Skip to main contentSkip to search barSkip to navigationSkip to footer
Logo of the University of Applied Sciences and Arts Northwestern Switzerland
  • DE
  • EN
  • Home
  • Degree programmes
  • Continuing education

Ten Schools One Goal

The FHNW comprises 10 schools with different specializations. Select a school to see its specific courses, study programmes and information.

Applied Psychology

Architecture, Construction and Geomatics

Art and Design

Music

Computer Science

Life Sciences

School of Education

Social Work

Engineering and Environment

Business

  • Research

    • Research fields
    • Projects
  • Updates and insights

    • News and stories
  • Events

  • Media corner

  • About the School of Engineering and Environment

    • People directory
    • Management Board
  • Institutes

    • Institute of Automation
    • Institute of Bioenergy and Resource Efficiency
    • Institute of Business Engineering
    • Institute of Electric Power Systems
    • Institute of Humanities and Social Sciences
    • Institute of Polymer Engineering
    • Institute of Mathematics and Natural Sciences
    • Institute of Polymer Nanotechnology
    • Institute of Optometry
    • Institute of Product and Production Engineering
    • Institute for Sensors and Electronics
    • Institute of Thermal and Fluid Engineering
    • Laboratories of the School of Engineering and Environment
Logo of the University of Applied Sciences and Arts Northwestern Switzerland
  • About the School
    • FHNW School of Engineering and Environment
    • Degree Programmes
    • Continuing Education
    • Collaboration in Research and Services
  • Social Media
    • LinkedIn
    • Instagram
    • Facebook
    • TikTok
    • YouTube
  • About FHNW
    • Organisation
    • Schools
    • Locations
    • FHNW Library
    • Media Relations
  • Support
    • IT Support
    • Inside FHNW
    • Webmail
  • Data Protection
  • Imprint
  • Accessibility
  • Research

    • Research fields
    • Projects
  • Updates and insights

    • News and stories
  • Events

  • Media corner

  • About the School of Engineering and Environment

    • People directory
    • Management Board
  • Institutes

    • Institute of Automation
    • Institute of Bioenergy and Resource Efficiency
    • Institute of Business Engineering
    • Institute of Electric Power Systems
    • Institute of Humanities and Social Sciences
    • Institute of Polymer Engineering
    • Institute of Mathematics and Natural Sciences
    • Institute of Polymer Nanotechnology
    • Institute of Optometry
    • Institute of Product and Production Engineering
    • Institute for Sensors and Electronics
    • Institute of Thermal and Fluid Engineering
    • Laboratories of the School of Engineering and Environment

Type a search term and search continuing education,degree programmes, events, documents and other content.

Institute of Polymer Engineering, FHNW School of Engineering and Environment

School of Engineering and Environment


  • Engineering and Environment
  • About us
  • Institutes
Institutes
topbild-ikt.jpg

We create sustainable, plastic-based product and processes innovations with a focus on high-performance polymers and composites.

We achieve the level of ingenuity required for this by implementing an interdisciplinary approach, fusing together the fields of raw materials, construction and processing. In doing so we approach product development with plastics in a holistic way.

Our expertise in the fields of chemistry and analytics, process engineering and structural mechanics blends very well with the surface structuring and functionalisation expertise of the FHNW Institute of Polymer Nanotechnology.

Research focus areas

Selected projects

We support innovative companies in exploring the latest technologies and methods and in translating them into practical applications. We collaborate with national and international research partners and facilitate access to funding opportunities such as Innosuisse projects or European Union research programmes.

Loading

Laboratories

Loading

Network and partners

CC Schweiz is the Swiss regional department of Carbon Composites e.V." and was chosen as a national thematic network (NTN) by the Swiss Commission for Technology and Innovation (CTI). CC Schweiz focuses on promoting the use of high-performance fibre composite technologies in Switzerland. Our institute is a founding member and co-initiator of CC Schweiz. Prof. Dr. Christian Brauner is acting President of CC Schweiz.

