Course Information

Course Information
Course Title Code Language Type Semester L+U Hour Credits ECTS
Biomechanics BMM333 Turkish Compulsory 5. Semester 3 + 0 3.0 4.0
Prerequisite Courses
Course Level Undergraduate
Mode of delivery Turkish
Course Coordinator
Instructor(s)
Goals Acquisition of basic subjects such as terminology, anatomy, joint movements, anthropometry, movement (gait analysis) (normal-pathological), soft tissue biomechanics (muscle etc.), hard tissue biomechanics (bone etc.), sports biomechanics, orthosis and prosthesis designs, modeling and simulation studies, fluid mechanics (blood flow).
Course Content Correction of physical functions (e.g., paralysis, etc.)  Musculoskeletal health (e.g., fractures, etc., in elderly patients)  Design and production (e.g., appropriate shoe design for athletes)  Forensics (e.g., accident investigation)  Enhancing sports performance (e.g., developing more effective techniques)  Preventing sports injuries (e.g., developing safer techniques) Application areas of biomechanics  Physical therapy  Medicine (orthopedics, sports medicine, rehabilitation, forensic medicine)  Engineering (ergonomics (industrial medicine), bioengineering)  Kinesiology (science of movement)  Art (performing arts, fine arts, performing arts) Kinesiology  The branch of science that deals with human movement  It falls within the branches of anatomy, physics, physiology, and biomechanics Biomechanical research Experimental Studies: Mechanical properties of biological elements (tissues, cells) such as bones, joints, cartilage, muscles, tendons, and blood. Model analysis: • Uses measurements of initial conditions to simulate the devastating effects of accidents (head injuries). • Analyzes the responses of models. • Establishes theoretical models based on experimental data and predicts the analysis of real-life events. Applied research: Uses human functions.
Learning Outcomes
# Öğrenme Kazanımı
0 1) Learn how to apply force vectors to medical problem solving. 2) Understand the mechanical properties of tissues. 3) Calculate the static equilibrium of the skeletal and muscular systems. 4) Learn to calculate the mechanical stresses that may affect the body and their effects. 5) Learn to calculate the stresses in bone tissue caused by external forces and the bone's response to these stresses.
Lesson Plan (Weekly Topics)
Week Topics/Applications Method
1. Week Introduction and Basic Concepts Class Hours
2. Week Anatomical Connections (Joints) Class Hours
3. Week What knowledge (disciplines) does biomechanical research require? Class Hours
4. Week Biomechanics = Biology + Engineering Mechanics Class Hours
5. Week Biomechanics = Biology + Engineering Mechanics Class Hours
6. Week A Look at Human Anatomy in Basic Biomechanical Concepts Class Hours
7. Week Joint System Class Hours
8. Week Skeletal and Muscular Systems from a Biomechanics Perspective Class Hours
9. Week Mechanical Principles Used in Biomechanics Research Class Hours
10. Week Tension, Compression, and Shear Stresses and Young's Modulus in Materials Class Hours
11. Week Newton's Laws, Static and Dynamic Principles and Their Applications Class Hours
12. Week Posture and Postural Movement and Balance Applications in Humans Class Hours
13. Week Calculating the Location of the Center of Mass of the Body Class Hours
14. Week Maintaining Balance in the Human Body and the Muscles Working in Walking Class Hours
*Midterm and final exam dates are not specified in the 14-week course operation plan. Midterm and final exam dates are held on the dates specified in the academic calendar with the decision of the University Senate.
The Matrix for Course & Program Learning Outcomes
No Program Requirements Level of Contribution
1 2 3 4 5
1 To gain students application skills in the field of Biomedical Engineering by making them use knowledge in health sciences and engineering
Relations with Education Attainment Program Course Competencies
Program Requirements DK1
PY1 70
Recommended Sources
Ders Kitabı veya Notu
Diğer Kaynaklar
  • Fundamentals of Biomechanics - Equilibrium, Motion and Deformation. Nihat Özkaya, Margareta Nordin. Springer. 1999. Fundamentals of Biomechanics. D. Knudson. 2. Edition, Springer, 2007. Vector Mechanics for Engineers. Ferdinand P. Beer, E. Russel Johnston, Eliott R. Eisenberg. 8. Edition, Mc.Graw Hill, 2007. Mechanics of Material, Ferdinand P. Beer, E. Russel Johnston, John T. Dewolf, David F. Mazurek, 6. Edition, Mc.Graw Hill, 2012.
ECTS credits and course workload
ECTS credits and course workload Quantity Duration (Hour) Total Workload (Hour)
Ders İçi
Class Hours 14 3 42
Ders Dışı
Preparation, After Class Study 1 14 14
Research 4 2 8
Practice 6 1 6
Other Activities 1 14 14
Sınavlar
Midterm 1 1 1 1
Final 1 1 1
Practice End-Of-Term 6 1 6
Classroom Activities 14 1 14
Total Workload 106
*AKTS = (Total Workload) / 25,5 ECTS Credit of the Course 4.0