The course provides the elements and methods useful for a critical materials selection, used in the field of aerospace engineering, evaluating not only the fundamental characteristics such as performance and durability, but also those linked to sustainable selection, carbon footprint, reduction of energy consumption, pollutant emissions, noise, accidents and their consequences.
The specific aims of the course will be: to enable students to understand process/structure/property correlations in advanced materials, and assess how this affect performance through a rational material selection process; to enable students to understand and control material failure in aerospace applications; to evaluate sustainability issues in the selection of materials for aerospace; to provide students with the most advanced tools for materials selection in aerospace applications; tTo provide students with comprehensive knowledge on the main classes of advanced materials for aerospace, including high-temperature alloys, advanced ceramics, composites and advanced coatings for aerospace applications.
The specific aims of the course will be: to enable students to understand process/structure/property correlations in advanced materials, and assess how this affect performance through a rational material selection process; to enable students to understand and control material failure in aerospace applications; to evaluate sustainability issues in the selection of materials for aerospace; to provide students with the most advanced tools for materials selection in aerospace applications; tTo provide students with comprehensive knowledge on the main classes of advanced materials for aerospace, including high-temperature alloys, advanced ceramics, composites and advanced coatings for aerospace applications.
Curriculum
teacher profile teaching materials
The teaching program is structured as follows:
1. Introduction to aerospace materials;
2. Materials science and technology fundamental concepts (recap of the bachelor course principles)
3. Material requirements for aerospace structures and engines
4. Key Aspects of Materials Selection for aerospace design
5. Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
6. Polymeric materials for aerospace applications
7. Fiber–polymer composites for aerospace structures and engines
8. Metal matrix, fiber–metal and ceramic matrix composites for aerospace applications
9. Fatigue of aerospace materials
10. Corrosion of aerospace metals
11. Creep of aerospace materials
12. non destructive testing on aerospace materials
Testo: W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale - EdiSES
Gestione del corso: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Esercitazioni: su dispense del docente e su Moodle
Slide proiettate a lezione: in pdf su Moodle
Dispense online sul sito STM, www.stm.uniroma3.it
https://www.edises.it/default/callister-materiali-per-l-ingegneria-civile-e-industriale.html
Bibliography
W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale – EdiSES
Mutuazione: 20830038 Aerospace Materials in Ingegneria Aerospaziale LM-20 R SEBASTIANI MARCO, LANZARA GIULIA
Programme
The course on Aerospace Materials falls within the scope of the characterizing activities of the IMAT-01/A sector.The teaching program is structured as follows:
1. Introduction to aerospace materials;
2. Materials science and technology fundamental concepts (recap of the bachelor course principles)
3. Material requirements for aerospace structures and engines
4. Key Aspects of Materials Selection for aerospace design
5. Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
6. Polymeric materials for aerospace applications
7. Fiber–polymer composites for aerospace structures and engines
8. Metal matrix, fiber–metal and ceramic matrix composites for aerospace applications
9. Fatigue of aerospace materials
10. Corrosion of aerospace metals
11. Creep of aerospace materials
12. non destructive testing on aerospace materials
Core Documentation
TextbooksTesto: W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale - EdiSES
Gestione del corso: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Esercitazioni: su dispense del docente e su Moodle
Slide proiettate a lezione: in pdf su Moodle
Dispense online sul sito STM, www.stm.uniroma3.it
https://www.edises.it/default/callister-materiali-per-l-ingegneria-civile-e-industriale.html
Bibliography
W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale – EdiSES
Attendance
The course is divided into approximately 25 frontal classroom lessons. A series of lessons, in particular those on the most advanced and frontier aspects, can be held at the LIME laboratory, in order to have the possibility of viewing the materials immediately after the lesson through the use of the characterization instruments available at LIME . Some hours of the course are dedicated to the direct use (with the supervision of the teacher and/or a qualified technician) of the software tools provided in the course.Type of evaluation
The students' preparation is assessed through a written test, followed by an oral examination (optional, if the written test is sufficient). The possibility of an intermediate test to be made halfway through the course will also be assessed, depending on the specific needs of the students. teacher profile teaching materials
Introduction to materials for aerospace applications, needs and challenges;
Fundamental concepts of materials science and technology (review of undergraduate course principles)
Material requirements for aerospace structures and engines
Key aspects of material selection for aerospace design
Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
Polymeric materials for aerospace applications
Fiber-reinforced polymer composites for aerospace structures and engines
Metal-matrix, fiber-metal, and ceramic-matrix composites for aerospace applications
Fatigue in materials for aerospace applications
Corrosion and degradation of materials for aerospace applications
Creep in materials for aerospace applications
Non-destructive testing of advanced materials for aerospace applications.
