
Specialisation in plastics technology Qualification with the Master’s in Plastics and Textile Technology

The Bachelor of Science is the first academic degree that already qualifies graduates for a career and releases them into working life. The question now arises as to whether you should go straight into work after your Bachelor’s degree or continue studying.
The Master’s degree programme in Plastics Engineering is the logical continuation of the Bachelor’s degree programme and deepens and expands the knowledge and skills acquired in the Bachelor’s degree. It enables increasing specialisation and is more scientifically and research-oriented than the Bachelor’s degree course. It is also the prerequisite for a doctorate and usually offers better career opportunities after graduation than a pure Bachelor’s degree programme. A Master’s degree is a prerequisite for many positions. The decision as to whether you want to start your career as quickly as possible or gain further qualifications with a Master’s degree must be made on an individual basis.
Research focus and practical relevance determine the Master’s curriculum
Students who opt for the Master’s degree programme can expect an exciting, industry and research-related curriculum. Similar to the Bachelor’s degree, the Master’s degree programme combines the Plastics Technology and Textile Technology fields of study to form the ‘Master’s in Plastics and Textile Technology’. In the Master’s programme, you also choose a specialisation – either Plastics Engineering or Textile Engineering – and thus determine the thematic focus of your studies.
Important topics in the Master’s programme

Overall, the Master’s degree programme is more scientific and geared towards current research than the Bachelor’s degree programme, and the training is supplemented by many important factors that are important for a comprehensive understanding of plastics processing.
- Important topics in the Master’s programme are
- Design
- Simulation
- Quality assurance
- Control and optimisation of plastics processing
In addition, an extensive range of electives leaves plenty of scope for individual interests and the targeted expansion of personal skills. Courses on construction and design, extrusion, composites, microsystems technology, medical technology, etc. qualify graduates for precisely those areas of the plastics industry in which they see their personal professional future.
Curriculum for the Master’s programme in Plastics Engineering
in Mechanical Engineering
Area | Module | Teacher | 1st Semester (L|E|CP) | 2nd. Semester (L|E|CP) | 3rd Semester (L|E|CP) |
Comprehensive compulsory area | Modelling and simulation in plastics and textile technology | Hopmann/Gries | 2 | 2 | 6 | – | – |
Flow Mechanics | Schröder | – | 2 | 2 | 6 | – | |
Compulsory area Plastics Technology | Physical chemistry of polymers and macromolecular chemistry practical course | Adams | 2 | 3 | 7 | – | – |
Plastics Processing III | Hopmann | – | 2 | 1 | 6 | – | |
Joining and moulding of plastics | Hopmann | – | 2 | 1 | 5 | – | |
Compulsory electives according to catalogue | – | – | in total 30 CP | – | |
Other performances | Master thesis | – | – | – | 22 Weeks| 30 CP |
Compulsory electives for the Master’s programme in Plastics Engineering
in Mechanical Engineering
Area | Module | Teacher | WiSe/ SuSe |
Construction and design | Fundamentals of machine and structural dynamics | Corves/ Brückmann/ Mirz | SoSe |
Additive manufacturing in plastics processing | Hopmann/ Dahlmann | WiSe | |
Rheology | Gebhardt/ Ronald | SoSe | |
Plastics processing tools I | Zimmermann | SoSe | |
Plastics processing tools II | Hopmann | WiSe | |
Extrusion | Functionalising plastic surfaces | Dahlmann | SuSe |
Plastics processing and recycling technology | Grefenstein | SuSe | |
Composites | Joining Technology IV – Fundamentals and processes of bonding technology | Reisgen | WiSe |
Technical textiles | Veit | SoSe | |
Fibre composite materials I | Hopmann/ Fischer/ Schröder | SoSe | |
