20801631 -
COMPUTATIONAL MECHANICS
(objectives)
Computational Mechanics is a teaching aimed at providing a deep knowledge on physical-mathematical problem of civil engineering. The course is aimed mainly to develop the skills required for the implementation of numerical models with the software Mathematica for the solution of many mathematical models introduced during the teaching. The numerical methods proposed are based on variational formulation of the mathematical problems, finite elements methods (FEM) and finite difference Method. The teaching belongs to the “Ingegneria Civile Per la Protezione dai Rischi Naturali” master course, which aims at training engineers towards high professional levels in the fields of the protection of both environment and civil infrastructures from hydrogeological and seismic hazards. In such framework the teaching aims at defining suitable mathematical-numerical models in the framework of civil engineering and solve them with the help of the software Mathematica. Upon successful completion of the course, students will be able to: 1) use Mathematica to solve many problems of civil engineering 2) to classify the mathematical models (elliptic, hyperbolic, parabolic…) 3) use suitable numerical schemes for the resolution of many mathematical problem (variational methods, FEM, finite difference method)
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SCIORTINO GIAMPIERO
( syllabus)
Classification of first order system of partial differential equations: elliptic, parabolic, hyperbolic system. Second order partial differential equations. Variational formulation of elliptic problems. Approximate variational methods: Galerkin and Ritz-Rayleigh method, finite element method FEM. Finite difference methods: consistence, convergence, stability. Examples and programs: deformation and vibrations of bars, plate and membranes, numerical solution of elliptic, hyperbolic and parabolic problems.
( reference books)
Download handouts: http://host.uniroma3.it/docenti/sciortino/
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6
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MAT/07
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54
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20801651 -
STRUCTURAL DYNAMICS
(objectives)
Structural dynamics is a basic course that aims at providing fundamental knowledge concerning the dynamical response in the linear regime of typical civil engineering structures, in order to develop the skills necessary for the deployment and analysis of simple mechanical models to make sensible design choices as regards the response of a structure to dynamic inputs. This course is part of the master's degree program in "Civil Engineering for Protection from Natural Risks", which aims at training a civil engineer with high professional qualifications in the protection from hydrogeological and seismic hazards. The course aims at provide an in-depth knowledge 1) of the methods for setting up mathematical models that capture the essential aspects of the dynamic response of a structure; 2) basic concepts for the study of linear systems with a finite number of degrees of freedom; 3) of the essential concepts for the study of the dynamic response of continuous systems. At the end of the course students will be able to: 1) know how to use the methods of theoretical mechanics and mechanics of structures to schematize a real structure using a model that captures the essential aspects of the dynamic response; 2) evaluate the dynamic response of systems with a finite number of degrees of freedom; 3) evaluate the dynamic response of continuous systems.
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TOMASSETTI GIUSEPPE
( syllabus)
The simple oscillator. Undamped free oscillations. Representation of the solution through the complex notation. Assignment of the initial conditions. Energy conservation. Free damped oscillations. Damping factor. Subcritical, critical, supercritical case. Methods for estimating the damping factor. Harmonic excitation of systems with one degree of freedom. Forced oscillations in the absence of damping. Resonance curves. Forced oscillations in the presence of damping. Amplification factor, quality factor, polygon of forces, dissipated power. Stationary solutions. Distributed mass systems. Rigid bodies and linear elastic beams. Rotational springs. Deduction of the equations of motion for mechanical systems which combine devices with concentrated elasticity, rigid bodies, material points and beams without mass. Static condensation. Analysis in the frequency domain. Periodic functions, Fourier series, fundamental frequency and Fourier coefficients, fundamental interval and prolongation of a periodic function, odd and even functions, Dirichlet’s Theorem. Fourier series in complex form. Spectrum of a periodic function. Determination of the steady-state response of linear systems subject to periodic forcing. Spectrum of the amplitudes and spectrum of the phases. Fourier transform. Autocorrelation function. Spectral density function. Parseval theorem. Analysis in the time domain. Response to the unit impulse, relationship with the Fourier transform. Arbitrary excitation. Duhamel’s integral. Linear systems with more degrees of freedom. Modal analysis. Natural frequencies and vibration modes. Rayleigh quotient. Modal matrix. Principal coordinates. Modal mass- and stiffness-matrices. Proportional dissipation matrix. Vibrations of frames. Methods for the construction of the stiffness matrix: the displacement method and the finite-element method. Consistent mass matrices. Introduction to vibration analysis of continuous systems: beams, frames and plates.
