1. Introduction

Program title:	Bachelor of Industrial Engineering and Automation
Graduation degree:	Bachelor's degree
Study model:	Full-time
Total credits:	139
Used language:	Vietnamese and English
Training duration:	4 years (8 semesters)
Responsible Faculty:	Faculty of Marine Engineering
Website:	https://mtb.vimaru.edu.vn
Address:	Room 209, 2nd floor A3 Building, Vietnam Maritime University 484 Lach Tray - Kenh Duong - Le Chan - Hai Phong

The Industrial Engineering and Automation Curriculum at Vietnam Maritime University, designed by the Faculty of Marine Engineering, is based on industrial engineering programs from renowned 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 as well as Vietnam Maritime University.

The curriculum 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, students are awarded a Bachelor’s degree in Industrial Engineering and Automation.

The Bachelor of Industrial Engineering and Automation program equips students with the knowledge and skills required to design, operate, maintain, and troubleshoot industrial automated machinery and production systems. The educational program provides a comprehensive foundation in key engineering disciplines, including mechanics, dynamics, thermodynamics, electrical and electronic engineering, and automation technologies. Students gain hands-on experience with industrial control systems, robotics, programmable logic controllers (PLCs), and computer-aided design (CAD) tools, ensuring they are well-prepared to address real-world challenges in the field. The curriculum is designed to meet industry demands, fostering expertise in process optimization, system integration, and advanced manufacturing techniques. Graduates of this program are equipped to work in a wide range of industries, including energy, transportation and smart manufacturing, where automation plays a critical role. With a strong emphasis on innovation and problem-solving, this degree prepares future engineers to drive efficiency and technological advancements in industrial automation.

Graduates of Industrial Engineering and Automation program have a wide range of career opportunities in manufacturing, automation and technology-driven industries. Graduates can work in industries such as automotive, aerospace, electronics, robotics, energy and smart manufacturing.

2. Curriculum

The Bachelor of Industrial Engineering and Automation program is organized into 8 semesters. Students undertake the 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 reasoning, 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 hand on experience with automation technologies. In Safety Engineering, students develop a solid understanding of safety principles, risk assessment, hazard prevention, and the design of systems to ensure health and safety in industrial engineering environment.

Semester VI: The program continues to provide students with professional knowledge focused on the following courses: The Industrial Measurement Techniques covers principles, instruments, and methods used to measure and analyze physical parameters in industrial settings. Maintenance Engineering & Management focuses on ensuring the reliability, availability, and efficiency of equipment, machinery and industrial systems. It involves techniques for preventive maintenance, troubleshooting, failure analysis and asset management to minimize downtime and operational costs. Hydraulic-Pneumatic Transmission focuses on design, operation, control, and troubleshooting of hydraulic and pneumatic systems. Programmable Logic Controllers (PLCs) are essential in industrial automation, controlling machinery, processes, and systems across various industries. The course focuses on PLC programming, hardware, interfacing, troubleshooting, and real-world applications in manufacturing, robotics, power plants, and more.

Semester VII: Students must have completed the courses in Quality Engineering, Design of Pneumatic-Hydraulic Systems, Information Network. Quality Engineering focuses on ensuring that products, processes and systems meet customer expectations and regulatory requirements. It combines statistical methods, quality control techniques, process optimization, and continuous improvement strategies to enhance reliability, efficiency, consistency in manufacturing and service industries. The Design of Pneumatic-Hydraulic Systems course focuses on the principles, components, and methods used to create efficient fluid power systems for industrial and automation applications. The Information Networks course covers the principles of data transmission, networking protocols, cybersecurity, and emerging technologies used in various industries.

Semester VIII: Students complete internships in companies while working on their graduation thesis, gaining hands-on industry experience by applying their academic knowledge in real-world settings. The focus of these internships may vary depending on the industries, companies, departments, but generally includes the following key areas: Industry-specific knowledge and understanding of company operations, industry standards, and best practices; Technical & practical skills development applying theoretical knowledge to real-world tasks and projects; Work place skills & professional development enhancing communication, teamwork, and problem-solving abilities; Company tools & technologies gaining proficiency in industry-specific software, equipment, and processes; Project work & hands-on experience contributing to actual company projects and solving practical challenges; Networking & career development building professional connections and exploring career opportunities; Ethics & workplace culture adapting to corporate environments, following workplace etiquette, and adhering to ethical standards. The internship experience helps students bridge the gap between academia and industry, preparing them for successful careers in future.