Explore the programs and courses offered by Mechanical Manufacturing and Production Engineering
Browse Programs Admission InformationThe Master’s program in Mechanical Manufacturing and Production trains highly qualified specialists in the fields of design, industrial production, and the optimization of manufacturing processes. The curriculum provides in-depth knowledge of material forming techniques, advanced operation of machine tools, and innovative technologies such as industrial robotics and computer-aided manufacturing (CAM). This training equips graduates with the skills needed to effectively integrate new technologies and manage complex projects in a dynamic and constantly evolving industrial environment.
Semester 1:
Continuum Mechanics: Deepening the fundamentals of continuum mechanics, including 3D modeling of elastic solid media.
Materials: Study of the properties of metallic materials, polymers, ceramics, and composites, and their applications in manufacturing.
Metal Cutting 1: Analysis of metal cutting phenomena, tool geometry, cutting forces, and power requirements.
Forming Processes: Techniques of forming by deformation, casting, forging, and stamping.
Machine Tools: Design and operation of machine tools used for part machining.
Industrial Robotics: Modeling, kinematics, and programming of industrial robots.
Metrology: Measurement and inspection techniques used in manufacturing to ensure product quality.
Practical Work in Mechanical Manufacturing: Hands-on training on machine tools and part fabrication with precision constraints.
Technical English and Terminology: Learning the technical vocabulary necessary to understand and write scientific and engineering documents in English.
Semester 2:
Finite Element Method (FEM): Application of FEM to solve mechanical problems in manufacturing.
Metal Cutting 2: Advanced study of machining, focusing on cutting tools and complex processes.
Machine Tool Components: In-depth study of the essential components of machine tools, their design, kinematics, and dynamics.
CNC Programming: Learning how to program CNC machines for the production of complex parts.
FEM Practical Work: Applying learned concepts using simulation software to solve engineering problems.
CAD/CAM Practical Work: Use of Computer-Aided Design and Manufacturing tools to design and simulate parts before fabrication.
Production Management: Methods for managing industrial processes to optimize production, logistics, and resources.
Optimization: Introduction to optimization methods (linear, non-linear, stochastic) for improving industrial processes.
Ethics and Standards Compliance: Awareness of industrial standards and ethical practices in the professional environment.
Semester 3:
Methods Office: Learning the methodologies used to define and optimize manufacturing processes in an industrial context.
Machining of Complex Surfaces: Analysis and machining techniques for producing complex surfaces on precision components.
High-Speed Machining: Study of rapid machining techniques, using high-speed machines to improve efficiency and accuracy.
Dynamics of Rotating Machines: Study of the dynamics of rotating machinery, including vibration effects and machine behavior under load.
Fracture and Fatigue Mechanics: Study of material failure under cyclic loading and fatigue behavior.
Practical Work – Methods Office: Practical applications of process planning and optimization in an industrial setting.
Advanced High-Speed Machining: Deepening of advanced techniques for machining complex parts using high-speed equipment.
The program covers advanced topics in the field of manufacturing and production engineering:
High-Speed Machining (HSM): Learning advanced techniques for rapid and precision machining.
Advanced Industrial Robotics: Use of collaborative robots (cobots) and robot programming for complex production applications.
Optimization of Industrial Processes: Continuous improvement of manufacturing processes to maximize efficiency and reduce costs.
Dynamics of Machines and Vibration Analysis: Study of vibrations in industrial machines and their impact on production quality.
Fracture and Fatigue Mechanics: Study of the resistance of materials subjected to repeated loading and its effect on component lifespan.
Final-Year Projects and Internships: Practical application of the knowledge and skills acquired throughout the program.
Hold a Bachelor's degree in Mechanical Engineering, Mechanical Manufacturing, or a related field.
Applicants with degrees in Energy Engineering, Electromechanics, or Industrial Maintenance are also eligible, subject to an adjusted coefficient based on compatibility with the program.
Admission is based on academic records.
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