEASUREMENTS 3 CFU - 23 hours
- HYDROLOGICAL MODELING AND CLIMATE CHANGE 6 CFU - 55 hours
- DESIGN OF WASTEWATER AND DRINKING WATER TREATMENT PLANTS 6 CFU - 52 hours
- RELIABLE DESIGN AND MANAGEMENT OF URBAN HYDRAULIC INFRASTRUCTURES 6 CFU - 51 hours
- SAFETY IN ENGINEERING AND TECHNOLOGY 3 CFU - 24 hours
- SUSTAINABILITY SCIENCE IN THE BUILT ENVIRONMENT 3 CFU - 23 hours
- URBAN PLANNING TECHNIQUES 6 CFU - 60 hours
- WASTEWATER TREATMENT AND RESOURCES RECOVERY TECHNOLOGIES 6 CFU - 48 hours
- ELEMENTS OF MATHEMATICS 6 CFU - 46 hours 1st semester
- ENVIRONMENTAL PHYSICS AND HYDRAULIC SYSTEMS 9 CFU - 86 hours 1st semester
- HYDROLOGICAL MODELING AND CLIMATE CHANGE 6 CFU - 55 hours Annual
- FLUID MECHANICS AND ADVANCED HYDRAULICS 12 CFU - 100 hours Annual
- GENERAL MICROBIOLOGY 6 CFU - 45 hours 1st semester
- WATERWORKS AND SEWERAGE SYSTEMS PROJECT 6 CFU - 66 hours 2nd semester
- VALORIZATION AND OPTIMIZATION OF RESIDUES FROM WATER AND WASTE TREATMENT 6 CFU - 50 hours 1st semester
- TECHNICAL ARCHITECTURE 6 CFU - 50 hours 2nd semester
- PHOTOGRAMMETRY, LIDAR AND GIS 6 CFU - 61 hours 2nd semester
- SAFETY IN ENGINEERING AND TECHNOLOGY 3 CFU - 24 hours 2nd semester
- SUSTAINABILITY SCIENCE IN THE BUILT ENVIRONMENT 3 CFU - 23 hours 1st semester
- URBAN PLANNING TECHNIQUES 6 CFU - 60 hours 2nd semester
- TRENCHLESS TECHNOLOGIES FOR HYDRAULIC INFRASTRUCTURES 3 CFU - 32 hours 2nd semester
- CLIMATE CHANGE IMPACTS ON WATER ECOSYSTEMS 6 CFU - 45 hours
- DESIGN OF SHELL STRUCTURES 6 CFU - 45 hours
- HYDRAULIC MEASUREMENTS 3 CFU - 23 hours
- HYDROELECTRIC PLANTS 3 CFU - 23 hours
- DESIGN OF WASTEWATER AND DRINKING WATER TREATMENT PLANTS 6 CFU - 52 hours
- FINAL EXAM 21 CFU - 0 hours
- WASTE ENERGY RECOVERY 3 CFU - 25 hours
- ADVANCED TREATMENTS OF DRINKING WATER AND WASTEWATER 9 CFU - 70 hours
- BUILDING ACOUSTICS 3 CFU - 29 hours
- COMPUTATIONAL FLUID DYNAMICS 6 CFU - 51 hours
- CONTAMINATION AND REMEDIATION TECHNOLOGIES FOR SOILS AND GROUNDWATER 6 CFU - 52 hours
- PUBLIC ECONOMICS 6 CFU - 40 hours
- ETHICS FOR SUSTAINABLE PROJECTS 6 CFU - 45 hours
- FLUVIAL PROTECTION WORKS 6 CFU - 49 hours
- FOUNDATION SYSTEMS AND EARTH-RETAINING STRUCTURES 6 CFU - 50 hours
- COASTAL HYDRODYNAMICS 3 CFU - 26 hours
- WIND POWER PLANTS 3 CFU - 23 hours
- RELIABLE DESIGN AND MANAGEMENT OF URBAN HYDRAULIC INFRASTRUCTURES 6 CFU - 51 hours
- STRUCTURAL ENGINEERING AND MECHANICS C 6 CFU - 63 hours
- WATER ENERGY SUSTAINABLE URBAN DEVELOPMENT 6 CFU - 50 hours
- ELEMENTS OF MATHEMATICS 6 CFU - 46 hours 1st semester
- CONTAMINATION AND REMEDIATION TECHNOLOGIES FOR SOILS AND GROUNDWATER 6 CFU - 52 hours 1st semester
- ENVIRONMENTAL PHYSICS AND HYDRAULIC SYSTEMS 9 CFU - 86 hours 1st semester
- PHOTOGRAMMETRY, LIDAR AND GIS 6 CFU - 61 hours 2nd semester
- HYDROLOGICAL MODELING AND CLIMATE CHANGE 6 CFU - 55 hours Annual
- LANDSLIDES HAZARD AND RISK 6 CFU - 58 hours 2nd semester
- FLUID MECHANICS AND ADVANCED HYDRAULICS 12 CFU - 100 hours Annual
- WATERWORKS AND SEWERAGE SYSTEMS PROJECT 6 CFU - 66 hours 2nd semester
- TECHNICAL ARCHITECTURE 6 CFU - 50 hours 2nd semester
- CLIMATE DYNAMICS AND CHANGES 6 CFU - 45 hours 2nd semester
- SATELLITE EYES ON WATER: TRACKING HUMAN & NATURAL IMPACTS 3 CFU - 24 hours 2nd semester
- SUSTAINABILITY SCIENCE IN THE BUILT ENVIRONMENT 3 CFU - 23 hours 1st semester