Course management: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Exercises: based on the instructor’s handouts and on Moodle
Lecture slides: available in PDF format on Moodle
Online lecture notes: available on the STM website, www.stm.uniroma3.it
https://www.edises.it/default/callister-scienza-e-ingegneria-dei-materiali-2019.html
Mutuazione: 20830038 Aerospace Materials in Ingegneria Aerospaziale LM-20 R SEBASTIANI MARCO, LANZARA GIULIA
Programme
The educational program is structured as follows:Introduction to materials for aerospace applications, needs and challenges;
Fundamental concepts of materials science and technology (review of undergraduate course principles)
Material requirements for aerospace structures and engines
Key aspects of material selection for aerospace design
Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
Polymeric materials for aerospace applications
Fiber-reinforced polymer composites for aerospace structures and engines
Metal-matrix, fiber-metal, and ceramic-matrix composites for aerospace applications
Fatigue in materials for aerospace applications
Corrosion and degradation of materials for aerospace applications
Creep in materials for aerospace applications
Non-destructive testing of advanced materials for aerospace applications.
Core Documentation
Textbook: W.D. Callister, Materials Science and Engineering – EdiSESCourse management: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Exercises: based on the instructor’s handouts and on Moodle
Lecture slides: available in PDF format on Moodle
Online lecture notes: available on the STM website, www.stm.uniroma3.it
https://www.edises.it/default/callister-scienza-e-ingegneria-dei-materiali-2019.html
Attendance
Students are strongly encouraged to attend lectures in person, also due to the numerous laboratory activities and practical sessions.Type of evaluation
The students' preparation is assessed through a written test, followed by an oral examination (optional, if the written test is sufficient). The possibility of an intermediate test to be made halfway through the course will also be assessed, depending on the specific needs of the students teacher profile teaching materials
The teaching program is structured as follows:
1. Introduction to aerospace materials;
2. Materials science and technology fundamental concepts (recap of the bachelor course principles)
3. Material requirements for aerospace structures and engines
4. Key Aspects of Materials Selection for aerospace design
5. Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
6. Polymeric materials for aerospace applications
7. Fiber–polymer composites for aerospace structures and engines
8. Metal matrix, fiber–metal and ceramic matrix composites for aerospace applications
9. Fatigue of aerospace materials
10. Corrosion of aerospace metals
11. Creep of aerospace materials
12. non destructive testing on aerospace materials
Testo: W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale - EdiSES
Gestione del corso: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Esercitazioni: su dispense del docente e su Moodle
Slide proiettate a lezione: in pdf su Moodle
Dispense online sul sito STM, www.stm.uniroma3.it
https://www.edises.it/default/callister-materiali-per-l-ingegneria-civile-e-industriale.html
Bibliography
W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale – EdiSES
Mutuazione: 20830038 Aerospace Materials in Ingegneria Aerospaziale LM-20 R SEBASTIANI MARCO, LANZARA GIULIA
Programme
The course on Aerospace Materials falls within the scope of the characterizing activities of the IMAT-01/A sector.The teaching program is structured as follows:
1. Introduction to aerospace materials;
2. Materials science and technology fundamental concepts (recap of the bachelor course principles)
3. Material requirements for aerospace structures and engines
4. Key Aspects of Materials Selection for aerospace design
5. Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
6. Polymeric materials for aerospace applications
7. Fiber–polymer composites for aerospace structures and engines
8. Metal matrix, fiber–metal and ceramic matrix composites for aerospace applications
9. Fatigue of aerospace materials
10. Corrosion of aerospace metals
11. Creep of aerospace materials
12. non destructive testing on aerospace materials
Core Documentation
TextbooksTesto: W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale - EdiSES