The Innovation Booster promotes the implementation of 100% circular concepts and solutions in Switzerland. Between 2021 and 2024, the program will support Swiss start-ups and established companies with funding and knowledge transfer, helping them to transform their systems and our society from a linear to a circular economy.Prof. Dr. Christian Rytkais a member of the Innovation Booster Applied Circular Sustainabilityconsortium.

Publications

We regularly publish the results of our work in specialist journals and present them at conferences.

2024
  • Mit Thermoformen gegen Hüftschäden, Seetaler Bote, 2024
  • Rytka C, Krzikalla P, Battaglia S, Volatile Verbindungen in Kunststoffrezyklat, Technische Rundschau, 2024
  • Rytka C, Die Vielseitigkeit von Kunststoffen macht es so spannend, bz, 2024
  • Werlen V, Rytka C, Dransfeld C, Brauner C, Michaud V. A multiscale consolidation model for press molding of hybrid textiles into complex geometries. Polym Compos. 2024; 1-19. doi:10.1002/pc.28139
  • Fachhochschule Nordwestschweiz (FHNW). 26.02.2024. Plastikfrei angeln. FHNW. https://www.fhnw.ch/de/medien/newsroom/news/plastikfrei-angeln (Zugriff am 22. Oktober 2024).
2023
  • Mit Thermoformen gegen Hüftschäden, Seetaler Bote, 2024
  • Rytka C, Krzikalla P, Battaglia S, Volatile Verbindungen in Kunststoffrezyklat, Technische Rundschau, 2024
  • Rytka C, Die Vielseitigkeit von Kunststoffen macht es so spannend, bz, 2024
  • Werlen V, Rytka C, Dransfeld C, Brauner C, Michaud V. A multiscale consolidation model for press molding of hybrid textiles into complex geometries. Polym Compos. 2024; 1-19. doi:10.1002/pc.28139
  • Fachhochschule Nordwestschweiz (FHNW). 26.02.2024. Plastikfrei angeln. FHNW. https://www.fhnw.ch/de/medien/newsroom/news/plastikfrei-angeln (Zugriff am 22. Oktober 2024).
2022
  • Markstaller R, Krzikalla P, Wegmann S, Rytka C, Sandwichplatten aus rezykliertem Kunststoffmix, Kunststoffextra, 2022
  • Rytka C., Zurück in den biologischen Kreislauf, Kunststoffextra, 2022, https://kunststoffxtra.com/zurueck-in-den-biologischen-kreislauf/
  • Werlen V, Rytka C, Wegmann S, et al. Novel tooling for direct melt impregnation of textile with variotherm injection moulding: Methodology and proof of concept. Journal of Composite Materials. 2022;0(0). doi:10.1177/00219983221130720
  • Werlen V., Vocke R., Schwanemann P, Michaud V., Brauner C., Dransfeld C., Rytka C., Consolidation of hybrid textiles for aerospace applications, Composites Meet Sustainability – Proceedings of the 20th European Conference on Composite Materials, ECCM20. 26-30 June, 2022, Lausanne, Switzerland
  • Diaz-Rodenas M., Thommen M., Rytka C., Le Canut J.M., Gschwend G., Queloz S., Tsotra P., Roussel J., Weber J.F., Highly conductive polypropylene based composites for bipolar plates for polymer electrolyte membrane fuel cells, Composites Meet Sustainability – Proceedings of the 20th European Conference on Composite Materials, ECCM20. 26-30 June, 2022, Lausanne, Switzerland
  • Wegmann S.; Rytka C.; Diaz-Rodenas M., Werlen V.; Schneeberger C., Ermanni P., Caglar B., Gomez C., Michaud V., A life cycle analysis of novel lightweight composite processes: Reducing the environmental footprint of automotive structures, Journal of Cleaner Production, Volume 330, 2022, 129808, ISSN 0959-6526, https://doi.org/10.1016/j.jclepro.2021.129808
2021
  • Voegelin T, Durchbruch im Recycling von GFK-Abfällen, Kunststoffextra, 2021
  • Werlen V., Rytka C., Michaud V., A numerical approach to characterize the viscoelastic behaviour of fibre beds and to evaluate the influence of strain deviations on viscoelastic parameter extraction, Composites Part A: Applied Science and Manufacturing, Vol. 143, 2021, 106315, https://doi.org/10.1016/j.compositesa.2021.106315
  • Bühler R., Thommen M., Le Canut J.-M., Weber J.-F., Rytka C., Tsotra P., Highly conductive polypropylene-based composites for bipolar plates for polymer electrolyte membrane fuel cells. Fuel Cells. 2021,1–9. https://doi.org/10.1002/fuce.201900232
2020
  • Rytka C, Spezifische Halbzeuge für den 3D-Druck, Kunststoffextra, 2020
  • Jakubowsky M., Werder J., Rytka C., Kristiansen M., Neyer A. (2020): Design, manufacturing and experimental validation of a bonded dual component microstructured system for vertical light emission Microsystem Technologies, 26(6), 2087-2093; https://doi.org/10.1007/s00542-020-04767-z
2019
  • Arexabaleta, L.; Rytka, C.; Walker, L.; Analysis of the manufacturing process of a car bonnet using Compression Resin Transfer Moulding (CRTM). AEMAC, [S.l.], v. 3, n. 3, p. 60-67, (2019). ISSN 2531-0739.
  • Fairhurst A., Thommen M., Rytka C. (2019): Comparison of short and long term creep testing in high performance polymers Polymer Testing 78 105979, https://doi.org/10.1016/j.polymertesting.2019.105979
  • Madeleine Grossman, Dmitriy Pivovarov, Florian Bouville, Clemens Dransfeld, Kunal Masania,* and André R. Studart*, Hierarchical Toughening of Nacre-Like Composites, Advances Functional Materials 2019, 1806800
2018

