TYPE OF COURSE UNIT	Elective Course
LEVEL OF COURSE UNIT	Master's Degree Without Thesis
YEAR OF STUDY	-
SEMESTER	-
NUMBER OF ECTS CREDITS ALLOCATED	10
NAME OF LECTURER(S)	-
LEARNING OUTCOMES OF THE COURSE UNIT	At the end of this course, the students; 1) To have knowledge on fundamental principles of momentum heat and mass transport 2) To understand mathematical equations to set up and solve transport problems in medical devices, living systems and other therapeutic or diagnostic applications, 3) To have knowledge on transport phenomena in synthetic membranes, 4) To have ability fluid mechanics based problem solving in case of drug transport/ carrier systems, biochemical analyzers, blood flow systems
MODE OF DELIVERY	Face to face
PRE-REQUISITES OF THE COURSE	No
RECOMMENDED OPTIONAL PROGRAMME COMPONENT	None
COURSE DEFINITION	Momentum Convection and Applications; Mass Convection and Applications; Energy and Heat Conversions; Membrane Convection Mechanisms Mass transports in polymer / composite systems, Thiele Modulus; Molecular diffusion in gel systems Design and development of drug delivery systems - pharmacokinetic model Design and development of drug delivery systems - drug targeting and control Transport-based problems and mathematical modeling in medical devices Mathematical modeling of transport in living systems, remedial or diagnostic systems Fluid mechanics based applications and problem solutions in sample cases such as biochemical analyzers, blood flow Example case - I: selection and identification Case study- II: solution and modeling
COURSE CONTENTS	WEEK TOPICS 1st Week Principles of Momentum Transfer and Applications 2nd Week Principles of Mass Transfer and Applications 3rd Week Conservation of Energy and Heat Balances 4th Week Types of Membrane Seperation Processes 5th Week Mass transport in a polymeric support structure and composite sphere systems with catalytics or biocatalytics, thiele modulus 6th Week Moleculer diffusion in gels 7th Week Midterm 8th Week Development and design of drug delivery systems- pharmacokinetic models 9th Week Development and design of drug delivery systems- drug delivery targeted, controlled, and localized etc 10th Week Applying the mathematical equations to set up and solve transport problems in medical devices, 11th Week Applying the mathematical equations to set up and solve transport problems in living systems and other therapeutic or diagnostic applications 12th Week Fluid mechanics based applications and problem solving, in biochemical analyzers (viscometer etc) or blood flow systems. 13th Week Case study work- I: selection 14th Week Case study work- II: solving
RECOMENDED OR REQUIRED READING	Basic Transport Phenomena in Biomedical Engineering, Ronald L. Fournier, 2012, CRC Press ISBN-13: 978-1439826706
PLANNED LEARNING ACTIVITIES AND TEACHING METHODS	Lecture,Problem Solving,Presentation,Project
ASSESSMENT METHODS AND CRITERIA	Quantity Percentage(%) Mid-term 1 35 Project 1 20 Attendance 1 5 Total(%) 60 Contribution of In-term Studies to Overall Grade(%) 60 Contribution of Final Examination to Overall Grade(%) 40 Total(%) 100
LANGUAGE OF INSTRUCTION	Turkish
WORK PLACEMENT(S)	No