( reference books)
A. Chopra, Dynamics of Structures - a primer, Earthquake Engineering Research Institute R.W. Clough and J. Penzien, Dynamics of Structures, Computers & Structures Inc. L. Meirovitch, Fundamentals of Vibrations, McGraw-Hill.
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6
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ICAR/08
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54
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20810101 -
METODI NUMERICI E STATISTICI PER L'INGEGNERIA CIVILE
(objectives)
Numerical and statistical methods for Civil Engineering aims at providing students with fundamental knowledge on numerical and statistical methods for civil engineering problems, and at developing the competences required for designing and coding simple numerical and statistical models, also to learn how apply high level softwares for engineering analysis. The course aims at providing in depth knowledge of 1) a technical/scientific programming language; 2) main numerical methods for the solution of ordinary and partial differential equations; 3) descriptive and inferential statistics. Students shall be able of: 1) using a technical/scientific programming language to develop numerical models and to carry out statistical analyses; 2) designing, developing, validating and applying algorithms for the integration of ordinary and partial differential equations of interest for the civil engineering field; 3) carrying out statistical analysis on large datasets; 4) designing and carrying out statistical analyses; 5) finding and understanding scientific publications for specific problems of interest, also using scientific search engines/databases (Scopus, Web Of Science)
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BELLOTTI GIORGIO
( syllabus)
1-Introduction to programming in Matlab 2-Ordinary differential equations 3-Partial differential equations 4-Descriptive statistics 5-Inferential statistics
( reference books)
-Lecture notes -Chapra S., 2018. Applied Numerical Methods with MATLAB for Engineers and Scientists, 4th Edition, McGrawHill Education. -Chapra S., Canale R., 2015. Numerical Methods for Engineers 7th Edition, McGrawHill Education. -Ross S. M., 2015. Probabilità e statistica per l'Ingegneria e le scienze, Apogeo Education. -Navidi W., 2006. Probabilità e statistica per l'Ingegneria e le scienze, Apogeo McGraw-Hill.
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6
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MAT/06
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54
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20802082 -
CONSTRUCTIONS IN SEISMIC ZONES
(objectives)
The course of Earthquake Engineering is part of the master's degree program in Civil Engineering for Natural Risk Mitigation, which aims to train a civil engineer with high professional qualifications concerning the hydrogeological and seismic risk mitigation. As part of the Master degree program, the course of Earthquake Engineering provides the basic tools for the design and safety verification of civil structures in earthquake prone regions. The program includes the methodologies for the engineering representation of the seismic action, the fundamentals of the seismic behaviour of buildings, the principles of design of earthquake-resistant structures. The characteristics of earthquake motions are illustrated starting from the fault rupture, the propagation of seismic waves, up to the local registration and the engineering representation of earthquake load, and seismic hazard. The basics of the dynamic response of SDOF and MDOF systems under earthquake motions are recalled. The basic principles of design with regards to structural typologies and regularity are presented and the methods for structural analysis are illustrated. The criteria of design and detailing of structural elements in reinforced concrete are finally presented.
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DE FELICE GIANMARCO
( syllabus)
The course provides the basic tools for the design and safety verification of civil structures in earthquake prone regions. The course illustrates the methodologies for the engineering representation of the seismic action, the fundamentals of the seismic behaviour of buildings, the principles of design of earthquake-resistant structures. The characteristics of earthquake motions are illustrated starting from the fault rupture, the propagation of seismic waves, up to the local registration and the engineering representation of earthquake load, and seismic hazard. The basics of the dynamic response of SDOF and MDOF systems under earthquake motions are recalled. The basic principles of design with regards to structural typologies and regularity are presented and the methods for structural analysis are illustrated. The criteria of design and detailing of structural elements in reinforced concrete are finally presented.
List of topics: • Seismology: faults and propagation of seismic waves • Magnitude, macroseismic intensity, maps and seismic classification • Seismic response of Single Degree of Freedom systems • Seismic response of Multi Degrees of Freedom systems • Earthquake resistant buildings: basic principles of design. • Structural typologies and criteria for structural regularity • Structural analysis: linear and non-linear methods • Modelling multistorey reinforced concrete buildings • Design and safety verifications of RC structural elements • Reference Codes and Standards
( reference books)
• Castellani, A., Faccioli, E., Progetto ansisismico degli edifici in c.a., Hoepli, 2008.