Towards aerospace grade thin-ply composites: Effect of ply thickness, fibre, matrix and interlayer toughening on strength and damage tolerance
J. Cugnonia,∗, R. Amachera, S. Kohlera, J. Brunnerb, E. Kramerb, C. Dransfeldb, W. Smith, K. Scobbied, L. Sorensene, J. Botsisa
Composites Science and Technology 168 (2018) 467–477

2017
  • Core-shell rubber nanoparticle reinforcement and processing of high toughness fast-curing epoxy composites, Keller, A.; Chong, H. M.; Taylor, A. C.; Dransfeld, C.; Masania, K., Composites Science and Technology 2017, 147, 78-88.
  • Protective effect of ultrathin alumina film against diffusion of iron into carbon fiber during growth of carbon nanotubes for hierarchical composites investigated by ptychographic X-ray computed tomography,Szmyt, W.; Vogel, S.; Diaz, A.; Holler, M.; Gobrecht, J.; Calame, M.; Dransfeld, C., Carbon 2017, 115, 347-362.
2016
  • Rytka, C., Opara, N., Andersen, N. K., Kristiansen, P. M. and Neyer, A. (2016), On The Role of Wetting, Structure Width, and Flow Characteristics in Polymer Replication on Micro- and Nanoscale. Mater. Eng. 301 597–609
  • Rytka C., Lungershausen J., Kristiansen P. M., Neyer A., (2016) 3D filling simulation of micro- and nanostructures in comparison to injection moulding trials Micromech. Microeng. 26 065018
  • Studer, J.; Dransfeld, C.; Masania, K., Composites Part A: An analytical model for B-stage joining and co-curing of carbon fibre epoxy composites, Applied Science and Manufacturing 2016, 87, 282-289
2015
  • Rytka C., Kristiansen. P. M., Neyer A. (2015), Iso- and variothermal injection compression molding of polymer micro- and nanostructures for optical and medical applications. J. Micromech. Microeng., 25 065008

  • Rother, M., Barmettler, J., Reichmuth, A., Araujo, J. V., Rytka, C., Glaied, O., Pieles, U. and Bruns, N. (2015), Self-Sealing and Puncture Resistant Breathable Mem branes for Water-Evaporation Applications. Adv. Mater. 27 6620-4; https://doi.org/10.1002/adma.201502761

