Faculty of Technical Sciences

Subject: Continuum Biomechanics (17.BMI128)

Native organizations units: Chair of Technical Mechanics
General information:
 
Category Scientific-professional
Scientific or art field Deformable Body Mechanics
Interdisciplinary Yes
ECTS 5
Educational goal:

Enabling students to formulate governing equations in the field of fluid flow, mass and heat transfer, fluid-structure interactions, constitutive axioms describing soft tissues in human body, and use these models in problem posing and problem solving in the framework comprising solid and fluid mechanics, for the purpose of modeling and solving in medical problems.

Educational outcome:

Ability to derive and solve, analytically or aproximatively governing equations of continuum mechanics describing blood flow and behaviour of blood cells under mechanical loads corresponding to normal and pathological conditions.

Course content:

Fluidity of blood and air as a basic notion of biology of living systems. The role of blood and air in transport processes of biology. A blood vessel as a solid body. Axioms of continuum mechanics. Stress and strain analysis. The laws of mass, momentum and energy conservation. Viscoelasticity, poroelasticity and thermoelasticity. Rheological properties of blood and soft tisues of cardiovascular system. Fluid flow patterns. Governing equations of blood flow and blood-vessel interaction. Tangential stresses. Pulsatile blood flow. Basic models of hemodynamics. Mechanical role of heart. Energy expenditure and pumping power of the heart. Biomechanical analysis of dynamic pathologies within cardiovascular system. Blood vessel models based on mathematical theory of elastic rods. Models of respiratory and renal systems. Flow and mass transfer within artificial kidney. Compartmental analysis of integer and fractional order. Methods for solving partial differential equations.

Teaching methods:

Lectures, presentations of real problems, exercises done in up-to-date software packages for symbolic calculations and numerical analysis. Homeworks chosen to check understanding of the introduced both notions and methods. Exam is either classical or given in form of a seminar work where the introduced tools are to be recognized at a chosen paper from leading international journal covering biomedical engineering problems. The latter is to be done through individual work with each student separately. The exam ends with informal talk on introduced notions and methods.

Literature:
Authors Title Year Publisher Language
Cvijanović, P. Zbirka rešenih zadataka sa pismenih ispita iz mehanike fluida 2002 Fakultet tehničkih nauka, Novi Sad Serbian language
J. Keener, J. Sneyd Mathematical physiology 1998 Springer English
Bird, B., Warren E. Transport phenomena 2002 John Wiley&Sons, New York English
Clement Kleinstreuer Biofluid dynamics 2006 Taylor&Francis English
Mair Zamir Hemo-Dynamics 2016 Springer English
Yuan-Cheng Fung Biomechanics 1993 Springer English
K Athanasiou & R. Natoli Introduction to Continuum Biomechanics 2008 Morgan & Claypool English
Đorđević, V. Dinamika jednodimenzijskih strujanja fluida 1986 Građevinska knjiga, Beograd Serbian language
Jay Humphrey Cardiovascular solid mechanics 2002 Springer English
Knowledge evaluation:
Course activity Pre-examination Obligations Number of points
Exercise attendance Yes Yes 5.00
Written part of the exam - tasks and theory No Yes 70.00
Test Yes Yes 10.00
Test Yes Yes 10.00
Lecture attendance Yes Yes 5.00
Lecturers:

vanr. prof. dr Grahovac Nenad

Associate Professor

Lectures

doc. Rehlicki-Lukešević Lidija

Assistant Professor

Practical classes

prof. dr Glavardanov Valentin

Full Professor

Lectures

prof. dr Spasić Dragan

Full Professor

Lectures

Faculty of Technical Sciences

© 2024. Faculty of Technical Sciences.

Contact:

Address: Trg Dositeja Obradovića 6, 21102 Novi Sad

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

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

© 2024. Faculty of Technical Sciences.