• Faccioli E., Paolucci R. Elementi di Sismologia applicata all’Ingegneria. Pitagora Editrice, Bologna, 2005.
• Cosenza, E., Maddaloni, G., Magliulo, G., Pecce, M., Ramasco, R., Progetto Antisismico di Edifici in Cemento Armato, IUSS Press, 2007.
• AICAP (a cura di), Progettazione sismica di edifici in c.a., guida all’uso dell’Eurocodice 2 con riferimento alle Norme Tecniche DM 14.1.2008, Voll. 1-2, 2008.
• Parducci, A. Fondamenti di Ingegneria Sismica in 80 lezioni, Liguori Editore, 2011.
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8
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ICAR/09
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72
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Optional group:
STRUTTURE Orientamento unico AFFINI INTEGRATIVE - (show)
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12
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20801616 -
APPLIED GEOLOGY
(objectives)
IT PRESENTS AN OVERVIEW OF EARTH SCIENCES, ILLUSTRATING THE BASIC CONCEPTS OF GEOLOGY: THE FORM, MATERIALS, INTERNAL DYNAMICS, GEOLOGICAL CYCLES. IT PROVIDES THE BASIC TOOLS FOR READING AND INTERPRETATION OF GEOLOGICAL MAPS AT DIFFERENT SCALES. IT PROVIDES THE SKILLS NECESSARY TO INTERPRET THE GEOLOGICAL SURVEY. IT PROVIDES INFORMATION RELATING TO NATURAL HAZARDS, NATURAL RESOURCES AND ENVIRONMENTAL IMPACT
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Derived from
20801616 GEOLOGIA APPLICATA in Ingegneria civile L-7 N0 MAZZA ROBERTO
( syllabus)
The course program includes the presentation and discussion of the following topics: Introduction to Geology: the uniqueness of planet Earth; aspects of geology, the Earth's crust - the processes affecting the surface (the model of the Earth's relief, the sedimentary processes, sedimentary rocks), the body of the Earth - the internal process (the interior of the Earth, the earthquakes, volcanic phenomena, igneous rocks, metamorphic rocks; lithogenetic cycle, plate tectonics) deformation of the crust (lithological succession, the deformation of rocks, the geometry of geological bodies ). The "craft" of the geologist: the geological survey (preliminary research, materials and methods, analysis and interpretation of geological maps, reading and interpretation of thematic maps), the geological-technical survey (principal physical and mechanical properties of earth and rocks, the geological exploration of subsoil). Engineering Geology: Slope instabilities; hydrogeology; study of the geological context related to planning issues (the geological hazard); first intervention on the territory; redevelopment (urban geology.)
( reference books)
JOHN P. GROTZINGER, THOMAS H. JORDAN – Capire la Terra – Edizione italiana a cura di Elvidio Lupia Palmieri e Maurizio Parotto – Zanichelli, Bologna LAURA SCESI, MONICA PAPINI, PAOLA GATTINONI – Principi di Geologia applicata – Casa Editrice Ambrosiana, Milano VARIOUS MATERIAL PROVIDED BY THE TEACHER
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6
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GEO/05
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54
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20801617 -
MATERIALS FOR CIVIL ENGINEERING
(objectives)
THE AIM OF THE CLASS IS TO ACQUIRE THE KNOWLEDGE OF THE MATERIALS USED IN CIVIL ENGINEERING, TO PERFORM TESTS ON MATERIALS AND TO COMPREHEND THE ENVIRONMENTAL IMPACT FROM THEIR USE.
