Mechatronics and Robotics Engineering (Curriculum) (Educational Program)
Mechatronics and Robotics Engineering is an interdisciplinary field that focuses on the automation, control, and optimization of processes across various industrial sectors. Students enrolled in this program acquire knowledge and skills for the development and implementation of innovative solutions for mechanical engineering, automotive industry, aviation, defense industry, agriculture, healthcare, and other strategic sectors. The program provides competencies in automated design of mechanical, pneumatic, and hydraulic systems; dynamics and simulation of mechanical systems; robot programming; application of artificial intelligence and machine learning methods; and development of automatic control systems using Arduino, Raspberry Pi, and other microcontrollers. In addition, students gain experience in working with software platforms of leading robotics manufacturers and in implementing digital manufacturing processes in accordance with Industry 4.0 standards. The primary professional responsibilities of a mechatronics and robotics engineer include improving productivity, reliability, precision, safety, and overall efficiency of processes and systems through the application of robots, manipulators, and mechatronic systems. To meet modern labor market requirements, the curriculum includes courses covering digital skills and programming, artificial intelligence and machine learning, theory of machines and mechanisms, 3D modeling, Internet of Things (IoT), sensors, transducers and actuators, mechanical, hydraulic and pneumatic systems in robotics, as well as industrial innovation, infrastructure, sustainable development, and green technologies.
Industrial Engineering (Curriculum) (Educational Program)
Industrial Engineering is a discipline that ensures the planning and management of industrial enterprises of various profiles in order to achieve maximum efficiency and quality. Students studying Industrial Engineering acquire knowledge related to the functional composition and structural design of industrial facilities, technological support, and production planning. Graduates of this program gain broad competencies in design, technology, finance, management, and process optimization. In line with modern labor market demands, the curriculum includes subjects covering digital skills and programming, artificial intelligence and machine learning, 3D modeling and additive manufacturing, Internet of Things (IoT), Industry 4.0, sustainable development, and green technologies.
Food Engineering (Curriculum) (Educational Program)
Food Engineering education covers food production, processing, storage, and safety. Students acquire theoretical and practical knowledge of modern food technologies, technological equipment used in food production, food additives, safe food production, fundamentals of biochemistry, international food legislation, local and international standards for food products and enterprises, as well as identification, prevention, minimization, and management of risks and hazards in food production. Food engineers play a key role in the modern food industry by improving product quality, optimizing production processes, and developing healthy and safe products that meet consumer requirements. The program provides theoretical and practical training in food biochemistry, food safety, refrigeration technology, food microbiology, technological operations in the food industry, physicochemical quality control, and quality management systems. To meet labor market needs, students also study digital skills and programming, artificial intelligence and machine learning, 3D modeling and additive manufacturing, IoT, Industry 4.0, sustainable development, and green technologies.
Mechanical Engineering (Curriculum) (Educational Program)
Mechanical engineers perform tasks related to manufacturing technologies, design of industrial enterprises, machines and equipment, organization of machine production, and quality assurance. Students acquire knowledge on improving machining and assembly processes and designing advanced technological processes while minimizing labor, material, and energy consumption and ensuring productivity, quality, and cost efficiency.
Based on fundamental engineering disciplines, students develop skills in equipment modeling, modern machine and mechanism design, engineering solutions for sustainable operation, and preparation of necessary regulatory and technical documentation. The curriculum also includes digital skills and programming, artificial intelligence and machine learning, 3D modeling and additive manufacturing, IoT, Industry 4.0, sustainable development, and green technologies.
Mechanics Engineering (Curriculum) (Educational Program)
Mechanical Engineering (Mechanics) is a broad-based discipline encompassing the design, production, operation, and management of mechanical systems such as machines, equipment, devices, apparatuses, and units used across all sectors of modern industry and technology. Graduates acquire knowledge in fluid and gas mechanics, strength and stability of structures, and technologies for conventional and alternative energy generation. Through core engineering courses, students gain expertise in structural strength and stability of civil and industrial installations, machines, and equipment. Graduates are qualified to pursue careers in the oil and gas sector and other industries such as hydropower and food processing, based on their theoretical and practical knowledge of pumps, turbines, compressors, and mining machinery. The curriculum includes digital skills, programming, artificial intelligence and machine learning, 3D modeling and additive manufacturing, IoT, Industry 4.0, sustainable development, and green technologies.