- URBAN PLANNING TECHNIQUES 6 CFU - 60 hours 2nd semester
- TRENCHLESS TECHNOLOGIES FOR HYDRAULIC INFRASTRUCTURES 3 CFU - 32 hours 2nd semester
- FLUVIAL HYDRAULICS 6 CFU - 49 hours
- FLUVIAL PROTECTION WORKS 6 CFU - 49 hours
- HYDRAULIC MEASUREMENTS 3 CFU - 23 hours
- HYDROELECTRIC PLANTS 3 CFU - 23 hours
- FINAL EXAM 21 CFU - 0 hours
- BUILDING ACOUSTICS 3 CFU - 29 hours
- COMPUTATIONAL FLUID DYNAMICS 6 CFU - 51 hours
- FOUNDATION SYSTEMS AND EARTH-RETAINING STRUCTURES 6 CFU - 50 hours
- GEOTECHNICAL EARTHQUAKE ENGINEERING 6 CFU - 51 hours
- COASTAL HYDRODYNAMICS 3 CFU - 26 hours
- WIND POWER PLANTS 3 CFU - 23 hours
- ROAD INFRASTRUCTURE DESIGN AND MANAGEMENT 6 CFU - 52 hours
- WASTE ENERGY RECOVERY 3 CFU - 25 hours
- RELIABLE DESIGN AND MANAGEMENT OF URBAN HYDRAULIC INFRASTRUCTURES 6 CFU - 51 hours
- SAFETY IN ENGINEERING AND TECHNOLOGY 3 CFU - 24 hours
- STRUCTURAL ENGINEERING AND MECHANICS C 6 CFU - 63 hours
- SNOW AVALANCHES AND RELATED MOUNTAIN NATURAL HAZARDS 6 CFU - 45 hours
- CLIMATE DYNAMICS AND CHANGES 6 CFU - 45 hours 2nd semester
- CONTAMINATION AND REMEDIATION TECHNOLOGIES FOR SOILS AND GROUNDWATER 6 CFU - 52 hours 1st semester
- CONTINUUM MECHANICS 6 CFU - 48 hours 1st semester
- GROUNDWATER RESOURCES 6 CFU - 48 hours 2nd semester
- HYDROLOGICAL MODELING AND HYDRAULIC INFRASTRUCTURES 12 CFU - 106 hours Annual
- NUMERICAL METHODS IN ENGINEERING SCIENCES 6 CFU - 46 hours 1st semester
- SATELLITE DATA ANALYSIS 6 CFU - 45 hours 1st semester
- SUSTAINABLE MANAGEMENT OF WATER RESOURCES IN AGRICULTURE 6 CFU - 58 hours 2nd semester
- COMPUTATIONAL FLUID DYNAMICS 6 CFU - 51 hours 2nd semester
- GEOMATICS FOR PRECISION AGRICULTURE 3 CFU - 24 hours 1st semester
- LANDSLIDES HAZARD AND RISK 6 CFU - 58 hours 2nd semester
- PLANNING OF ENERGY CONVERSION SYSTEMS 6 CFU - 60 hours 2nd semester
- SATELLITE EYES ON WATER: TRACKING HUMAN & NATURAL IMPACTS 3 CFU - 24 hours 2nd semester
- SUSTAINABILITY SCIENCE IN THE BUILT ENVIRONMENT 3 CFU - 23 hours 1st semester
- THERMAL MANAGEMENT FOR INDUSTRIAL AND SPACE APPLICATIONS 6 CFU - 56 hours 2nd semester
- CLIMATE CHANGE IMPACTS ON WATER ECOSYSTEMS 6 CFU - 45 hours
- ENVIRONMENTAL PLANNING AND ASSESSMENT 9 CFU - 93 hours
- FLUVIAL HYDRAULICS AND FLOOD PROPAGATION 12 CFU - 99 hours
- MASTER THESIS 21 CFU - 0 hours
- DESIGN OF HYDRAULIC STRUCTURES FOR ENVIRONMENT PROTECTION 6 CFU - 50 hours
- HYDRAULIC MEASUREMENTS 3 CFU - 23 hours
- ITALIAN LANGUAGE FOR FOREIGN STUDENTS 3 CFU - 23 hours
- DESIGN OF HYDRAULIC STRUCTURES FOR ENVIRONMENT PROTECTION 6 CFU - 50 hours
- SNOW AVALANCHES AND RELATED MOUNTAIN NATURAL HAZARDS 6 CFU - 45 hours
Educational goals
This Master's degree course aims to equip professionals with a thorough knowledge of the theoretical and practical aspects of the fundamental engineering disciplines. These professionals will be able to identify, analyse, address and solve the main problems, including complex ones, that are typical of environmental engineering, adopting an innovative approach where necessary. The training activity, where special emphasis will be placed on methodological aspects, will be structured in such a way as to provide advanced engineering skills to engage in highly qualified activities in the following professional fields: - Planning, designing and managing complex water systems, management of