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Derived from
20801617 MATERIALI PER L'INGEGNERIA CIVILE in Ingegneria civile L-7 N0 LANZARA GIULIA
( syllabus)
Introduction to Material Science and Technologies, snap-shots of continuum mechanics, Atomic bonds, Dislocations, Mechanical behavior of materials, Fracture, Materials for Civil Engineering (metals, polymers, concrete, composites, wood), Standards, An overview of new materials for Civil Engineering and of the new frontiers (intelligent materials, self-healing materials, nanocomposites etc.), Laboratory experience (Multifunctional Materials Laboratory)
( reference books)
lectures given during the course
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6
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ING-IND/22
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54
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20801621 -
ENVIRONMENTAL HEALTH ENGINEERING
(objectives)
The main scope of the course is to provide students with the basic knowledge of environmental engineering. The course belongs to the three-year degree in Civil Engineering, whose aim is to prepare students in civil engineering by providing tools for the design, construction, maintenance and management of civil structures and infrastructures, such as buildings, bridges, tunnels, transport systems, hydraulic works and land protection. Road Materials is also a course of the master degrees in Road Infrastructures and Transport and Civil Engineering for Protection from Natural Risks, whose objective is training a highly professional figure in civil engineering with specific knowledge and skills in road infrastructures design and management and transportation issues and protection from hydrogeological and seismic risks, respectively. Within such framework, the course aims at providing students with the basic knowledge and understanding about 1) the biotic and abiotic environment, with references to ecology, chemistry and biology principles; 2) the reference environmental legislation; 3) water, atmosphere and soil quality parameters; 4) the processes of diffusion of pollutants in the environment; 5) treatment techniques. Upon successful completion of the course, students will be able to 1) evaluate the quality parameters of water, atmosphere and soil in relation to the current legislation 2) analyze the different engineering techniques of water, atmosphere and soil treatment in function of the type of pollutant; 3) basic knowledge of the integrated management of urban solid waste.
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Derived from
20801621 INGEGNERIA SANITARIA-AMBIENTALE in Ingegneria civile L-7 N0 FIORI ALDO
( syllabus)
Chemestry and biology principles • Ecology • Water environment: water quality, water pollution, potabilization plants, waste water, waste water treatments. • Air pollution: pollutants and system for emission treatment • Solid waste: integrated waste management system, waste characteristics, collection systems, recovery operations, reuse and recycling, final disposal in a controlled landfill. • Reclamation of contaminated sites • Reference national laws (D.Lgs. 152/2006)
( reference books)
Ingegneria sanitaria-ambientale, Carlo Collivignarelli, Giorgio Bertanza, Città studi edizioni, 2012
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6
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ICAR/03
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54
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20801641 -
PUBLIC WORKS' LEGISLATION AND LAW
(objectives)
THE COURSE AIMS TO PROVIDE STUDENTS WITH BASIC KNOWLEDGE REGARDING THE MANAGEMENT OF PUBLIC WORKS IN THE FIELD OF CIVIL ENGINEERING. PARTICULAR REFERENCES WILL BE DONE TO THE CURRENT REGULATIONS, THE ADMINISTRATIVE PROCEDURES, AND CONCEPTUAL AND METHODOLOGICAL ASPECTS FROM WHICH THE RELATED TECHNICAL ACTIVITIES DERIVE.
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20801641-2 -
DIRITTO DEI LAVORI PUBBLICI
(objectives)
FORMATIVE AIMS THE COURSE AIMS TO PROVIDE STUDENTS WITH BASIC KNOWLEDGE REGARDING THE MANAGEMENT OF PUBLIC WORKS IN THE FIELD OF CIVIL ENGINEERING. PARTICULAR REFERENCES WILL BE DONE TO THE CURRENT REGULATIONS, THE ADMINISTRATIVE PROCEDURES, AND CONCEPTUAL AND METHODOLOGICAL ASPECTS FROM WHICH THE RELATED TECHNICAL ACTIVITIES DERIVE.
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3
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IUS/10
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27
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20801641-1 -
DIRITTO AMMINISTRATIVO E DELL'AMBIENTE
(objectives)
FORMATIVE AIMS THE COURSE AIMS TO PROVIDE STUDENTS WITH BASIC KNOWLEDGE REGARDING THE MANAGEMENT OF PUBLIC WORKS IN THE FIELD OF CIVIL ENGINEERING. PARTICULAR REFERENCES WILL BE DONE TO THE CURRENT REGULATIONS, THE ADMINISTRATIVE PROCEDURES, AND CONCEPTUAL AND METHODOLOGICAL ASPECTS FROM WHICH THE RELATED TECHNICAL ACTIVITIES DERIVE.
