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Doctoral Program in Industrial Engineering Science

Learn more about various concentrations, explore the Curriculum adjust your Course Schedule to fit your time, know the required Tuition Fees, and understand the expected learning outcomes All the information you need to start your academic journey is here.

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Concentration

The following is a list of specializations contained in Doctoral Program in Industrial Engineering Science

Quality and Reliability Engineering

Quality and Reliability Engineering

The Quality and Reliability Engineering specialization in the USU Doctoral Program in Industrial Engineering offers an in-depth focus on several key topics, including Total Quality Management, Maintenance & Reliability Engineering, Lean Six Sigma, Quality Function Deployment, Taguchi Methods, and Service Quality. Through this specialization, students gain a deep understanding of core concepts in total quality management to ensure high product and service quality.
Supply Chain Management

Supply Chain Management

The Supply Chain Management specialization in the USU Doctoral Program in Industrial Engineering provides in-depth mastery of relevant key topics, including Logistics Management Strategy, Inventory & Warehousing Management, Business Strategy, Transportation Management, Sourcing & Procurement, and Green Supply Chain. Students in this specialization will learn about logistics management strategies that aim to optimize the flow of goods and information in the supply chain, delve into inventory and warehousing management to ensure timely and efficient product availability, and gain skills in analyzing and designing action plans that enable companies to compete in the global market through a focus on business strategy.
Product Design and Development

Product Design and Development

The Product Design and Development specialization in the USU Doctoral Program in Industrial Engineering takes students into a comprehensive learning experience with various important aspects, such as Manufacturing and Assembly Design, Concurrent Engineering, Value Engineering, Product Development Management, Matrix Structure Design, and Automation of Product & Process Design. Through this specialization, students will explore efficient manufacturing design strategies and assembly techniques to improve quality and productivity.
Ergonomics and Human Factors

Ergonomics and Human Factors

The Ergonomics and Human Factors specialization in the USU Doctoral Program in Industrial Engineering offers an in-depth understanding of various aspects, including Ergonomics and Occupational Safety, Green Ergonomics, Macro Ergonomics, Environmental Ergonomics, Cognitive Ergonomics, and Engineering Usability. Students in this specialization learn about ergonomics concepts and occupational safety strategies to create an optimal work environment while Green Ergonomics focuses on integrating environmentally friendly principles into product design and industrial processes.
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Curriculum

The following is a complete list of courses that will be taken in each semester.

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Course Schedule

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Tuition Fee

Here are the study fees Doctoral Program In Industrial Engineering Science
Doctoral Program Regular
IDR 15,000,000 Per student for 1 semester
Doctoral Program Institutional Development Fee (Independent Program Only)
IDR 15,000,000 One-Time Payment
Doctoral Program Education Development Contribution
IDR 15,000,000 Per student for 1 semester
Doctoral Program Academic Completion Fund
IDR 15,000,000 Per student for 1 semester
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Learning Outcomes

Graduates of the USU Doctoral Program in Industrial Engineering are equipped with the knowledge and skills to deepen and broaden their understanding of technology and integrated systems engineering through interdisciplinary, multidisciplinary, or transdisciplinary research. They are not only able to address current issues and integrate scientific developments in integrated systems engineering but also can guide the development of science and technology and policy making in the field. They have expertise in applying methods and techniques to design and plan technology development, with in-depth analytical skills to explore the best alternative solutions to emerging engineering system problems based on scientific knowledge.

Learning Outcomes
1 Serve as a reference in advanced/applied industrial engineering sciences in line with the latest information and technology and/or integrated systems engineering.
2 Develop and disseminate industrial engineering knowledge on a national and global scale.
3 Serve as a source of information on current issues and technological developments related to the field of industrial engineering.
4 Develop knowledge in the field of technology and/or systems engineering through dynamic and applied research.
5 Determine research roadmap planning and conduct independent research (design and conduct research) based on engineering principles by utilizing modern engineering methods, techniques, and instruments, resulting in tested and recognized work in scientific journals.
6 Identify and create innovations in the real sector that support the acceleration of technology development and/or integrated systems engineering.
7 Explore and formulate technological and/or systems engineering problems and present several alternative solutions to existing problems based on scientific studies.
8 Formulate strategic policies in industrial development planning and/or systems engineering based on scientific knowledge.
9 Formulate and make decisions on alternative solutions to industrial development problems.
10 Mobilize various resources to realize dynamic, integrated, and sustainable industrial development.