Quality and Reliability Engineering in Industrial Engineering aims to improve the quality and reliability of products and production processes. The group discusses various quality control techniques, risk analysis, design of experiments, and application of statistical methods in quality monitoring and control. Students in this discipline learn methods that ensure products achieve high quality standards, in accordance with customer needs and expectations. They understand the principles of quality control which include inspection, testing and defect handling. In addition, they learn risk analysis strategies to identify and mitigate potential failures in production. Designing experiments is an important aspect of understanding and improving production processes. Students learn how to design experiments that enable proper evaluation of factors that affect product quality and reliability. The use of statistical methods to analyze data from these experiments is also an integral part of the curriculum. In addition to the focus on products, the group also considers the reliability of the production process. Students understand how to prevent and overcome equipment failures that can disrupt production efficiency. This includes planning and implementing effective maintenance strategies.

Supply Chain Management in Industrial Engineering addresses the planning, coordination, and control of activities related to procurement, production, storage, and distribution of products. The group focuses on optimizing the supply chain to achieve maximum efficiency, effectiveness, and profit. This involves intelligently managing logistics, inventory, production, and transportation to meet market demands. Students in this group learn methods to optimize the flow of work and information throughout the supply chain. This includes proper production planning, efficient inventory management, and determining optimal distribution channels. Strategies for managing risk are also in focus, including mitigating risks related to raw material availability, price changes, and disruptions in the supply chain. It is important to emphasize sustainability in supply chain management. Students learn how to minimize the environmental impact of supply chain activities, such as optimizing delivery routes to reduce carbon emissions or choosing more environmentally friendly raw materials. In addition, the group plays a role in developing and implementing the latest technologies. This includes the use of data analytics to predict demand, optimize inventory and improve operational efficiency. The application of information technology such as integrated supply chain management systems is also an important part of the curriculum.

Product Design and Development in Industrial Engineering aims to create products that meet market needs and expectations. This group focuses on the comprehensive process from initial design to final product testing, focusing on innovation, efficiency, and customer satisfaction. Students in this group learn the basic concepts of product design, understanding market needs, and competitor analysis. They utilize product modeling and simulation techniques to predict performance, accelerate development, and identify potential improvements. The use of prototyping and product trials enables careful evaluation and validation before the product is produced at full scale. Product lifecycle management is also a focus, encompassing production planning, distribution, and product improvements throughout its lifecycle. Effective strategies in product lifecycle management can minimize production costs, improve quality, and extend the product's life in the market. In addition, marketing strategies and new technology innovation are also a focus. Students learn how to position products in a competitive market, identify market trends, and utilize the latest technology to improve product competitiveness.

Ergonomics and Human Factors in Industrial Engineering is a discipline that addresses the complex interactions between people, systems, and technology in the work environment. The group focuses on improving human performance, efficiency, and well-being by optimizing the design of systems, equipment, and layouts used in production or work environments. Students in this group study cognitive ergonomics, which covers aspects of human understanding, perception and information processing. They also understand anthropometry to ensure designs are appropriate to human physical characteristics. Aspects of engineering anthropology and industrial psychology are also a focus, addressing organizational culture, motivation, stress, and group dynamics that affect job performance and satisfaction. The design of workplace layouts, equipment and human-machine interfaces is an important part of this group. Appropriate design can lead to reduced fatigue, injuries and increased productivity. It is important to understand the principles of ergonomics to create a safe, efficient and adequate workplace for workers. In the context of modern technology, ergonomics also considers the design of human-computer interaction to ensure systems and interfaces that are easy to use and do not overload the user. Students also learn ergonomics evaluation methods and use advanced technologies such as simulation and digital models to improve designs.