  • Thermoplastic carbon fibre-reinforced polymer recycling with electrodynamical fragmentation:
    From cradle to cradle, Roux, M.; Eguémann, N.; Dransfeld, C.; Thiébaud, F.; Perreux, D., Journal of Thermoplastic Composite Materials 2015.
  • Fast-curing epoxy polymers with silica nanoparticles: properties and rheo-kinetic modelling, Keller, A.; Masania, K.; Taylor, A.; Dransfeld, C., Journal of Materials Science 2015, 1-16.
  • Plasma modified Polytetrafluoroethylene (PTFE) lubrication of α-olefin-copolymer impact-modified Polyamide 66, Hunke, H.; Soin, N.; Gebhard, A.; Shah, T.; Kramer, E.; Witan, K.; Narasimulu, A. A.; Siores, E., Wear 2015, 338–339 (0), 122-132.
  • Influence of plasma pre-treatment of polytetrafluoroethylene (PTFE) micropowders on the mechanical and tribological performance of Polyethersulfone (PESU)–PTFE composites, Hunke, H.; Soin, N.; Shah, T.; Kramer, E.; Witan, K.; Siores, E., Wear 2015, 328–329 (0), 480-487.
  • Low-Pressure H2, NH3 Microwave Plasma Treatment of Polytetrafluoroethylene (PTFE) Powders: Chemical, Thermal and Wettability Analysis, Hunke, H.; Soin, N.; Shah, T.; Kramer, E.; Pascual, A.; Karuna, M.; Siores, E., Materials 2015, 8 (5), 2258.
2014
  • Surface-Structured Bacterial Cellulose with Guided Assembly-Based Biolithography (GAB), Bottan, S.; Robotti, F.; Jayathissa, P.; Hegglin, A.; Bahamonde, N.; Heredia-Guerrero, J. A.; Bayer, I. S.; Scarpellini, A.M Merker, H.; Lindenblatt, N.; Poulikakos, D.; Ferrari, A., ACS Nano 2014, 9 (1), 206-219.
  • Thin ply composites: Experimental characterization and modeling of size-effects, Amacher, R.; Cugnoni, J.; Botsis, J.; Sorensen, L.; Smith, W.; Dransfeld, C., Composites Science and Technology 2014, 101 (0), 121-132.
  • Tailoring surface nanostructures on polyaryletherketones for load-bearing implants, Urwyler, P.; Zhao, Z.; Pascual, A.; Schift, H.; Müller, B., European Journal of Nanomedicine 2014, 6 (1), 37-46.
2013
  • Improved strength of carbon fibres after CNT growth by application of thin alumina layer, S. Vogel; C. Dransfeld; M. Calame; J. Gobrecht, Proceedings of Composites Week@Leuven 2013.
  • Reinforcement of partially cured aerospace structures with B-staged patches, J. Studer; K. Masania; C. Dransfeld, Proceedings of the 19th international conference on composite materials 2013, Montreal 2013.
  • High performance thermoplastic composite processing and recycling from cradle to cradle, M. Roux; N. Eguémann; L. Giger; C. Dransfeld, Proceedings of the SAMPE Europe 34th SEICO International Technical Conference , Paris 2013, 145-150.
  • Recycling of high performance composites with high voltage fragmentation, M. Roux; C. Dransfeld; N. Eguémann; L. Giger, Proceedings of 19th international conference on composite materials 2013, Montréal 2013.
  • The compression resin transfer moulding process for efficient composite manufacture, K. Masania; B. Bachmann; C. Dransfeld, Proceedings of the 19th international conference on composite materials 2013, Montreal 2013.
  • Effets de taille dans les matériaux discontinus obtenus é partir de bandes de fibres de carbone pré-imprégnées, N. Eguémann; F. Thiébaud; D. Perreux; C. Dransfeld, 18ème Journées nationales sur les composites 2013, Nantes 2013.
  • Manufacturing of complex composite parts for aerospace application with novel and recycled thermoplastic materials, N. Eguémann; L. Giger; M. Roux; C. Dransfeld; F. Thiébaud; D. Perreux, Proceedings of 19th international conference on composite materials 2013, Montréal 2013.
  • The modelling of toughening of epoxy polymers via silica nanoparticles: the effects of volume fraction and particles size, F.P. Bray; F.J. Dittanet; P. Guild; A. J. Kinloch; K. Masania; R.A. Pearson; A. C. Taylor, Polymer (accepted) 2013.
  • Simulation of the compresion resin transfer molding process for high volumen manufacturing, B. Bachmann; K. Masania; C. Dransfeld, Proceedings of Composites Week@Leuven 2013.
2012
  • Bearing load introduction using B-stages reinforcements and partially cured aerospace structures, J. Studer; K. Masania; C. Dransfeld, Proceedings of the SAMPE Europe 7th SEICO International Technical Conference, Lucerne 2012.
  • The compression resin transfer moulding process for efficient composite manufacture, K. Masania; C. Dransfeld, Proceedings of the SAMPE Europe 7th SEICO International Technical Conference, Lucerne 2012.
  • Manufacturing and recycling of complex composite thermoplastic parts for aerospace application, N. Eguémann; L. Giger; M. Roux; C. Dransfeld, Proceedings of the SAMPE Europe 7th SETEC International Technical Conference, Lucerne 2012.
  • Fast impregnation of complex shapes for the manufacturing of high performance composites and its associated tooling, C. Dransfeld; K. Masania; E. Kramer; M. Siegfried; S. Klauser, Proceedings of the 11th International Conference on Flow Processes in Composite Materials (FPCM-11), Auckland, New Zealand 2012.
2011
  • Toughening of epoxy using core-shell particles. G. Giannakopoulos; K. Masania; A. C. Taylor, Journal of Materials Science 2011, 46 (2), 327-338.
  • Fast impregnation of complex shapes for the manufacturing of high performance composites and its associated tooling. C. Dransfeld, Proceedings of the SAMPE Europe Technical Conference 2011, Leiden 2011.
  • Quantifying nanoparticle dispersion: application of the Delaunay network for objective analysis of sample micrographs, D. J. Bray; S. G. Gilmour; F. J. Guild; T. H. Hsieh; K. Masania; A. C. Taylor, Journal of Materials Science 2011, 46 (19), 6437-6452.
2010
  • The mechanisms and mechanics of the toughening of epoxy polymers modified with silica nanoparticles, T. H. Hsieh; A. J. Kinloch; K. Masania; A. C. Taylor; S. Sprenger, Polymer 2010, 51 (26), 6284-6294.
  • The toughness of epoxy polymers and fibre composites modified with rubber microparticles and silica nanoparticles, T. H. Hsieh; A. J. Kinloch; K. Masania; J. Sohn Lee; A. C. Taylor; S. Sprenger, Journal of Materials Science 2010, 45 (5), 1193-1210.