natural resources and urban and territorial service networks; - Planning, designing and managing hydraulic land defence systems; - Planning, designing and managing water, air and soil remediation works; -Urban and local area planning, including by using geomatics and environmental remote sensing tools; - Planning and managing the exploitation of energy resources in accordance with sustainable environmental and local area policies. - Planning, designing and managing quality control and monitoring systems; - Assessing the environmental impacts and compatibility of plans and works; - Monitoring and managing actions to counter the effects of climate change; - Assessing risks brought on by climate change. In particular, the course can be divided into several categories, each aimed at enabling students to gain further insights into different aspects of environmental engineering, such as: - Local area-related issues pertaining to the design of hydraulic works for land protection, the analysis of environmental pollution events and the design and management of environmental quality monitoring and control systems; - System-related issues pertaining to the design and management of complex hydraulic systems and water and soil remediation works; - Energy-related issues pertaining to the planning, design and management of energy production systems based on hydroelectric, solar, wind and biological renewable sources and their integration into the environment; Issues related to resilience in view of the effects of climate change pertaining to the management of land and environment, planning of complex systems across local areas, and assessment of the environmental impact of infrastructure in local areas where climate change is having an increasing impact on the management of water resources, land protection and soil conservation. With regard to the development of engineering aspects, special emphasis will be placed on generalising the theoretical and practical content delivered in the previous Bachelor's degree course. This will ensure that the training provided remains relevant and enables students to tackle new problems with confidence, while equipping them with the conceptual tools to keep up to date with necessary changes over time. At the same time, these educational programmes will enable students to gain hands-on experience with experimental investigation tools (such as hydraulic, hydrological, and environmental quality measurement equipment) and numerical tools (such as simulations of phenomena using deterministic and stochastic mathematical models), which are currently employed in advanced environmental engineering approaches. During their training, students will also gain the necessary knowledge of the economic and legal context of the areas in which they will be working. The Master's degree course also aims to equip students with the knowledge to inform any subsequent in-depth studies as part of Master's degree and Doctorate programmes. In order to improve students' language skills with regard to the correct use of technical terminology, accustom them to working and learning in an international context, and increase international student participation and attendance, part of the training programme may be delivered in English, with a special curriculum being defined.
