Polymers are needed to achieve the tremendous challenge of Sustainable Development. However, at the same time, they are a problem because of their non-renewable fossil origin and very slow degradability. A way to reduce the environmental impact of the polymers, which is embedded in all our activities and will not be detailed here, is to improve their properties to expand their useful life and to reduce the amount needed for a given application. This section covers the research aimed at i) achieving a sustainable polymer production, ii) polymer recycling, iii) developing membranes for water and gases, and iv) sustainable coatings

Sustainable polymer production

Research activities are aimed at developing organocatalysts, solvent-free waterborne polymer dispersions and biosourced polymers. 

            Sustainable catalysis

The use of catalysts is widely spread in order to save energy and improve the performance of the processes they are applied for. However, here, new and green alternatives to metal catalysts are sought with the use of biocatalysts or organocatalyst in the context of the sustainable chemistry. The design and fabrication of enzyme-polymer hybrids, either as bioconjugates or enzyme nanogels, has given rise to efficient and stable catalysts in several applications such as chemical transformations, biosensing or production of energy.

Organocatalysis offer the possibility of replacing polluting metallic catalysts in many polymerizations.   Research is focused on the development of organocatalysts for step-growth polymerizations, as well as for depolymerization.  

Labs involved

Catalysis and Sustainable Polymers

Responsive Polymers Therapeutics


            Waterborne polymer dispersions

Waterborne dispersed polymers are continuously gaining share of the market because of their unique set of properties and the fact that they are solvent free. Research is aimed at overcoming some of the fundamental challenges in the production of waterborne dispersed polymers: achieving good control of the polymer microstructure and particle morphology (in particular for hybrid systems); mimicking Nature to achieve functional coatings such as self-healing and superhydrophobic coatings; and integrating materials from natural resources.

Labs involved:

Polymerization Processes


             Biosourced polymers

Research includes the synthesis of biobased monomers, waterborne coatings, removable adhesives, and packaging materials with good mechanical and barrier properties and full chemical recyclability. The crystallization of biobased polymers is also investigated. 


Labs involved

Catalysis and Sustainable Polymers

Polymerization Processes

Advanced Multiphasic Polymers