Fibre composite materials II | Hopmann/ Gries et al. | WiSe | |
Microsystems technology | Introduction to microsystems technology | Schomburg | SoSe |
Medical technology | Ergonomics and safety of medical devices | Radermacher | WiSe |
Fundamentals of the biomechanics of the musculoskeletal system | Radermacher/ Stoffel | SoSe | |
Medical technology I | Radermacher | WiSe | |
Medical technologyII | Radermacher | SoSe | |
Medical laboratory (project work) | Radermacher | WiSe/SoSe | |
Other | Heat and mass transfer II | Kneer | SoSe |
Practical Introduction to FEM-Software I | Itskov | WiSe | |
Practical Introduction to FEM-Software II | Itskov | SoSe | |
Application of materials science principles in plastics processing | Brandt | WiSe | |
Production systems for the manufacture of lightweight components from fibre composites and multi-material systems | Emonts | WiSe |
Study plan for the Master’s programme in Business Administration and Engineering
with specialisation in Plastics Technology
Area | Module | Teacher | 1st Semester* (L|E|CP) | 2nd Semester** (L|E|CP) | 3rd Semester* (L|E|CP) |
Compulsory area of engineering | Rubber technology | Hopmann/Limper | 2 | 1 | 3 | – | – |
Plastics Processing III | Hopmann | – | 2 | 1 | 6 | – | |
Transportation phenomena I, II (WiSe und SoSe) | Pfeifer | 2 | 1 | 4 | 3 | 0 | 4 | – | |
Compulsory elective area | Compulsory elective area of engineering | – | 13 CP | – | – |
Compulsory elective area of economics | – | 30 CP | – | – | |
* Only in the summer semester | |||||
** Only in the winter semester |
Elective subjects for the Master’s programme in Business Administration and Engineering
with specialisation in Plastics Technology
Area | Module | Teacher | WiSe/ SuSe |
Construction and design | Basics of machine and structural dynamics | Corves/ Brückmann/ Mirz | SuSe |
Additive manufacturing in plastics processing | Hopmann/ Dahlmann | WiSe | |
Rheology | Gebhardt/ Ronald | SoSe | |
Plastics processing tools I | Zimmermann | SoSe | |
Plastics processing tools II | Hopmann | WiSe | |
Extrusion | Functionalising plastic surfaces | Dahlmann | SoSe |
Plastics processing and recycling technology | Grefenstein | SoSe | |
Composites | Joining technology IV – Bonding technology basics and processes | Reisgen | WiSe |
Technical textiles | Veit | SoSe | |
Fibre composite materials I | Hopmann/ Fischer/ Schröder | SoSe | |
Fibre composite materials II | Hopmann/ Gries et al. | WiSe | |
Textile joining and surface technologies | Klopp | SoSe | |
Microsystems technology | Introduction to microsystems technology | Schomburg | SoSe |
Medical technology | Ergonomics and safety of medical devices | Radermacher | WiSe |
Fundamentals of the biomechanics of the musculoskeletal system | Radermacher/ Stoffel | SoSe | |
Medical technology I | Radermacher | WiSe | |
Medical technology II | Radermacher | SoSe | |
Medical laboratory (project work) | Radermacher | WiSe/SuSe | |
Regulatory Affairs for Medical Devices | Lauer | WiSe/SuSe | |
Measuring and control systems | Process control technology and plant automation | Abel | SuSe |
Sensor technology and data processing | Schmitt | SoSe | |
Textile technology | Fibre materials I | Veit | WiSe |
Fibre materials II | Gries | SuSe | |
Textile joining and surface technologies | Klopp | SuSe | |
Textile technology II | Gries/ Veit | SuSe | |
Textile technology III | Gries | WiSe | |
Non-woven fabrics | Röhring | SoSe | |
Other | Practical Introduction to FEM-Software I | Itskov | WiSe |
Practical Introduction to FEM-Software II | Itskov | SuSe | |
Application of materials science principles in plastics processing | Brandt | WiSe | |
Joining and forming of plastics | Hopmann | WiSe | |
Modelling and simulation in plastics and textile technology | Hopmann/ Veit | SoSe | |
Selected topics from textile technology | Cherif/ Veit | SoSe/WiSe | |
Ergonomics and human-machine systems | Mertens | SoSe | |
Physical chemistry of polymers and macromolecular chemistry practical course | Hecht | SoSe |