Career opportunities
Environmental engineer. The main employment opportunities for environmental engineers include: - Freelance work — carried out individually or within engineering firms — in the field of planning, design, work supervision, testing of works and in the field of consultancy, monitoring activities and environmental impact analysis; - Employment in companies operating nationally and internationally in the construction and maintenance of civil works, plants and infrastructure (water systems, hydroelectric plants, flood protection, urban and industrial sewage and wastewater treatment plants, solid waste treatment plants, environmental protection systems and remediation of contaminated sites); - Employment in companies, organisations, consortia and agencies for the management of works and services (city-owned firms, reclamation and irrigation consortia, aqueduct consortia, purification consortia); - Employment in professional firms and engineering companies working in the field of design, work supervision and testing of works and in the assessment of impacts and environmental compatibility of plans and works; - Employment in public planning, design and management offices of urban and local area systems (i.e., municipalities, provinces, regions); - Employment in environmental control and protection organisations (i.e., Environmental Agencies, Basin Authorities, Local Health Authorities). - Employment in public administration at a national and international level (authorities, institutions and agencies dealing with the management and planning of natural and urban areas) as experts in the control and management of measures to mitigate the effects of climate change; - Employment in insurance and consulting firms to estimate climate change-induced risks; - Employment with organisations engaging in the research, development and production of innovative technological solutions for the environment
Admission requirements
To be admitted to the Master's degree course in Engineering for the Environment and the Territory, students must hold a degree, which may have been obtained under the regulations in force prior to Ministerial Decree 509/1999, as amended from time to time) or a three-year university degree, or an academic title obtained abroad, provided that it is recognised as eligible by the relevant University’s bodies. The meeting of curricular requirements and the adequacy of the student's initial preparation is also needed for admission. Admission to the Master's degree course in Engineering for the Environment and the Territory requires a solid foundation in engineering disciplines, with a strong grasp of core subjects and those specific to engineering. Based on the training objectives pursued by the course, the scientific subjects covered include hydraulics and hydraulic construction, as well as sanitary engineering and construction science and technology. In particular, students enrolling in the Master's degree course are also required to meet the following curricular entry prerequisites: - at least 30 ETCS credits in core subjects (MAT/01, MAT/02, MAT/03, MAT/04, MAT/05, MAT/06, MAT/07, MAT/08, FIS/01, FIS/02, FIS/03, CHIM/03, CHIM/07) - at least 60 ECTS credits in the following specific subjects (ICAR/01, ICAR/02, ICAR/03, ICAR/04, ICAR/05, ICAR/06, ICAR/07, ICAR/08, ICAR/09, ICAR/10, ICAR/11, ICAR/17, ICAR/20, BIO/07, CHIM/12, GEO/02, GEO/05, GEO/11, INF/01, ING-IND/11, ING-IND/24, ING-IND/25, ING-IND/27, ING- IND/28, ING-IND/29, ING-IND/30, ING-IND/31, ING- IND/35, ING-INF/04, ING-INF/05). Curricular requirements are set out in the Teaching Regulations, where details are provided regarding the minimum number of university credits that candidates must have acquired in their previous career, with reference to the (i) various training activities laid down by the current legislation, (ii) above-mentioned scientific subject-specific sectors, and/or (iii) groups of scientific subject-specific sectors. The Teaching Regulations also define the level of English language proficiency required and the procedures for assessing students' backgrounds according to the criteria and methods set out therein.