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) Learn basic princples of bioelectricity and biomagnetism. 2) Have an ability for modelling physiological system. 3) Analyzing physiological systems and their models. 4) Learn mathematical calculations and engineering techniques in bioelectricity and biomagnetism fields.
MODE OF DELIVERY	Face to face
PRE-REQUISITES OF THE COURSE	No
RECOMMENDED OPTIONAL PROGRAMME COMPONENT	None
COURSE DEFINITION	Vector Analysis, Electrical Sources and Fields, Introduction to Membrane Biophysics, Action Potentials, Volume Conductor Fields, Electrophysiology of the Heart, Electrocardiography (ECG), electric and magnetic lead fields, Electroencephalography (EEG), Magneto encephalography (MEG). Forward and inverse problem of ECG. The main objective of this course is to provide an overview of the general principles of electric and magnetic fields in biological environments and application of these principles to obtain information from the human body.
COURSE CONTENTS	WEEK TOPICS 1st Week Introduction. The review of vectors, gradient, divergence.Electrical fields and mathematical relationships 2nd Week Cell Membrane Bioelectricity Properties. Transmembrane potantial, ion channels, ion pomps, Donnan equation, Goldman equation 3rd Week Action Potantial. Strength-duration curve 4th Week Membrane's Active Behaviour. Voltage clamp method. Hodkin-Huxley model 5th Week Propagation. Mathematical representation of action potential propagation 6th Week Bioelectrical Relationship Between Extracellular Fields. Extracellular potentials. Maxwell equation 7th Week The Electrophysiology of the Heart. Electrical conduction of heart, einthoven vector,basis of electrocardiography(ECG) 8th Week Midterm Exam 9th Week ECG. Clinical electrocardiography, ECG measurement methods, forward problem solutions related with ECG. 10th Week Brain Electrical Field. Potential changes in brain, electroencefalagraphy (EEG), EEG measurement methods and properties 11th Week Biomagnetic. Magnetostatic equations, magnetic flux density measurement, magnetocardiography (MCG) and magnetoencefalography (MEG) 12th Week Biomagnetic. Magnetostatic equations, magnetic flux density measurement, magnetocardiography (MCG) and magnetoencefalography (MEG) 13th Week Measurement of intrinsic properties. Electrical impedance imaging using several applied currents and voltage measurements, magnetic measurement of magnetic susceptibility 14th Week Measurement of intrinsic properties. Electrical impedance imaging using several applied currents and voltage measurements, magnetic measurement of magnetic susceptibility
RECOMENDED OR REQUIRED READING	(1)R. Plonsey, R. C. Barr, Bioelectricity, 1988, Plenum Press, New York (2)R. M. Gulrajani, Bioelectricity and Biomagnetism, 1998, John Wiley & Sons, Inc. (3)J. Malmivuo, R. Plonsey, Bioelectromagnetism, 1995, Oxford University Pres.
PLANNED LEARNING ACTIVITIES AND TEACHING METHODS	Lecture,Questions/Answers,Problem Solving,Presentation
ASSESSMENT METHODS AND CRITERIA	Quantity Percentage(%) Mid-term 1 30 Assignment 1 10 Quiz 1 10 Project 1 10 Total(%) 60 Contribution of In-term Studies to Overall Grade(%) 60 Contribution of Final Examination to Overall Grade(%) 40 Total(%) 100
ECTS WORKLOAD	Activities Number Hours Workload Midterm exam 1 72 72 Preparation for Quiz 1 12 12 Individual or group work 0 0 0 Preparation for Final exam 1 24 24 Course hours 14 3 42 Preparation for Midterm exam 1 11 11 Laboratory (including preparation) 0 0 0 Final exam 1 96 96 Homework 1 12 12 Project 1 16 16 Total Workload 285 Total Workload / 30 9,5 ECTS Credits of the Course 10
LANGUAGE OF INSTRUCTION	Turkish
WORK PLACEMENT(S)	No