Gestione del corso: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Esercitazioni: su dispense del docente e su Moodle
Slide proiettate a lezione: in pdf su Moodle
Dispense online sul sito STM, www.stm.uniroma3.it
https://www.edises.it/default/callister-materiali-per-l-ingegneria-civile-e-industriale.html
Bibliography
W.D. Callister, Materiali per l’Ingegneria Civile ed Industriale – EdiSES
Attendance
The course is divided into approximately 25 frontal classroom lessons. A series of lessons, in particular those on the most advanced and frontier aspects, can be held at the LIME laboratory, in order to have the possibility of viewing the materials immediately after the lesson through the use of the characterization instruments available at LIME . Some hours of the course are dedicated to the direct use (with the supervision of the teacher and/or a qualified technician) of the software tools provided in the course.Type of evaluation
The students' preparation is assessed through a written test, followed by an oral examination (optional, if the written test is sufficient). The possibility of an intermediate test to be made halfway through the course will also be assessed, depending on the specific needs of the students. teacher profile teaching materials
Introduction to materials for aerospace applications, needs and challenges;
Fundamental concepts of materials science and technology (review of undergraduate course principles)
Material requirements for aerospace structures and engines
Key aspects of material selection for aerospace design
Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
Polymeric materials for aerospace applications
Fiber-reinforced polymer composites for aerospace structures and engines
Metal-matrix, fiber-metal, and ceramic-matrix composites for aerospace applications
Fatigue in materials for aerospace applications
Corrosion and degradation of materials for aerospace applications
Creep in materials for aerospace applications
Non-destructive testing of advanced materials for aerospace applications.
Course management: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Exercises: based on the instructor’s handouts and on Moodle
Lecture slides: available in PDF format on Moodle
Online lecture notes: available on the STM website, www.stm.uniroma3.it
https://www.edises.it/default/callister-scienza-e-ingegneria-dei-materiali-2019.html
Mutuazione: 20830038 Aerospace Materials in Ingegneria Aerospaziale LM-20 R SEBASTIANI MARCO, LANZARA GIULIA
Programme
The educational program is structured as follows:Introduction to materials for aerospace applications, needs and challenges;
Fundamental concepts of materials science and technology (review of undergraduate course principles)
Material requirements for aerospace structures and engines
Key aspects of material selection for aerospace design
Metallic materials for aerospace:
a. Aluminum alloys
b. Magnesium alloys
c. Titanium alloys
d. Steels for aircraft structures
e. Superalloys for gas turbine engines
Polymeric materials for aerospace applications
Fiber-reinforced polymer composites for aerospace structures and engines
Metal-matrix, fiber-metal, and ceramic-matrix composites for aerospace applications
Fatigue in materials for aerospace applications
Corrosion and degradation of materials for aerospace applications
Creep in materials for aerospace applications
Non-destructive testing of advanced materials for aerospace applications.
Core Documentation
Textbook: W.D. Callister, Materials Science and Engineering – EdiSESCourse management: https://ingegneriacivileinformaticatecnologieaeronautiche.el.uniroma3.it
Exercises: based on the instructor’s handouts and on Moodle
Lecture slides: available in PDF format on Moodle
Online lecture notes: available on the STM website, www.stm.uniroma3.it
https://www.edises.it/default/callister-scienza-e-ingegneria-dei-materiali-2019.html
Attendance
Students are strongly encouraged to attend lectures in person, also due to the numerous laboratory activities and practical sessions.Type of evaluation
The students' preparation is assessed through a written test, followed by an oral examination (optional, if the written test is sufficient). The possibility of an intermediate test to be made halfway through the course will also be assessed, depending on the specific needs of the students