Swiss Sustainable Polymer Conference SSPC

The Swiss Sustainable Polymer Conference (SSPC) is the first Swiss-wide exchange platform for networking between industry and science in the field of the sustainable transformation of the plastics industry. In addition to informative presentations and laboratory tours, the conference offers showcases from innovative partners and start-ups as well as a wide range of networking opportunities.

About us

Team

The interdisciplinary nature of polymer engineering requires a multitude of skills and wide-range expertise as are to be found at our institute: chemists, materials scientists and engineers all work together to develop innovations that can be launched on the market, thereby making a contribution to the competitiveness of the industry.

Contact

Markus Grob

Prof. Dr. Markus Grob

Head of the FHNW Institute of Polymer Engineering
Phone
+41 56 202 85 27 (Direct)
E-Mail
markus.grob@fhnw.ch

School of
Engineering and Environment FHNW University of Applied Sciences and Arts Northwestern Switzerland

  • About the School
    • FHNW School of Engineering and Environment
    • Degree Programmes
    • Continuing Education
    • Collaboration in Research and Services
  • Social Media
    • LinkedIn
    • Instagram
    • Facebook
    • TikTok
    • YouTube
  • About FHNW
    • Organisation
    • Schools
    • Locations
    • FHNW Library
    • Media Relations
  • Support
    • IT Support
    • Inside FHNW
    • Webmail
Logo FHNW - 20 Years
Logo Swiss Universities
Logo European University Association
© University of Applied Sciences and Arts Northwestern Switzerland (FHNW)
  • Data Protection
  • Imprint
  • Accessibility
  • DE
  • EN