ΜΥ3210 FAILURE ANALYSIS (ELECTIVE COURSE 2)
ΜΥ3210 FAILURE ANALYSIS (ELECTIVE COURSE 2)
Course Information
Πληροφορίες Μαθήματος
Course Category
Course Type
Secretary Code
Semester
Duration
ECTS Units
Sector
Instructor
Undergraduate
Elective Course 2
ΜΥ3210
7th (Winter)
5 hours/week
6
Mechanics Materials and Manufacturing Processes
Course Category: Undergraduate
Course Type: Elective Course 2
Secretary Code: ΜΥ3210
Semester: 7th (Winter)
Διάρκεια: 5 hours/week
ECTS Units: 6
Sector: Mechanics Materials and Manufacturing Processes
Instructor: Kamoutsi Eleni
One of the main objective of the course is to familiarize the students with the fundamental concepts of failure analysis procedure and to provide an insight view on how the materials behave in real industrial conditions. Thus, this course provides a description on the most expected material failures (Corrosion, High temperature, Mechanical failures) supported by real examples – case studies from industry- that are presented and analyzed both theoretically and in the laboratory.
- Mechanisms, causes and analysis of failures.
- Introduction
- Overview of failure mechanisms
- Causes of failures
- Methodology of failure analysis
2. Corrosion failures:
- Uniform corrosion,
- Galvanic corrosion,
- Pitting, crevice,
- Selective corrosion
- Stress corrosion cracking
- Hydrogen embrittlement
3. High Temperature Failures:
- Oxidation
- Carburization
- Metal dusting
- Thermal Shock
- Sulfidation
- Fuel Ash corrosion
4. Mechanical Failures:
- Creep
- Fatigue
- Wear
- Plastic deformation
- Brittle fracture
- Corrosion Fatigue
5. Effects on engineering design.
- Design to optimize resistance to: fatigue, creep, corrosion
Laboratories:
1. Example of failure due to Galvanic Corrosion.
2. Example of failure due to Pitting Corrosion.
3. Example of failure due to Crevice Corrosion.
4. Example of failure due to Stress Corrosion Cracking.
5. Example of failure due to Hydrogen Embrittlement.
6. Example of failure due to Hot Corrosion.
7. Example of failure due to Thermal Shock.
8. Example of failure due to Sulphidation.
9. Example of fatigue failure. Laboratory analysis.
10. Example of failure due to brittle fracture.
11. Example of Creep Failure. Basic Creep Calculations.
Suggested Literature:
• G.N. Haidemenopoulos, A. D. Zervaki, Failures Of Mechanical Components and
Construction, Tziolas, 2024. (in Greek)
• D.R.H. Jones, Engineering Materials 3 ‐ Failure analysis, Pergamon Press, 1993.
• D. Wulpi, Understanding How Components Fail, ASM, 1999.
• A. K. Das, Metallurgy of failure analysis, Mc Graw‐Hill, 1996.
• D. Broek, The practical Use of Fracture Mechanics, Kluwer Academic Press, 1988.
• J. Knott, P. Whithey, Fracture Mechanics. Worked Examples, IOM, 1979.
• A. Shukla, Practical Fracture Mechanics in Design, Second Edition, Taylor and Francis, 2004.
• J. A. Collins, Failure of Materials in Mechanical Design: Analysis, Prediction, Prevention, Wiley‐Interscience, 2007.
• V. J. Colangelo and F. A. Heiser, Analysis of Metallurgical Failures, John Wiley & Sons, 1987.
• A. J. McEvily, Metal Failures: Mechanisms, Analysis, Prevention, Wiley‐Interscience, 2001.
Handbooks
• ASM Handbook, 9th edition, Vol.11 Failure Analysis and Prevention, ASM, 2002
International, Materials Park, OH, USA, 1986.
• Handbook of Case Histories in Failure Analysis, Vol.1 and 2, ASM, 1992
CD‐ROMs
• Failure Analysis Library, ASM International, 2000
Internet Site
• ASM Failure Analysis Center Online, www.asminternational.org/materialsinfo
Related academic journals:
• Journal of Failure analysis and prevention, Editor: McIntyre R. Louthan Jr., ASM, ISSN 1547‐7029
• Engineering Failure analysis, Elsevier, Editor D.R.H. Jones, ISSN 1350‐6307
• Case Studies in Engineering Failure Analysis, ISSN2213-2902
Greek
Lectures and Case Studies
| Written Individuals assignments | 30% |
| Laboratory assignments | 20% |
| Written Final Exam | 50% |
| Activity | Semester Workload |
| Presentations | 70 |
| Exercises | 35 |
| Homework | 45 |
| Course Total | 150 |

