Code | Name of the Course Unit | Semester | In-Class Hours (T+P) | Credit | ECTS Credit |
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GMY134 | BASIC ELECTRONICKS II | 2 | 2 | 2 | 2 |
GENERAL INFORMATION |
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Language of Instruction : | Turkish |
Level of the Course Unit : | BACHELOR'S DEGREE, TYY: + 6.Level, EQF-LLL: 6.Level, QF-EHEA: First Cycle |
Type of the Course : | Compulsory |
Mode of Delivery of the Course Unit | - |
Coordinator of the Course Unit | Assist.Prof. SİNEM GÜRKAN |
Instructor(s) of the Course Unit | |
Course Prerequisite | No |
OBJECTIVES AND CONTENTS |
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Objectives of the Course Unit: | This course aims to enable students to comprehend the methods of Electricity Production, to connect the batteries in different ways according to their technique by understanding the structure of DC (Direct Current) Electricity Sources, to learn basic concepts in AC (Alternating Current) Theory and to make calculations related to these concepts. |
Contents of the Course Unit: | Contents of the course include subjects of Electricity Production, Electricity Production by Light Energy, Electricity Production by Heat Effect, Electricity Production with Magnetic Effect, Electricity Production with Pressure Effect, Electric Energy Production by Chemical Method, Electricity Production by Friction, DC (Direct Current) Electricity Sources, Cells and Batteries, Battery Types and Voltage Sources, AC (Alternating Current) Theory, Sinusoidal Wave, Phase, Period, Frequency, Cycle, Alternating Current, Power in Alternating Current Circuits. |
KEY LEARNING OUTCOMES OF THE COURSE UNIT (On successful completion of this course unit, students/learners will or will be able to) |
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Define the DC (Direct Current) Electricity Sources. |
Identify AC (Alternating Current) Theory concepts |
Calculate Alternating Current Magnitudes and Power in Alternating Current Circuits. |
Identify the subject of Electricity Production |
WEEKLY COURSE CONTENTS AND STUDY MATERIALS FOR PRELIMINARY & FURTHER STUDY |
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Week | Preparatory | Topics(Subjects) | Method |
1 | Preliminary survey on internet related to the subject | 4.2 Printed Circuit Boards Definition and use of printed circuit boards | Lecture Question - Answer |
2 | Reading the relevant chapter in the coursebook | 4.2 Printed Circuit Boards Definition and use of printed circuit boards | Lecture Question - Answer |
3 | Reading the relevant chapter in the coursebook | 4.2 Printed Circuit Boards Definition and use of printed circuit boards.4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
4 | Reading the relevant chapter in the coursebook | 4.2 Printed Circuit Boards Definition and use of printed circuit boards.4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
5 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
6 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
7 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
8 | - | MID-TERM EXAM | - |
9 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
10 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
11 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
12 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
13 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
14 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
15 | Reading the relevant chapter in the coursebook | 4.3 Servomechanism (a) Understanding of the following terms: Open and closed loop systems, feedback, tracking, analog transducers; Principles of operation and use of the following synchro system components/features: Solvers, differential, control and trok, transformers, inductance and capacitance transmitters; (b) Understanding of the following terms: Open and closed loop, tracking, servomechanism, analog, transducer, reset, damping, feedback, deadband; Structure and operation of the following synchro system components/features: Solvers, differential, control and torque, E and I transformers, inductance transducers, capacitance transducers, synchronous transducers; Servomechanism defects, reversal of synchronous legs connecting, fault capture, | Lecture Question - Answer |
16 | - | FINAL EXAM | - |
17 | - | FINAL EXAM | - |
SOURCE MATERIALS & RECOMMENDED READING |
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Megep Modülleri |
Electronical Fundamentals, Electronic Fundamentals EASA Part-66 Module-3 Module-4 |
THY Akademi Yayınları Modul3 - Elektrik Temel İlkeleri |
ASSESSMENT |
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Assessment & Grading of In-Term Activities | Number of Activities | Degree of Contribution (%) | Description |
Level of Contribution | |||||
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0 | 1 | 2 | 3 | 4 | 5 |
KNOWLEDGE |
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Theoretical |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Define the basic concepts of aeronautical standards and rules. (Bloom 1)
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4 |
KNOWLEDGE |
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Factual |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Organize teamwork during the collection, interpretation, announcement and application of data related to the field. (Bloom 6)
