THREE-DIMENSIONAL MODELING

Course objectives

GENERAL PURPOSE: Acquiring fundamentals of materials science and engineering applied to industrial engineering. The course is intended to provide the fundamentals of both Science and Technology of Materials, and is formulated taking into account the needs of students with different potential careers in the field of industrial engineering. Students who will complete their studies with a three-year degree, as well as those who will not include in their future curriculum further knowledge in the field of Materials, will be able to draw from the course a knowledge already directly applicable in the field of Industrial Engineering (with particular reference to the Chemical Industry, but also to the Metallurgical, Mechanical, Electrotechnical Industry) and Civil Engineering. On the basis of the acquired knowledge gained on the properties of the different classes of materials, they will be able to consciously and appropriately select the materials suitable for different applications, they will recognize the conditions of possible risk in operation, they will be able to choose the most suitable tests to evaluate the performance of the materials and they will be able to integrate with professionalism in the management of the technological phases of production. Students wishing to pursue a master degree with a stronger specialization will be provided with the basic knowledge needed to deal with further preparation, making use of a complete articulation of knowledge on the relationships between the microstructure of materials, their properties and the production/processing operations. This will enable them to design with/for materials, becoming an active part of the evolution path from "traditional" materials to "advanced" materials.

Channel 1
CECILIA BARTULI Lecturers' profile

Program - Frequency - Exams

Course program
The course is organized in two modules: a more general module of 8 CFU on materials science and technology (SSD ING-IND/22) and a module of 4 CFU more specifically dedicated to the themes of metallurgy (SSD ING-IND/21). The two modules are totally integrated with each other, and the program, with numerous interactions and frequent reciprocal recalls, is carried out in parallel with lectures evenly distributed throughout the teaching period. The program is developed in the following themes: - Introduction to Materials Science and Engineering - Atomic Structure and Bonding - Crystal and Amorphous Structures in Materials - Solidification, Crystalline Imperfections - Thermally Activated Processes and Diffusion in Solids - Mechanical Properties and Mechanical Testing of Materials - Phase Diagrams - Engineering Alloys - Polymeric Materials - Ceramics - Composite Materials - Fundamentals of Corrosion and Protection of Materials
Prerequisites
- The exam of Chemistry represents a formal pre-requisite. - Knowledge of fundamentals of Organic Chemistry may be useful for a full understanding of the nature and properties of polymeric materials. - Knowledge of fundamentals of Physics and Structural Mechanics can be useful for the conscious and appropriate selection of materials endowed with the desired mechanical properties for components subject to different stresses, as well as for the understanding of characterization tests. - The ability to choose, integrate autonomously, ask and sometimes precede is a fundamental attitude for a future engineer.
Books
W.F. Smith, J. Hashemi: "Scienza e Tecnologia dei Materiali", Mc Graw Hill
Frequency
The attendance to the lectures, though encouraged, is not mandatory. However, in case of autonomous preparation for the final interview, students are strongly recommended to seek for previous contact with the teacher, in order to be given important directions on the general sense of the course and on specific critical aspects.
Exam mode
The assessment will be based on the results of an oral interview, aimed at verifying the acquisition of the following knowledge and skills: - knowledge of microstructure, properties, design, production and transformation processes, use, analysis, characterization and degradation of materials of interest for industrial engineering; - ability to apply this knowledge to select the materials suitable for different applications, to recognize the conditions of possible risk in operation, to choose the most appropriate tests to evaluate the performance of materials. One single interview is taken for the two modules. The first question, addressed to all students, concerns the "Fe-C state diagram". The minimum grade for passing the exam (18/30) is achieved only if the student demonstrates a sufficient degree of knowledge of the equilibrium conditions of the iron-based alloys for increasing carbon content, and of the relative microstructures, and if he/she shows to be able to discuss the fundamental correlations between such microstructures and the main mechanical and technological properties of steels and cast irons. For the final vote the following aspects will be considered: - the level of knowledge - the ability to securely correlate different topics - the ability of applying knowledge to the solution of problems of limited complexity in the field of materials engineering - the ability to communicate the acquired knowledge and to illustrate the technical solutions proposed with clarity using a proper technical vocabulary. In order to obtain the highest marks (30/30 cum laude), the student must demonstrate that he/she has acquired excellent knowledge of all the topics covered in the course, and that he/she can apply this knowledge to the solution of problems in the field of industrial engineering, proposing original solutions and showing the results of an autonomous extension of knowledge.
Lesson mode
The activities are organized in: - face-to-face lectures (for the acquisition of knowledge) - exercises for the solution of engineering problems of limited complexity
  • Academic year2025/2026
  • CourseChemical Engineering
  • CurriculumSingle curriculum
  • Year2nd year
  • Semester1st semester
  • SSDING-IND/22
  • CFU8