1. Introduction
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Program title: |
Bachelor of Industrial Engineering and Management |
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Graduation degree: |
Bachelor's degree |
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Study model: |
Full-time |
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Total credits: |
139 |
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Used language: |
Vietnamese and English |
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Training duration: |
4 years (8 semesters) |
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Responsible Faculty: |
Faculty of Marine Engineering |
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Website: |
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Address: |
Room 211, 2nd floor A3 Building, Vietnam Maritime University 484 Lach Tray - Kenh Duong - Le Chan - Hai Phong |
The Industrial Engineering and Management Curriculum at Vietnam Maritime University, designed by the Faculty of Marine Engineering, is based on Industrial Engineering programs from various esteemed domestic and international universities. The curriculum is regularly updated to align with industry demands and comply with the regulations of the Ministry of Education and Training along with Vietnam Maritime University.
The program provides students with essential knowledge, skills, and professional attitudes, meeting the Vietnamese National Qualifications Framework. This ensures that graduates are well-prepared to enter the 21st-century workforce. Upon completion of the program, students are awarded a Bachelor’s degree in Industrial Engineering and Management.
The Bachelor of Industrial Engineering and Management program provides students with a solid foundation in both engineering and management disciplines, preparing them to become effective industrial engineers and managers in various production and service industries. The curriculum emphasizes core knowledge in production systems, quality management, supply chain management, operations research and industrial management, alongside practical skills in data analysis, project management, and lean manufacturing. Students will be equipped with the ability to plan, design, operate and improve complex systems that integrate people, materials, equipment, energy and information. The educational program also cultivates soft skills such as communication, teamwork, and leadership, along with a strong orientation towards innovation and continuous improvement. Graduates are well-prepared to work in roles related to production management, logistics, process optimization, and system analysis across a wide range of industrial and service sectors.
Graduates of the Industrial Engineering and Management program have diverse career opportunities across manufacturing, logistics, and service industries. They can pursue roles in production management, supply chain coordination, quality assurance, process improvement, and operations planning. Industries such as consumer goods, electronics, logistics, healthcare, food processing, and smart factories are in high demand for professionals with skills in optimizing systems, managing industrial operations, and driving continuous improvement.
2. Curriculum
The Bachelor of Industrial Engineering and Management program is organized into 8 semesters. Students undertake a comprehensive curriculum that combines theoretical and practical learning as follows:
Semester I: In the first semester, students establish a strong foundation in mathematics and science through courses such as Algebra, Calculus, General Physics and General Laws. These courses provide essential analytical and scientific reasoning skills that underpin industrial engineering principles. Additionally, the Introduction to Engineering course provides an overview of industrial engineering principles, including system thinking, basic design tools and professional ethics, preparing students for interdisciplinary problem solving in technical and managerial contexts.
Semester II: The program continues to strengthen students' foundational knowledge and skills through courses such as Graphic Communications, Solid Mechanics, Applied Mathematics, Engineering Chemistry, Materials Science and Engineering. These courses are carefully designed to equip students with both theoretical understandings and practical application. Graphic Communications develops students’ abilities to interpret and produce technical drawings using both traditional drafting and computer-aided design (CAD) tools, serving as a vital communication tool in engineering design. Solid Mechanics introduces fundamental concepts such as stress, strain, and deformation of materials under various loading conditions, forming the basis for structural and mechanical analysis. Applied Mathematics provides essential mathematical tools including differential equations, linear algebra, and numerical methods, which are directly applied in solving engineering problems. Materials Science and Engineering explores the structure, properties, and performance of various engineering materials, enabling students to make decisions about material selection and treatment in design and manufacturing processes.
Semester III: Building on fundamental knowledge, this semester equips students with essential industrial engineering competence. Manufacturing Processes provides hands on training in both conventional and modern production methods, including CNC machining and additive manufacturing. Advanced Mechanical Drawings enhances technical design capabilities through industry standard CAD software, focusing on precision engineering applications. The Thermodynamics course establishes crucial understanding of energy conversion and heat transfer in industrial systems. Through Automation and Control Fundamentals provides students with basic knowledge of automatic control systems, including operating principles, system architecture, and control methods used in industrial applications. Electrical Equipment course covers the operation and maintenance of industrial electrical systems, including motors and power distribution networks.
