Faculty of Technical Sciences

Subject: Biomechanical models and analysis of impact (17.DTM03)

Native organizations units: Chair of Machine Elements, Machine and Mechanism Theory and Mechanical Engineering in Agriculture
General information:
 
Category Scientific-professional
Scientific or art field Mechanics
Interdisciplinary Yes
ECTS 10
Educational goal:

Professor`s intention is to enable students through this course to: understand mechanical models which can be recognized in human body during traffic collision load, - evaluate the work of inner forces which is not zero in collision caused injuries, - analyse actual problems in professional literature, - be able to follow latest innovations in the field of mechanics which improve safety of participants in traffic.

Educational outcome:

Upon completion of this course student should be able to: - relate acquired knowledge in engineering course of mechanics to collision analysis of biomechanical systems, - apply acquired knowledge while analysing actual biomechanical problems that can be recognized in human body during the collision load, primarily influence of impact load and methods of protection of participants in traffic against impact load.

Course content:

Human body structure. Mechanical features of biomaterials with special emphasis on causes of bone breaking and inner organs rupture. Inner forces in human body. Newton-Euler equations for object movement and participants in traffic before, during and after the traffic collision. Energy balance during the collision with special emphasis on inner forces operation. Collision models of Hertz type and models which include high elasticity features of objects and participants. Dynamic models of collision between vehicle and pedestrians. Passengers movement modelling in vehicle during the collision. Biodynamic response of human body to frontal, side and rear car part collision. Dynamic model of system head – neck and emphasis on behaviour of that system in frontal, side and rear car part collision. Mathematical modelling and numerical simulations. Models of air bags. Prevention.

Teaching methods:

Lectures, study research work and consultations. The lectures provide a theoretical part of the material using modern equipment and information and communication technologies. Through lectures, a student acquires and mastered contemporary scientific knowledge, scientific methods and procedures that enable him to become independent research work. In addition to lectures, consultations are also held regularly. Study research work includes all forms of teaching that are in the function of directly training a student for research, writing scientific papers and making a doctoral dissertation. Study research work includes active monitoring of primary scientific sources, organization and execution of numerical simulations and experimental research.

Literature:
Authors Title Year Publisher Language
DR Peterson, JD Bronzino Biomechanics: principles and applications 2008 CRC Press English
VA Dihta, ON Samsonok Optimalno impulsno upravljanje sa primenama 2000 FizMatIzd, Moskva Russian language
N. Ayache ed. Computational models for the human body 2004 Elsevier, Amsterdam English
M. Huang Vehicle crash mechanics 2002 CRC Press English
Knowledge evaluation:
Course activity Pre-examination Obligations Number of points
Oral part of the exam No Yes 50.00
Project Yes Yes 50.00
Lecturers:

vanr. prof. dr Grahovac Nenad

Associate Professor

Study research work

vanr. prof. dr Grahovac Nenad

Associate Professor

Lectures

prof. dr Spasić Dragan

Full Professor

Lectures

prof. dr Spasić Dragan

Full Professor

Study research work

Faculty of Technical Sciences

© 2024. Faculty of Technical Sciences.

Contact:

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Phone:  (+381) 21 450 810
(+381) 21 6350 413

Fax : (+381) 21 458 133
Emejl: ftndean@uns.ac.rs

© 2024. Faculty of Technical Sciences.