Program Description: 6B07103 – Electric Power Engineering

The educational program 6B07103 – Electric Power Engineering at the Eurasian Technological University is designed to prepare highly qualified specialists for both the domestic and global electric power industry. The program focuses on developing advanced engineering thinking, combining theoretical knowledge with practical skills essential for the design, operation, management, and modernization of energy systems, including renewable energy sources and smart, digital technologies.

The curriculum aligns with the National Qualifications Framework (Level 6), the professional standard “Operational and Dispatcher Control”, and global trends in the electric power sector, including digitalization, sustainable development, renewable energy integration, cybersecurity, and energy efficiency. The program also addresses emerging labor market demands identified in the Atlas of New Professions, preparing specialists in smart grid design, digital energy management, and automated control systems.

Program Objectives

The primary objective of the program is to train engineers capable of working efficiently in a dynamic energy sector, developing innovative solutions, and ensuring the reliable and safe operation of energy facilities. Students acquire core competencies in electrical engineering, power systems, electromechanics, digital technologies, and energy management, while gaining a comprehensive understanding of industry trends such as renewable energy implementation, energy storage systems, smart grids, and automated management technologies.

The program emphasizes interdisciplinary knowledge, integrating principles of physics, mathematics, information technology, economics, law, environmental protection, and international standards to develop holistic energy professionals. Graduates are expected to contribute to energy efficiency, sustainable development, and the modernization of energy infrastructures.

Learning Outcomes

Graduates of the program will be able to:

1. Energy Knowledge Application: Apply theoretical and practical knowledge of energy sources, sustainable development concepts, and environmental responsibility to optimize energy use and improve energy efficiency in industrial and utility systems.

2. Fundamental Science Integration: Demonstrate proficiency in mathematics, physics, electrical circuits, and electromagnetic theory to solve interdisciplinary engineering problems.

3. Renewable Energy Systems: Design, analyze, and implement systems using renewable energy sources, including wind and solar energy, energy storage systems, and smart monitoring networks.

4. Electrical Equipment Design and Operation: Calculate parameters, select electric machines, automated drives, and switching equipment, applying advanced knowledge of modern electrical materials and nanotechnologies.

5. Communication and Language Skills: Communicate effectively in Russian, Kazakh, and English, understanding technical concepts and developing intercultural competence for international collaboration.

6. Information Technology and AI in Energy: Collect and analyze data, utilize artificial intelligence for protection of electrical equipment, work with SCADA systems, smart metering (ASCU-EE), and Internet of Things (IoT) applications.

7. Socio-Economic and Legal Competence: Understand financial management, energy project planning, industrial and environmental safety standards, and international agreements in energy policy and sustainability.

8. Practical Engineering Skills: Apply theoretical knowledge to design electrical measurement systems, automation, relay protection, and digital energy technologies, integrating inclusive approaches and social awareness.

9. Power Systems Engineering: Develop and analyze power generation, transmission, and distribution systems, including substation design, relay protection, and digital modeling of networks.

10. Research and Ethical Competence: Conduct scientific research, uphold academic integrity, understand sustainability principles, and evaluate environmental, social, and economic impacts of energy solutions.

Program Structure

The program comprises 240 ECTS credits and is structured to provide a balance between general education, core technical knowledge, and professional specialization. Instruction is offered in Russian, Kazakh, and English, with flexible online study options.

Core Disciplines Include:

• Scientific Research Methods: Techniques for data collection, analysis, hypothesis formulation, experimentation, and scientific reporting.

• Foundations of Law, Anti-Corruption, and Ethics: Legal norms, anti-corruption culture, and social responsibility.

• Economics, Financial Literacy, and Green Technologies: Market functioning, resource management, and sustainable energy practices.

• Fundamental Electrical Engineering: Theory of circuits, electromagnetism, electrical machines, power electronics, and digital systems.

• Renewable Energy and Smart Grids: Design, operation, and integration of renewable energy and intelligent networks.

• Digital Energy and Automation: SCADA systems, ASCU-EE, IoT applications, energy monitoring, and analytics.

• Energy Storage and High-Voltage Engineering: Design and operation of energy storage devices, high-voltage systems, and protection measures.

• Project Management and Career Design: Professional development, career planning, and teamwork in inclusive environments.

• Environmental, Safety, and Cybersecurity Practices: Ecological impact assessment, industrial safety, and protection of energy information systems.

Elective and Minor Courses:

Students can choose additional disciplines to tailor their expertise, including advanced artificial intelligence applications in energy, business analytics (BIA), and specialized engineering topics.

Professional Competencies

Graduates are prepared to pursue careers in:

• Power Generation and Transmission Companies – designing, operating, and maintaining power plants and grids.

• Smart Grid and Digital Energy Systems – implementing IoT-based monitoring, renewable integration, and automation.

• Energy Policy and Management – evaluating energy efficiency, regulatory compliance, and sustainable strategies.

• Industrial Energy Supply and Efficiency – designing energy supply for industrial enterprises and optimizing energy consumption.

• Research and Innovation – conducting applied research, implementing green technologies, and advancing energy engineering practices.

Degree Awarded and Duration

Upon successful completion, students are awarded the Bachelor’s Degree in Electric Power Engineering. The standard study duration is 3–4 years, including theoretical courses, practical labs, and project-based learning.

Distinctive Features

• Multilingual instruction: Russian, Kazakh, and English.

• Integration of modern technologies: IoT, AI, SCADA, and Smart Grids.

• Strong emphasis on sustainable development, renewable energy, and environmental responsibility.

• Preparation for professional certification and adherence to national and international energy standards.

• Flexible online learning opportunities to accommodate diverse student needs.