Semester IV: This semester deepens students' engineering expertise while developing critical industrial management skills. The Mechanical Machine Tool Practice course provides hands on training with industrial equipment, emphasizing precision machining and workshop safety protocols. Building on mechanical fundamentals, Theory of Machines & Mechanism covers essential kinematics and dynamics principles for mechanical systems. With Hydraulic & Pneumatic Engineering, students develop solid understandings of fluid power systems, focusing on principles, components and practical applications of hydraulic and pneumatic technologies in industrial automation and machinery operations. Students develop valuable planning competencies through Industrial Forecasting, mastering statistical techniques for production planning and demand prediction. Besides, General English (advanced) enhances professional communication abilities, with focused training in technical report writing, presentation delivery, and industry specific vocabulary to prepare students for global engineering environments.
Semester V: This semester emphasizes advanced industrial systems and modern manufacturing technologies. The System Modeling and Simulation course introduces computational methods for analyzing and optimizing complex production systems, utilizing industry-standard software tools. Power Plant Equipment explores the operation and functions of critical energy systems and equipment used across various industries. Operations Research equips students with powerful optimization tools such as linear and nonlinear programming, network models, queuing theory, and Monte Carlo simulation. These techniques are applied to real-world problems in production planning, logistics, and decision-making. Through the Industrial Automation and Control course, students gain practical knowledge and hands on experience with automation technologies. In Safety Engineering, students develop solid understandings of safety principles, risk assessment, hazard prevention and the design of systems to ensure health and safety in industrial engineering environment.
Semester VI: This semester equips students with a comprehensive understandings of modern engineering practice through a series of professional courses. Industrial Measurements provides essential knowledge and skills in measurement techniques and instrumentation used for monitoring and controlling industrial processes. Manufacturing Processes and Equipment introduces various production methods and machinery, enabling students to understand the principles and applications of modern manufacturing technologies. In Systems Engineering, students learn to approach complex engineering problems using a holistic and interdisciplinary method, focusing on system design, integration, and optimization. Maintenance Engineering and Management equips students with strategies for maintaining equipment reliability, minimizing downtime and implementing effective maintenance planning. Meanwhile, Planning and Scheduling in Manufacturing and Services focuses on techniques for optimizing resource allocation, workflow scheduling and improving efficiency in both manufacturing and service oriented environments.
Semester VII: The curriculum further strengthens students’ capabilities in managing and improving industrial systems through advanced coursework. Quality Engineering equips students with tools and methodologies for quality control, assurance, and continuous improvement, including statistical process control and Six Sigma techniques. Production and Operations Management provides insights into the strategic and operational aspects of production systems, covering topics such as inventory control, capacity planning, and process optimization. In Integrated Manufacturing Systems Engineering, students explore the integration of various manufacturing subsystems such as automation, robotics, and information systems into a cohesive and efficient production environment. Finally, Product Design and Development focuses on the entire lifecycle of product creation, from concept generation and design to prototyping and market introduction, emphasizing innovation, functionality, and manufacturability.
Semester VIII: In the final semester, students engage in a comprehensive internship and complete their graduation thesis, allowing them to apply the theoretical knowledge and practical skills acquired throughout the program in real industrial settings. The internship places students directly in company businesses, where they gain hands on experience across various departments such as production, quality control, maintenance, or process optimization. During this time, students observe and participate in day-to-day operations, use specialized equipment and software, and tackle actual engineering and management problems under professional supervision. This experience enhances workplace readiness, improves communication and teamwork skills, and fosters a deeper understandings of company culture and industry expectations. Concurrently, the Graduation Thesis requires students to independently research a topic relevant to industrial engineering and management, analyze data, propose improvements or solutions, and present their findings in a structured academic format. This capstone experience not only reinforces technical and analytical competence, but also strengthens problem-solving, critical thinking and professional presentation skills to ensuring students are well-prepared for their transition into the workforce.
Students are assigned academic advisors and provided with graduation thesis topics before beginning their internships at industrial companies or manufacturing facilities. Each thesis is designed to address a specific issue, process, or improvement opportunity within the host enterprise. Throughout the internship period, students are responsible for collecting data, observing operations, and analyzing real-world problems relevant to their thesis topics. They maintain regular contact with their academic advisors for guidance and feedback, ensuring the thesis is academically sound and practically applicable. This close integration between academic research and industrial practice helps students bridge theory and reality, while also contributing meaningful insights to the companies where they intern.