Subject Datasheet
Download PDFBudapest University of Technology and Economics | |
Faculty of Transportation Engineering and Vehicle Engineering |
1. Subject name | Advanced materials and technologies | ||||
2. Subject name in Hungarian | Korszerű anyagok és technológiák | ||||
3. Code | BMEKOGGM601 | 4. Evaluation type | mid-term grade | 5. Credits | 5 |
6. Weekly contact hours | 3 (17) Lecture | 1 (11) Practice | 0 (0) Lab | ||
7. Curriculum | Vehicle Engineering MSc (J) |
8. Role | Mandatory (mc) at Vehicle Engineering MSc (J) |
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9. Working hours for fulfilling the requirements of the subject | 150 | ||||
Contact hours | 56 | Preparation for seminars | 14 | Homework | 15 |
Reading written materials | 50 | Midterm preparation | 15 | Exam preparation | 0 |
10. Department | Department of Automotive Technologies | ||||
11. Responsible lecturer | Dr. Bán Krisztián | ||||
12. Lecturers | Dr. Bán Krisztián, Dr. Markovits Tamás, Dr. Lovas Antal | ||||
13. Prerequisites | |||||
14. Description of lectures | |||||
The course provides a deeper knowledge of non iron-based structural materials applied in vehicle industry. Modern light metal alloys, elastomers, plastics, composites and ceramics are described. The physical properties, production technologies and peculiarities of manufacturing are described in details of the mentioned structural materials of vehicles. During the course the students are introduced into the basic knowledge necessary for each topic, mentioned above, such as thermodynamic stability, metastability, non-equilibrium systems, the effect of phase relations on material properties, strength enhancement, and material interactions. The characteristics of composites and hybrid materials and their production technologies are presented. Students are introduced to the technological bases of surface modification phenomena and technologies as well as additive manufacturing. Within the scope of the course we discuss the aspects of material selection in the consideration of operating conditions of the vehicles and environmental protection. |
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15. Description of practices | |||||
The aim of the practices to translate the theoretical knowledge of the lecture into practice by examples and solving practical tasks in the topics such as equilibrium transformations, quality certificates, selection of semi-finished products based on specified criteria from metallic and non-metallic raw materials as well as to provide a material model for a real material based on material testing. | |||||
16. Description of labortory practices | |||||
17. Learning outcomes | |||||
A. Knowledge
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18. Requirements, way to determine a grade (obtain a signature) | |||||
Students prepare a literature research about a topic agreed with the lecturer, from which they have to prepare a written summaries and hand in to the end of the semester, or perform a subtask of the research project of the department. During the semester, we have two midterm exams for which the students will be awarded. The result of the submitted manuscript and two midterm exams are the basis for calculating the grade in 50-25-25%. | |||||
19. Opportunity for repeat/retake and delayed completion | |||||
Both midterm exams can be substitute twice, the supplementation of the written work is possible during the supplementation week. | |||||
20. Learning materials | |||||
- Charles Kittel: Introduction to solid state physics, - Thornton, Calangelo: Fundamentals of engineering materials, Prentice-Hall, Inc. New Jersey, 1985, - Flinn, Trojan: Engineering Materials and Their Applications, - Auxiliary materials and ppt's downloadable from the department website. |
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Effective date | 10 October 2019 | This Subject Datasheet is valid for | Inactive courses |