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3
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IUS/10
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27
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20802041 -
RETROFITTING OF STRUCTURES
(objectives)
The course of Rehabilitation of Structure is part of the master's degree program in Civil Engineering for Natural Risk Mitigation, which aims to train a civil engineer with high professional qualifications concerning the hydrogeological and seismic risk mitigation. As part of the Master degree program, the course of rehabilitation of structures aims at providing the fundamental tools for the assessment of existing masonry constructions. The program includes the mechanics of masonry structures, the typical damage state, the methods for survey and field testing, and the design criteria and the technologies for structural rehabilitation.
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DE FELICE GIANMARCO
( syllabus)
Methods for structural assessment of structures The yield design theory Yield design theory of masonry structures Diagnosis techniques and experimental evaluation of mechanical properties Structural assessment of arched and vaulted structures Damages induces by crushing, soil settlement and earthquake action Structural assessment od masonry structures in seismic area Seismic analysis against local collapse mechanisms Shear strength of masonry panels and seismic global analysis Structural rehabilitation techniques: examples and design projects.
( reference books)
Pisani, M.A., Consolidamento delle Strutture, Hoepli, Milano, 2012 Giuffré, A. Letture sulla meccanica delle murature storiche, Ed. Kappa, Roma. Mastrodicasa, S., Dissesti statici delle strutture edilizie, Hoepli, Milano, 1993.
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6
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ICAR/19
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54
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20810070 -
SUSTAINABILITY AND ENVIRONMENTAL IMPACT
(objectives)
TO PROVIDE STUDENTS WITH KNOWLEDGE ON ENVIRONMENTAL IMPACTS OF HUMAN ACTIVITIES, TO CLASSIFY THE IMPACTS, TO ILLUSTRATE THE CONCEPT OF SUSTAINABILITY, TO DESCRIBE THE EVALUATION PROCEDURES OF ENVIRONMENTAL IMPACT AND ENVIRONMENTAL CERTIFICATION PROTOCOLS. ILLUSTRATE , THROUGH SIGNIFICANT CASE STUDIES, EXAMPLES OF ENVIRONMENTAL IMPACT ASSESSMENT AND OF IMPACTS MITIGATION.
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6
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ING-IND/11
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48
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20810106 -
SICUREZZA E ORGANIZZAZIONE DEL LAVORO IN CANTIERE
(objectives)
Safety at work and environmental defence aims at providing knowledge and competences on safety at work in civil engineering construction activities, with specific focus on rules and laws and on the professional roles in the field. At the end of the course students shall be able of acting as coordinators safety measurements design and implementation according to the Italian laws.
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Derived from
20810106 SICUREZZA E ORGANIZZAZIONE DEL LAVORO IN CANTIERE in Ingegneria civile L-7 ALFARO DEGAN GUIDO
( syllabus)
uridical Section Italian Decree 81/08 and BS Ohsas 18001: Occupational health and safety management system: Comparison between Italian Law and International Standards. The continual improvement and the Deming circle according with the PDCA approach (Plan Do Check Act). Compliance with standards and legal obligations: general features and aspects. The main phases of risk management process: hazard identification, risk assessment and controls. Correspondence between OHSAS 18001 and other related International standards (ISO 14001 and ISO 9001)
Technical Section Safety and building worksites organization (including Law obligations); safety and health risks at building worksites ( (occupational diseases, excavations, demolitions, underground and tunnel works, noise, vibrations, environmental remediation, asbestos, manual handling of loads (MMdC), fire, etc.) Prevention and protection measures, organizational procedures, risk prevention techniques during assembly, dismantling and installation of structures, means and construction elements; falling from above risk, case studies. Evaluation of noise and vibration risk: exercises and applications; asbestos (MCA) risk, safe cleaning / demolition / treatment of MCA. Scaffolding and temporary works, safe construction and management techniques. Study cases.
Organization Section The PSC - security and coordination plan (contents, criteria and methods, examples and project); the POS Operative security plan; communication and cooperation techniques; the “Fascicolo tecnico” (Operational Safety Plan and Workbook); processing methods of the Pi.M.U.S. (Assembly Plan, Use, Disassembly of Scaffolding); methodological criteria for processing and management of documentation; estimate of the costs of safety on site.
PSC examples, area risk analysis, analysis and assessment of interference, the importance of planning and organization; tutorials and applications. Examples of Safety Subsidiary Plans (PSS); examples and case studies, practical applications based on drafting of specific PSCs; judgments and sanctions concerning shipyard safety; role simulations (Coordinator).
( reference books)
handouts, books and tests distributed by the teacher
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6
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ING-IND/28
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54
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