

Sustainable Plastics
By 2050, the Netherlands should be running a fully circular economy, in which fossil raw materials are eliminated and replaced by renewable or recyclable materials. To achieve this, the Sustainable Plastics professorship is committed to developing bio-based and biodegradable plastics and sustainable production processes. Lecturers and researchers work passionately with students and companies in the Northern Netherlands on knowledge development and educational innovation, divided into four themes.
Research themes
The Sustainable Plastics Professorship has four core themes: 3D Printing, biopolymers, sustainable fibres and biocomposites. Each theme has several research projects. Examples include the development of new bio-based plastics such as copolyesters from renewable raw materials, sustainable inks for 3D printers, composite products based on natural fibres and studies on energy reduction in plastics production processes.
3D printing is rapidly evolving into a competitive production technique, making it possible to create products tailored to customer requirements in a short lead time. Despite current innovations, the materials available for various 3D printing techniques (i.e. FFF, SLA/DLP, SLS) are still limited. Together with students and companies from our region, we focuse on developing new sustainable materials to print high-quality products. A crucial theme is the circularity of 3D printing materials. The partners are committed to 3D printing from recycled plastics, but also to the recyclability of printed products in order to completely close the plastic loop.
Discover the projects
- 3dPrint in Productie (GreenPAC)
- 3D Druck 2.0 (Interreg)
- 3D Druck (Interreg 1.0)
- 3D Scholing (Interreg 1.0)
The term biopolymer has two meanings. Polymers based on natural raw materials are renewable, e.g. polyesters based on plant residues. Polymers that can be degraded by nature are called biodegradable. Some plastics combine both properties, such as PHA, a plastic made by bacteria that degrades when you put them in the ground. According to the Sustainable Plastics Professorship, the development of new biopolymers offers great opportunities for the Northern Netherlands as a circular knowledge region. We make a selection from potential applications with the aim: to come up with technical challenges to bring these applications closer.
Discover the projects
- Biokleur
- BERNN project (EFRO)
- Copolyester
- Microspuitgieten (Interreg 2.0)
- Microspuitgieten (Interreg 1.0)
Smart materials are materials that can undergo major changes in their shape due to external influences. Our research focuses on the application of smart or sensory materials in textiles. Think of safety clothing or applications in the automotive industry. Within these research projects, we collaborate with our network. There is a clear interaction between our projects and the further development into commercial products. Vice versa, questions can come from the network which we, in turn, can investigate.
Discover the projects
- Smart Sustainable Sailing (ROSF)
- Sustainable Fibres (Interreg 2.0)
- Sustainable Fibers (Interreg 1.0)
Composites are materials composed of plastic and fibres. Glass, aramid or carbon are often used as fibre materials. Polyester and epoxy are often used as plastics. Composites last a long time but are not durable. It takes a lot of energy to make them and they are almost impossible to recycle. Biocomposites are composed of bio-based plastics and reinforced with natural fibres. The big advantages: they are biodegradable and easy to recycle. The development of biocomposite products such as decking and door panels for cars is in full swing. This is not yet the case in the construction, furniture and transport sectors. But new technologies will soon make it possible to produce building materials that can replace wood, steel and concrete.
Discover the projects
- Biobrug II (GreenPAC)
- Cirbind (ISPT)
- Biobased extruderen (Interreg 2.0)
- Biogebaseerde modulaire woningbouw systemen (Interreg 2.0)
- Biobased Fietspad (Interreg 1.0)
- Biobased Woningbouw (Interreg 1.0)
- Fokker WCCS
Highlighted project
CuRe is an energy-efficient solution for endless product-to-product transformation. Infinite recycling, over and over again. CuRe Technology BV is a collaboration between the Morssinkhof Group and the DuFor/Cumapol Group, with strategic partners DSM-Niaga and NHL Stenden University of Applied Sciences. Together, the CuRe consortium offers high-level expertise in the sectors of recycled polyester production, waste preparation, and materials science. Contact
Do you have a question about one of our projects or want to know about collaboration opportunities with students? Please get in touch!
NHL Stenden
Sustainable Plastics Research Group
Van Schaikweg 94
7811 KL Emmen
0591 - 85 31 16
Lectoraat.dk@nhlstenden.com
Team Members
- Albert Hartman
- Corinne van Noordenne
- Daan van Rooijen
- Geraldine Schnelting
- Harm-Jan Bouwers
- Jan Jager
- Joyce Rotman
- Rik Brouwer
- Rudy Folkersma
- Tobias van der Most
- Vincent Voet
Groundbreakers Dai Carter and Edino van Dorsten inspire during Start Academic Year
