Course Information

Course Information
Course Title Code Semester L+U Hour Credits ECTS
Material Mechanical Behavior Inspection MTJ1116 2. Semester 3 + 1 4.0 5.0
Prerequisites None
Language of Instruction Turkish
Course Level Associate
Course Type
Mode of delivery Face to face
Course Coordinator Lect. Dr. Azime SUBAŞI
Instructor(s) Azime SUBAŞI
Assistants
Goals To train metallurgy and material technicians who have learned the mechanical behavior of the material, can use them in product design and production, and can test and examine and evaluate, and have the ability to use the knowledge and skills they have acquired in projects on these topics.
Course Content Introduction, presentation of the course, importance of the course in the education plan, importance in the profession, weekly contents, Learning resources, evaluation and success criteria, relationship of the course with other courses, Load, Stress; shear and shear stresses, Elongation, Strain, Stress-Strain relationship in materials, Elastic Strain: Hook linear behavior, proportion limit, Elastic modulus, elastic energy; Plastic deformation, Yield Limit Re, Rp, Tensile Strength Rm, Plastic deformation, Plastic energy and Toughness, Elongation at break, Engineering Strain, Standard measurement of tensile concepts: Tensile Test, Notch Impact (Impact) Test: Test Standard, Test setup , Crushing work, Notch impact resistance (Impact toughness), Impact transition temperature, Impact Strength Application (Question Solution), Hardness concept: Mohs hardness; Metal hardness measurement methods: Brinell hardness method (standard, tip geometry, tip type, loading, application procedure, evaluation procedure); Vickers Hardness method (standard, tip geometry, tip type, loading, application procedure, evaluation procedure), Rockwell Hardness methods Rockwell B and Rockwell C (standard, tip geometry, tip type, loading, application procedure, evaluation procedure), Hardness measurement in plastics Methods: Shore Hardnesses Shore A, C, D, Compression Test, Bending, Folding Test, Establishing Relationships Between Materials Science and Mechanical Properties: Grain Size-Strength Relation, Strength Relation, Plastic Deformation - Strength Relation, Strength Relation
Learning Outcomes - Students know mechanical concepts related to materials, know basic information that can measure them.
- They can analyze the stresses that the materials will be exposed to in different applications and recognize the damages that may occur related to this force.
- They know how to evaluate industrial test standards and can apply these tests in accordance with the standard.
- They can predict how different material types will behave in different working conditions. They can determine the tests that will reveal them.
- Evaluate, interpret, and make sense of the results of mechanical tests
Weekly Topics (Content)
Week Topics Learning Methods
1. Week Introduction, introduction of the course, importance of the course in the education plan, importance in the profession, weekly contents, learning resources, evaluation and success criteria, relationship of the course with other courses Course Hours Preparation, After Class Study Verbal Expression Visual Presentation
2. Week Load, Stress; shear and shear stresses, Elongation, Strain, Stress-Strain relationship in materials, Elastic Strain: Preparation, After Class Study Visual Presentation Verbal Expression Course Hours
3. Week Hook linear behavior, proportion limit, Elasticity module, elastic energy; Plastic shape change Preparation, After Class Study Verbal Expression Research Course Hours Visual Presentation
4. Week Yield Limit Re, Rp, Tensile Strength Rm, Plastic deformation, Plastic energy and Toughness, Elongation at break, Engineering Strain, Standard measurement of tensile concepts: Tensile Test Course Hours Preparation, After Class Study Verbal Expression Visual Presentation
5. Week Tensile Strength Application (Question Solution) Verbal Expression Visual Presentation Preparation, After Class Study Course Hours Other Activities
6. Week Notch Impact (Tapping) Test: Test Standard, Test setup, Breaking work, Notch impact resistance (Impact toughness), Impact transition temperature Course Hours Preparation, After Class Study Verbal Expression Research Visual Presentation
7. Week Impact Resistance Application (Question Solution) Visual Presentation Course Hours Preparation, After Class Study Research Verbal Expression
8. Week Midterm Exam
9. Week Hardness concept: Mohs hardness; Metal hardness measurement methods: Brinell hardness method (standard, tip geometry, tip type, loading, application procedure, evaluation procedure); Vickers Hardness method (standard, tip geometry, tip type, loading, application procedure, evaluation procedure) Verbal Expression Visual Presentation Course Hours Preparation, After Class Study
10. Week Rockwell Hardness methods Rockwell B and Rockwell C (standard, tip geometry, tip type, loading, application procedure, evaluation procedure), Hardness measurement methods in plastics: Shore Hardnesses Shore A, C, D Course Hours Preparation, After Class Study Verbal Expression Visual Presentation
11. Week Compression Experiment
12. Week Bending, Folding Test
13. Week Establishing the relations between Materials Science and Mechanical Properties: Grain Size-Strength relation, Strength relationship, Plastic Deformation - Strength relationship, Strength relationship
14. Week Evaluation of the end of semester course acquisitions and questioning the students' competence to use general information over a case
Recommended Sources
ANIK, Prof. Dr. Selahattin; ANIK, Prof. Dr. E. Sabri; VURAL, Assoc. Dr. Murat, “Material Information and Inspection”, Birsen Publishing, Istanbul 2000.
Material Sharing
Document Malzeme Bilgisi ve Muayenesi
Presantation materials (ppt, slayt etc.) Darbe Testi
Presantation materials (ppt, slayt etc.) Malzeme Mek. Dav. Muayenesi
Presantation materials (ppt, slayt etc.) Sertlik Deneyi
Presantation materials (ppt, slayt etc.) Eğme Katlama Deneyi
Relations with Education Attainment Program Course Competencies
Program Requirements Contribution Level DK1 DK2 DK3 DK4 DK5 Measurement Method
PY1 4 0 0 0 0 0 -
PY4 5 0 0 0 0 0 -
*DK = Course's Contrubution.
0 1 2 3 4 5
Course's Level of contribution None Very Low Low Fair High Very High
Method of assessment/evaluation Written exam Oral Exams Assignment/Project Laboratory work Presentation/Seminar
ECTS credits and course workload
Event Quantity Duration (Hour) Total Workload (Hour)
Course Hours 14 4 56
Preparation, After Class Study 14 2 28
Research 5 2 10
Midterm 1 1 7 7
Final 1 7 7
Total Workload 108
ECTS Credit of the Course 5.0