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4 |
SKILLS |
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Cognitive |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Perform theoretical and practical knowledge related to his/her field in business life using analytical methods and modeling techniques. (Bloom 4)
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4 | |||||
2 |
Use maintenance manuals and other sources of information in business life to obtain information about the field. (Bloom3)
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5 | |||||
3 |
Determine the actualities of all technical and administrative documents related with the field. (Bloom 1)
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5 | |||||
4 |
Perform theoretical and practical knowledge related to his/her field in business life using analytical methods and modeling techniques. (Bloom 4)
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3 |
SKILLS |
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Practical |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Use computer software, information and communication technologies at the level required by the field. (Bloom 3)
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3 | |||||
2 |
Interpret the sketches, scheme, graphics that describe the subject. (Bloom 2)
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3 |
OCCUPATIONAL |
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Autonomy & Responsibility |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Develop solutions for problems faced during application. (Bloom 6)
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5 |
OCCUPATIONAL |
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Learning to Learn |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Determine the learning requirements related with his/her field. (Bloom 3)
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5 | |||||
2 |
Use the lifelong learning principles in occupational development. (Bloom 3)
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5 |
OCCUPATIONAL |
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Communication & Social |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Apply the technical drawing knowledge effectively in business life. (Bloom 3)
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4 | |||||
2 |
By informing the relevant persons and institutions about the related field; state his / her thoughts and suggestions for solutions in the field.(Bloom 1)
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4 | |||||
3 |
Debate his/her ideas and solution suggestions with experts by supporting them with quantitative and qualitative data. (Bloom 2)
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4 | |||||
4 |
Participate in training related to the field at international level. (Bloom 3)
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3 | |||||
5 |
Organize activities for the professional development of employees under his/her responsibility. (Bloom 6).
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5 |
OCCUPATIONAL |
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Occupational and/or Vocational |
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Programme Learning Outcomes | Level of Contribution | ||||||
0 | 1 | 2 | 3 | 4 | 5 | ||
1 |
Use the knowledge and skills obtained during undergraduate education in work life. (Bloom 3)
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5 | |||||
2 |
Solve the problems encountered in his/her field. (Bloom 3)
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5 | |||||
3 |
Apply the necessary culture of behavior in the areas of quality management and processes and environmental protection and occupational safety (Bloom 3)
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2 | |||||
4 |
Locate the awareness of safety factor to himself and to the team. (Bloom 1)
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2 |
WORKLOAD & ECTS CREDITS OF THE COURSE UNIT |
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Workload for Learning & Teaching Activities |
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Type of the Learning Activites | Learning Activities (# of week) | Duration (hours, h) | Workload (h) |
Lecture & In-Class Activities | 13 | 3 | 39 |
Preliminary & Further Study | 13 | 1 | 13 |
Land Surveying | 0 | 0 | 0 |
Group Work | 0 | 0 | 0 |
Laboratory | 0 | 0 | 0 |
Reading | 0 | 0 | 0 |
Assignment (Homework) | 0 | 0 | 0 |
Project Work | 0 | 0 | 0 |
Seminar | 0 | 0 | 0 |
Internship | 0 | 0 | 0 |
Technical Visit | 0 | 0 | 0 |
Web Based Learning | 0 | 0 | 0 |
Implementation/Application/Practice | 0 | 0 | 0 |
Practice at a workplace | 0 | 0 | 0 |
Occupational Activity | 0 | 0 | 0 |
Social Activity | 0 | 0 | 0 |
Thesis Work | 0 | 0 | 0 |
Field Study | 0 | 0 | 0 |
Report Writing | 0 | 0 | 0 |
Final Exam | 1 | 1 | 1 |
Preparation for the Final Exam | 0 | 0 | 0 |
Mid-Term Exam | 1 | 1 | 1 |
Preparation for the Mid-Term Exam | 0 | 0 | 0 |
Short Exam | 0 | 0 | 0 |
Preparation for the Short Exam | 0 | 0 | 0 |
TOTAL | 28 | 0 | 54 |
Total Workload of the Course Unit | 54 | ||
Workload (h) / 25.5 | 2,1 | ||
ECTS Credits allocated for the Course Unit | 2,0 |