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Week
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Topics
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Study Metarials
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1
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Current-voltage relationships in power transmission systems
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R1- Chapter-1
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2
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Structure of interconnection networks
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R1- Chapter-2
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3
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Power flow analysis methods I
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R1- Chapter-3
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4
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Power flow analysis methods II
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R1- Chapter-4
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5
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Gauss-Seidel and Newton-Raphson iteration methods I
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R1- Chapter-5
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6
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Gauss-Seidel and Newton-Raphson iteration methods II
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R1- Chapter-6
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7
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Solution of power (load) flow problem, new methods for power flow problem
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R1- Chapter-7
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8
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Failures in power systems
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R2- Chapter-1
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9
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Symmetrical and non-symmetrical defects and their calculation with symmetrical components
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R2- Chapter-2
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10
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Introduction to Matlab / Simulink / SimPower program
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R2- Chapter-3
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11
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Modeling in Matlab / Simulink / SimPower program
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R2- Chapter-4
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12
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Perform load flow analysis using Matlab / Simulink / SimPower
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R2- Chapter-5
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13
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Perform short circuit fault analysis using Matlab / Simulink / SimPower
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R2- Chapter-6
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14
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Performing transient state analysis using Matlab / Simulink / SimPower
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R2- Chapter-7
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Prerequisites
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-
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Language of Instruction
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Turkish
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Responsible
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Dr. Fatih ISSI
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Instructors
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-
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Assistants
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-
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Resources
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R1-Murty, P.S.R. (2007). Electrical Power Systems (1 st Edition), Butterworth-Heinemann, United States.
R2-Çakır, H. (2019). Elektrik Güç Sistemleri Analizi (2. Basım), İstanbul Gelişim Üniversitesi Yayınları, İstanbul.
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Supplementary Book
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-
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Goals
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Teaching students the methods of analysis and analysis necessary for solving the problems encountered during the design and operation of power systems.
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Content
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Power flow analysis methods, Gauss-Seidel and Newton-Raphson iteration methods, Solution of power flow problem, New methods for power flow problem, Failures in power systems, Symmetrical and non-symmetrical failures Simulink / SimPower program, Matlab / Simulink / SimPower modeling, Matlab / Simulink / SimPower simulation, Matlab / Simulink / SimPower simulation, Matlab / Simulink / Performing transient state analysis using SimPower
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Program Learning Outcomes |
Level of Contribution |
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1
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Acquired the necessary skills in the areas of mathematics, applied sciences and his/her own field; has the ability to use collectively these concepts and applications of these fields to solve the problems of Electrical and Electronics Engineering,
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4
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2
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Has the ability to define, identify, formulate and solve the problems of Electrical and Electronics Engineering and selects the appropriate analytic solutions, modelling and applies them in an orderly manner,
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5
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3
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Analyses a system or a process and designs it under the given constraints meeting the requirements; applies the up to date design techniques in this direction,
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4
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4
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Has the ability to choose and utilize the modern technologies and tools of engineering; has the ability to use information technologies and at least one software language (at the advanced European License level) in an efficient way,
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-
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5
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Has the ability to design experiments, carries out experiments, analyses results and makes comments on these results,
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1
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6
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Has access to information and undertakes literature survey in this direction; has the ability to search and use databases and other data resources,
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4
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7
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Can participate and assume responsibility in multidisciplinary task forces,
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-
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8
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Has the ability to communicate in Turkish verbally and in written forms; has the knowledge of one foreign language of European portfolio at the B1 level,
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-
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9
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Conscious of lifelong learning; follows the science and technological developments and updates himself/herself continually,
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3
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10
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Has the responsibility and conscious in his/her profession,
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-
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11
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Has the ability to conduct projects, has knowledge of the work procedures, health of workers, environment and safety procedures of work places; is aware of legal consequences of engineering applications,
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-
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12
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Is conscious of the consequences and effects of engineering solutions and applications in public and universal dimensions; is aware of innovation matters and has knowledge of the contemporary issues and problems,
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3
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