ANTALYA BİLİM UNIVERSITY
Course Information Package

EE 1011 - Introduction to Electrical and Electronics Engineering and Ethics

Basic Information

Course Code:
EE 1011
Course Name:
Introduction to Electrical and Electronics Engineering and Ethics
Language of Instruction:
English
Course Type:
Class
Course Level:
Bachelor
ECTS:
3.00
Instructor:
Dr. Öğr. Üyesi Yusuf ÖZTÜRK

Course Objectives

The objective of this course is to introduce first-year students to the electrical and electronics engineering discipline, the fundamental components of engineering education, engineering ethics, and modern engineering applications. The course aims to provide students with a general awareness of the core study areas, theoretical foundations, design approaches, and real-world engineering applications included in the electrical and electronics engineering curriculum. Based on the “Study–Design–Applications (SDA)” approach, the course also aims to introduce engineering thinking, introductory design culture, project awareness, presentation skills, research culture, and AI-assisted modern engineering work approaches.

Course Content

Major study areas of electrical and electronics engineering, engineering education and career planning, engineering ethics and academic integrity, engineering design and problem-solving approaches, modern electrical and electronics engineering applications, interdisciplinary engineering approaches, AI-assisted engineering studies, and current technological developments are covered. The course is conducted based on the “Study–Design–Applications (SDA)” approach. Within the “Study” component, students are introduced to the core courses, theoretical foundations, and major engineering fields included in the electrical and electronics engineering curriculum in order to develop curricular and theoretical awareness. The “Design” component focuses on engineering design thinking, introductory design skills, and project approaches. Within the “Applications” component, real-world engineering systems, contemporary technologies, engineering applications, and student project/presentation studies are discussed. The course also includes introductory project management, technical presentation, and reporting skills.

Course Books / Materials / Recommended Resources

Course Textbook: There is no mandatory textbook for this course. Recommended Resources: Educational materials and ethical guidelines published by professional organizations such as IEEE, IET, and EMO, NSPE Code of Ethics resources, current engineering and technology publications, industrial platforms such as EE Times, selected technical articles, standards, engineering application examples, and current technology reports. Course Materials: Lecture notes and presentations, technical videos, engineering application examples, introductory project management documents, student presentations, AI-assisted engineering application examples, various engineering software/hardware demonstrations, and current technology reviews.

Learning Outcomes

Code Description
LO1 To explain the major study areas of electrical and electronics engineering, the structure of engineering education, and the relationships among engineering disciplines.
LO2 To interpret the concepts of engineering ethics, academic integrity, professional responsibility, and societal awareness.
LO3 To demonstrate introductory-level awareness of the core theoretical areas, design approaches, and engineering applications included in the electrical and electronics engineering curriculum.
LO4 To develop introductory-level engineering design thinking, problem-solving approaches, project management, and technical presentation skills.
LO5 To gain a general perspective on current engineering technologies, AI-assisted engineering studies, and modern engineering applications.

Weekly Course Content

Week Content
1 Introduction to Electrical and Electronics Engineering (Introduction to the EEE discipline, engineering fields, engineering education, career planning, course introduction, and SDA approach)
2 Study: Overview of the Electrical and Electronics Engineering Curriculum I (Mathematics, physics, programming, circuit theory, and fundamental engineering background)
3 Study: Overview of the Electrical and Electronics Engineering Curriculum II (Introduction to electronics, electromagnetics, communications, control systems, signal processing, and artificial intelligence)
4 Study: Modern Electrical and Electronics Engineering Areas (Photonics, microelectronics, embedded systems, robotics, biomedical engineering, and defense technologies)
5 Design: Engineering Design Thinking and Problem-Solving Approaches (Design culture, engineering approaches, system thinking, and optimization concepts)
6 Design: Engineering Design and Technical Tools (Introduction to basic simulation, software, and engineering tools, technical drawing, and modeling awareness)
7 Design: Technical Communication and Presentation Skills (Technical reporting, presentation preparation, academic writing, and engineering communication)
8 Applications: Real-World Engineering Systems and Applications I (Electronic systems, communication systems, energy systems, and automation examples)
9 Applications: Real-World Engineering Systems and Applications II (Artificial intelligence applications, photonic technologies, defense industry, and industrial applications)
10 Engineering Ethics and Academic Integrity (Professional ethics, scientific ethics, plagiarism, engineering responsibility, and AI ethics)
11 Professional Life, Standards, and Engineering Culture (IEEE, EMO, standards, certifications, research culture, and lifelong learning)
12 Introduction to Project Management and Project Development Processes (Project planning, task distribution, time management, technical content preparation, and presentation organization)
13 Student Project and Presentation Studies I
14 Student Project and Presentation Studies II

Workload Calculation

Activity Count Duration (Hours) Total
Attendance 14 2.00 28.00
Post-Class Individual Study 14 1.00 14.00
Research Presentation 1 10.00 10.00
Other 14 2.00 28.00
Make-up Exam 1 10.00 10.00
Total Workload (Hours) 90
ECTS Credit (Workload / 25) 3

Assessment

# Assessment Type Contribution (%)
1 Final Exam %100

PO - LO Matrix

PO \ LO
LO1
LO2
LO3
LO4
LO5
PO-1
PO-2
PO-3
PO-4
PO-5
PO-6
PO-7
PO-8
PO-9
PO-10
PO-11
1
Low Contribution
2
Medium Contribution
3
High Contribution

Teaching and Learning Methods

# Method Name Description Tools
1 Lecture (expository teaching), interactive discussion Listening and taking notes. Standard classroom technologies, multimedia tools (projector, computer, digital presentations)
2 Controversial Course Listening and comprehension, critical thinking Standard classroom technologies, multimedia tools, projector, computer, overhead projector
3 Role-Playing / Drama Pre-planned specific skills Standard classroom technologies, special equipment
4 Oral Research – lifelong learning, processing situations, developing questions, interpreting, presenting

Academic Integrity and Artificial Intelligence

Full compliance with academic integrity and ethical principles is expected in this course. Plagiarism, cheating, unauthorized citation, and all other forms of unethical behavior are strictly prohibited in assignments, projects, reports, presentations, and all academic work. The use of artificial intelligence-based tools (such as ChatGPT, Copilot, Gemini, etc.) is strongly encouraged to accelerate the learning process, improve engineering awareness, support research and presentation preparation processes, analyze technical content, and enhance the quality of academic work. However, these tools should only be considered as supportive tools. Students are expected to analyze, verify, improve, and critically evaluate the content generated by AI tools and to incorporate their own interpretations, engineering perspectives, and original contributions into their work. Submitting AI-generated content directly and verbatim without original student contribution will be considered a violation of academic integrity and may be treated as plagiarism. Within the scope of project and presentation studies conducted in the course, students are expected to explain the methods, resources, and technical content they used. When deemed necessary, students may be asked to verbally defend their work.