Qualification Awarded | Master degree, Ing. |
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Level of Qualification | Second Cycle |
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Access to Further Studies | The graduates may continue in a Third cycle |
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Graduation Requirements | 120 ECTS Credits, Final state examination, Diploma thesis |
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Mode of Study | Full-time |
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Programme Director or Equivalent | Personal ID | Name |
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| PAG016 | doc. Ing. Marek Pagáč, Ph.D. |
Course Structure Diagram with ECTS Credits | 1. year / Winter semester | 1. year / Summer semester |
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| 30 ECTS Credits | 30 ECTS Credits |
| 2. year / Winter semester | 2. year / Summer semester |
| 30 ECTS Credits | 30 ECTS Credits |
Specific Admission Requirements |
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Specific admission requirements are determined by the Dean of the faculty. For more information please click here. |
Specific Arrangements for the Recognition of Prior Learning |
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Informal learning - max. 60% of credits gained in prior lifelong learning can be recognized, as determined by the Dean of the Faculty. |
Qualification Requirements and Regulations |
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Qualification Requirements: |
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Finished higher education in Bachelor's degree programme. |
Regulations: |
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The Czech educational system is regulated by the Higher Education Act (Act 111/1998). Studies at VSB-TUO are regulated by the Statute of VSB – Technical University of Ostrava. |
Profile of the Programme |
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Students are introduced to individual additive manufacturing technologies and their issues, as well as modern software to support design work. Students are able to further develop and apply the acquired experience, skills and knowledge in practice. Emphasis is also placed on the ability to use modern technology and computational methods and to effectively evaluate the outputs of engineering measurements. Graduates of this field of study can easily find their way in related engineering fields. |
Key Learning Outcomes |
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Key Lerning Outcomes are Expressed in following Structure: Knowledge, Skills, General competencies |
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Knowledge: |
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Within the Additive Technology study program, the student will gain knowledge about the production of models by 3D printing. Within the special subjects students will learn to construct models with modern and attractive design, program and operate professional 3D printers for prototype and mass production of models made of metal alloys, polymers and composite materials. Students will also learn about 3D scanning and reverse engineering and practical examples and studies where 3D printing has found practical applications. |
Skills: |
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Within the Additive Technology study programme, the graduate is able to select the appropriate printing material and the appropriate 3D printing technology. The graduate will be able to choose the optimal position and orientation of the model for 3D printing, design technological and design modifications with regard to the production technology. The graduate will be able to program and optimize printing parameters, operate 3D printers, digitize models using a 3D scanner and perform reverse engineering. In addition, the graduate will be able to work with professional software for the construction and modification of models (CAD) and programming of print jobs. |
General competencies: |
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Within the Additive Technologies study programme, graduates are prepared to choose the appropriate 3D printing technology and apply the acquired experience, skills and knowledge for practical application. Given the advantages and disadvantages of additive technologies, graduates will be able to assess whether additive technology makes sense for a given application. The graduate will be prepared to select the appropriate printing material, printing parameters and will be ready to design the production process including post-process treatments (machining, welding, heat treatment, surface treatment, inspection and measurement, etc.). On the basis of practical experience, graduates are able to independently acquire further professional knowledge and skills. Graduates will find employment in engineering companies, the automotive and aerospace industries, the healthcare sector and industrial design. |
Occupational Profiles of Graduates with Examples |
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Engineer Developer
Technical and Operations Engineer
Technologist, engineer in production preparation and organisation units
Researcher
Business and technical manager
Designer
Instrument operator
Designer in Rapid Prototyping
Technologist Developer
Rapid prototyping technology engineer
Technical production preparation worker
Computer engineer, designer of technological equipment, tools and jigs
Operating engineer
Technical manager
Chief Technologist
Technologist
Production manager
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Examination Regulations, Assessment and Grading |
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Examination regulations, assesment and grading are described in the Study and Examination Rules. |
Curriculum: |
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Remark: |
Course block: Compulsory - all courses are compulsory. |
Course block: Choice-compulsory - student has to choose at least one course from the list of courses. |
Course block: Optional - student can choose any course from the list of courses. |
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IMPORTANT: Student has to select so many courses to reach 30 ECTS credits per semester. Rules in detail and convenient selection of courses can be consulted with the programmme director. Bellow stated courses are assigned for the degree studies only. Students coming to VSB-TUO for an exchange stay must select courses from the List of courses for exchange students. |
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1. Semester | 1. year | Winter semester | 30 ECTS Credits |
Course Block: Compulsory |
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Code | Course unit title | Number of ECTS Credits Allocated |
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346-5014/01 | 3D Modeling and Design II | 5 ECTS credits |
310-3141/01 | Mathematics IV | 5 ECTS credits |
632-3018/01 | Metal materials and additive technology | 6 ECTS credits |
354-0524/04 | Robotics | 4 ECTS credits |
345-0526/03 | Technological Principles of Design | 4 ECTS credits |
346-5002/01 | Theory of Machining | 6 ECTS credits |
346-5002/02 | Theory of Machining | 6 ECTS credits |
2. Semester | 1. year | Summer semester | 30 ECTS Credits |
Course Block: Compulsory |
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Code | Course unit title | Number of ECTS Credits Allocated |
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346-5013/03 | CAM Systems in Machining | 6 ECTS credits |
345-0504/07 | Manufacturing Process Design | 6 ECTS credits |
346-5003/04 | Quality Management and Metrolgy | 6 ECTS credits |
346-5004/05 | Special and Experimental Methods in Machining | 6 ECTS credits |
345-0502/03 | Theory of Welding | 6 ECTS credits |
3. Semester | 2. year | Winter semester | 30 ECTS Credits |
Course Block: Compulsory |
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Code | Course unit title | Number of ECTS Credits Allocated |
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346-5005/01 | Additive Manufacturing | 4 ECTS credits |
346-5007/01 | Assembling Technology | 4 ECTS credits |
346-5015/01 | Case Studies in Additive Technologies | 8 ECTS credits |
346-5011/01 | Computer Aided Manufacturing | 4 ECTS credits |
345-0543/05 | Design and Management of Production Systems | 5 ECTS credits |
345-0508/09 | Technology of Surface Engineering | 5 ECTS credits |
4. Semester | 2. year | Summer semester | 30 ECTS Credits |
Course Block: Compulsory |
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Code | Course unit title | Number of ECTS Credits Allocated |
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346-5017/01 | Additive Technology for Practice | 15 ECTS credits |
346-5008/01 | Diploma Project II | 5 ECTS credits |
346-5016/01 | Machines and Equipment for Additive Technologies | 4 ECTS credits |
346-5012/01 | Unconventional Methods of Machining | 4 ECTS credits |
Course Block: Choice-compulsory |
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Code | Course unit title | Number of ECTS Credits Allocated |
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711-0479/37 | Fundamentals of Law | 2 ECTS credits |