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Course Details
| Course Department: | Department of Electrical and Computer Engineering |
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| Course Code: | ECE 680 |
| Course Title: | Power Systems Analysis |
| Number of ECTS: | 8 |
| Level of Course: | 2nd Cycle (Master's Degree) |
| Year of Study (if applicable): | 1 |
| Semester/Trimester when the Course Unit is Delivered: | Fall Semester |
| Name of Lecturer(s): | Elias Kyriakides |
| Lectures/Week: | 2 (1.5 hours per lecture) |
| Laboratories/week: | -- |
| Tutorials/Week: | 1 (1 hours per lecture) |
| Course Purpose and Objectives: |
The course provides basic and advanced concepts of power system analysis. Development of analytical skills to perform analysis of power systems. Analyze balanced and unbalanced systems using symmetrical components. Study transformers and per unit sequence models, transmission line modeling, power flow solution techniques, bus impedance and admittance matrices, power system stability. Projects and term papers to develop a deep understanding of the operation of power systems so that the students are well prepared to enter the workforce as network engineers or to perform research in this area. |
| Learning Outcomes: |
• Ability to model and understand the operation of basic power system components such as transformers and transmission lines.
• Demonstrate understanding of the technical, economic and environmental implications of the design of power systems. • Ability to analyze power systems under steady-state conditions and fault conditions. • Demonstrate thorough understanding of the concept of power flow in a large power system and ability to calculate the power flows through the use of simulation tools. • Develop skills in researching particular topics related to power system analysis, demonstrate ability to conduct thorough literature review and demonstrate ability to compose research reports. |
| Prerequisites: | Knowledge of electric power systems |
| Co-requisites: | Not Applicable |
| Course Content: |
• Introduction to Power System structure • Phasors, complex power, balanced three phase circuits • Per unit system • Transformers (two winding, three winding, and autotransformers), per unit sequence models of three phase transformers, three phase transformer connections and phase shift • Transmission line modeling • Steady state operation of transmission lines • Power flow • Formation of bus impedance and admittance matrices • Symmetrical components • Power System stability (swing equation, equal area criterion, simplified synchronous machine model) • Power system control |
| Teaching Methodology: | • Lectures • Project |
| Bibliography: |
• J. D. Glover, M. S. Sarma, and T. J. Overbye, Power System Analysis and Design, 5th ed., Pacific Grove: Thomson Learning, 2012. • H. Saadat, Power System Analysis, McGraw Hill, 2002. • A. R. Bergen and V. Vittal, Power Systems Analysis, Prentice Hall, 1999. • J. J. Grainger and W. D. Stevenson Jr., Power System Analysis, McGraw Hill, 1994. |
| Assessment: | • Mid-term Exam • Final Exam • Homework • Project |
| Language of Instruction: | Greek |
| Delivery Mode: | Face-To-Face |
| Work Placement(s): | Not Applicable |