Instrumentation Engineering (Curriculum) (Educational Program)
Instrumentation Engineering is a multidisciplinary field. Graduates acquire professional competencies in the design and manufacturing of instrument components used in mechanical engineering, aviation, space, medical, fuel and energy complexes, including oil and gas, petrochemical, and food industries. The program covers measurement techniques, instrumentation, and automation of measurement processes. To meet labor market requirements, the curriculum includes digital skills and programming, artificial intelligence and machine learning, 3D modeling and additive manufacturing, IoT, Industry 4.0, sustainable development, and green technologies.
Automation Engineering (Curriculum) (Educational Program)
Automation Engineering is a leading discipline focused on automation, control, and regulation of systems and processes across various industrial sectors. Students acquire competencies in measurement technologies, analog and digital electronics, microprocessors, programmable integrated circuits, PLC programming (Siemens, Schneider Electric, etc.), SCADA systems, and programming languages such as SCL and HI-Graph. Automation engineers are responsible for increasing system efficiency, reducing human labor, and enhancing accuracy and reliability through automation. The curriculum includes digital skills and programming, artificial intelligence and machine learning, 3D modeling, IoT, sensors, transducers and actuators, as well as Industry, Innovation and Infrastructure, sustainable development, and green technologies.
Environmental Engineering (Curriculum) (Educational Program)
Environmental Engineering focuses on environmental protection, efficient use of natural resources, and sustainable development. Students learn modern solutions to ensure environmental safety and reduce negative environmental impacts in industry, energy, agriculture, urban development, transportation, tourism, and other strategic sectors. The program provides competencies in monitoring air, water, and soil resources, waste management, application of alternative energy sources, environmental risk assessment, biodiversity conservation, and implementation of environmental policies.
Occupational Safety Engineering (Curriculum) (Educational Program)
Occupational Safety Engineering focuses on preventing hazards to human life and activities and ensuring safe and healthy conditions in industrial and everyday environments. Students acquire engineering competencies related to risk reduction, prevention and mitigation of emergencies, and ensuring safe living and working conditions in industry, energy, construction, transportation, agriculture, defense industry, healthcare, and other strategic sectors.
Chemical Engineering (Curriculum) (Educational Program)
Chemical Engineering focuses on designing, managing, and optimizing processes that transform raw materials into finished products. Students study scientific foundations and engineering principles of chemical and biochemical processes applied in chemical industry, oil and gas processing, pharmaceuticals, food industry, energy, environmental technologies, biomaterials, and other strategic sectors.
Metallurgical Engineering (Curriculum) (Educational Program)
Metallurgical Engineering education covers raw materials and primary processing in metallurgy, pig iron production, modern ironmaking methods, ferroalloy production, steelmaking, and casting processes. Students study production technologies of non-ferrous metals, special smelting furnaces, raw materials, fuels, refractories, preparation of iron ores, physical and chemical processes in iron and steel production, and requirements for molten metal handling. Students also acquire skills in programming and material–design modeling using software such as AutoCAD, ArchiCAD, Revit, SketchUp, 3ds Max, and Photoshop.
Mining Engineering (Curriculum) (Educational Program)
Mining Engineering education covers technologies of open-pit and underground mining, mechanization of mining operations, efficient mining regimes, selection of opening methods, mining systems, and reclamation schemes. Mining engineers are trained to ensure safe, stable, and environmentally responsible mining operations and efficient use of natural resources. The program develops competencies in CAD/CAM systems, optimization of mining processes, and application of modern design and software tools such as CADMATIC and SEASolution.
Materials Engineering (Curriculum) (Educational Program)
Materials Engineering education provides knowledge of principles and methods of material production, enterprise infrastructure, logistics, production cost and pricing, profitability, financing, and techno-economic justification. Students gain theoretical and practical knowledge of modern physicochemical analysis methods and laboratory equipment. Graduates develop competencies in creating economically efficient, environmentally friendly, and durable materials, selecting materials according to operating conditions, and understanding relationships between composition, structure, and properties. The program includes training in AutoCAD, Revit, SketchUp, 3ds Max, and Photoshop, as well as the use of computer graphics tools.
