BMM207 Circuit Analysis

6 ECTS - 4-0 Duration (T+A)- 3. Semester- 4 National Credit

Information

Unit FACULTY OF ENGINEERING
BIOMEDICAL ENGINEERING PR.
Code BMM207
Name Circuit Analysis
Term 2018-2019 Academic Year
Semester 3. Semester
Duration (T+A) 4-0 (T-A) (17 Week)
ECTS 6 ECTS
National Credit 4 National Credit
Teaching Language Türkçe
Level Lisans Dersi
Type Normal
Label C Compulsory
Mode of study Yüz Yüze Öğretim
Catalog Information Coordinator Doç. Dr. CABBAR VEYSEL BAYSAL
Course Instructor Doç. Dr. CABBAR VEYSEL BAYSAL (Güz) (A Group) (Ins. in Charge)


Course Goal / Objective

To learn the basic concepts of electrical -electronic circuits and the theoretical analysis methods.

Course Content

Electrical circuit variables and components :Current, voltage, power and energy, supplies and simple components. Resistive circuits: Kirchhoff current and voltage laws for basic circuit analysis. Current and voltage calculations in series and/or parellel circuits. Circuit analysis methods: Node Voltage Analysis, Mesh Current Analysis. Thevenin and Norton theorems, source transformations and superposition principle. Capacitance and inductance . Transient analysis of RL, RC circuits. Transient analysis of RLC circuits. Sinusoidal Steady State (SSS) , phasors and impedance. Power analysis methods in SSS . Mutual Inductance and Transformers. Frequency response of circuits. Filter circuits and Bode diagrams . Laplace transformation in circuit analysis.

Course Precondition

Resources

Notes



Course Learning Outcomes

Order Course Learning Outcomes
LO01 Ability to define electrical circuit variables such as current, voltage, power and energy.
LO02 Ability to use Ohm's law and Kirchhoff's current and voltage laws for basic circuit analysis.
LO03 Apply node voltages, mesh currents, superposition and Thevenin / Norton methods for basic circuit analysis.
LO04 Ability to express the concepts of inductance, capacitance and mutual inductance and use them in circuit analysis.
LO05 Be able to perform transient analysis of RL, RC and RLC circuits.
LO06 Be able to perform circuit analysis and power calculations in Sinusoidal Steady State.
LO07 Be able to analyze the frequency response of circuits and apply the Laplace transform in circuit analysis.


Relation with Program Learning Outcome

Order Type Program Learning Outcomes Level
PLO01 - 1. Solve the scientific problems encountered in medicine and medical technologies by applying technical approaches of disciplines. 2. Self development on science and technology issues. 3. Assess the contributions of engineering solutions on medicine, medical technologies and healthcare 3
PLO02 - 1. Define the problems about Biomedical Engineering 2. Modelling the problems about Biomedical Engineering. 3
PLO03 - 1. Analyse data and interpret results 3
PLO04 - 1. Utilize modern techniques and computing tools which are essential for Engineering applications 4
PLO05 - 1. Design and analyse a defined process 2. Recognise national and international problems for Biomedical Engineering 5
PLO06 - Understand the research problems of medical doctor with engineering perspective 5
PLO07 - 1. Describe the ideas clearlywith written and verbally 2. Have the interdisciplinary teamwork skills 5
PLO08 - 1. Have knowledge on calibration and quality assurance systems in Biomedical Engineering 2. Have the sense of responsibility and professional ethics 5


Week Plan

Week Topic Preparation Methods
1 Electrical circuit variables :Current, voltage, power and energy. Reading lecture materials
2 Basic electrical circuit components : supplies and simple components. Reading lecture materials
3 Resistive circuits: Kirchhoff current and voltage laws for basic circuit analysis. Current and voltage calculations in series and/or parellel circuits. Reading lecture materials
4 Circuit analysis methods-1: Node Voltage Analysis, Mesh Current Analysis. Reading lecture materials
5 Circuit analysis methods-2: Thevenin and Norton theorems, source transformations and superposition principle. Reading lecture materials
6 Capacitance and inductance . Reading lecture materials
7 Transient analysis of RL, RC circuits. Reading lecture materials
8 Mid-Term Exam Reading lecture materials
9 Transient analysis of RLC circuits. Reading lecture materials
10 Sinusoidal Steady State (SSS) , phasors and impedance . Reading lecture materials
11 Power analysis methods in SSS . Reading lecture materials
12 Mutual Inductance and Transformers. Reading lecture materials
13 Frequency response of circuits. Reading lecture materials
14 Filter circuits and Bode diagrams . Reading lecture materials
15 Laplace Method for Circuit analysis Reading lecture materials
16 Term Exams Reading lecture materials
17 Term Exams Reading lecture materials


Assessment (Exam) Methods and Criteria

Assessment Type Midterm / Year Impact End of Term / End of Year Impact
1. Midterm Exam 100 40
General Assessment
Midterm / Year Total 100 40
1. Final Exam - 60
Grand Total - 100


Student Workload - ECTS

Works Number Time (Hour) Workload (Hour)
Course Related Works
Class Time (Exam weeks are excluded) 14 4 56
Out of Class Study (Preliminary Work, Practice) 14 4 56
Assesment Related Works
Homeworks, Projects, Others 0 0 0
Mid-term Exams (Written, Oral, etc.) 1 12 12
Final Exam 1 28 28
Total Workload (Hour) 152
Total Workload / 25 (h) 6,08
ECTS 6 ECTS

Update Time: 07.05.2025 10:55