The Vrije Universiteit Brussel (www.vub.ac.be) is a dynamic and modern university with two parkland campuses in the Brussels Capital Region: the main campus in Etterbeek is home to seven faculties. In Jette you can find the medical campus and the University Hospital.

The core activities of the Vrije Universiteit Brussel are education, research and social services. The university has more than 9,000 students and more than 150 research groups, including research groups that are absolute world leaders in their field. We aim to co-create the future of the society in which we live by providing education, research and social services.

Physical Chemistry and Polymer Science (www.vub.ac.be/FYSC) is a research group in the Faculty of Engineering (FYSC www.vub.ac.be/IR) and is part of the Materials and Chemistry (MACH www.vub.ac.be/MACH) department. The research activities of FYSC are focused on molecular and supramolecular structure–processing–property relations in synthetic, bio-based, and natural polymers for developing sustainable materials with improved performance.

A unique collection of physicochemical analytical techniques and characterization procedures is available for this purpose. We especially aim at continuous progress in thermal analysis for materials’ characterization, using an extensive range of state-of-the-art thermal analysis equipment, including nearly unique (prototype) instruments.


  • Synthesis, processing, and characterization of polymers with a focus on structure-processing-property relationships
  • Characterization of polymer-based materials by advanced thermal analysis techniques
  • Modelling of polymer processing including heat transfer and reaction or crystallization kinetics
  • Thermosetting polymer systems
  • Polymer nanofibers, nanocomposites, and interphases
  • Polymer coatings and thin layers
  • Polymer-based organic photovoltaics
  • Self-healing polymers and Stimuli-responsive polymers

Research in line with BPG:


FYSC focuses on studying structure-property-relationships in polymer-based materials and developing the advanced thermal analysis techniques and methods needed for this purpose. The thermal analysis equipment available comprises conventional thermal analysis techniques like:

  • differential scanning calorimetry (DSC),
  • thermogravimetric analysis (TGA),
  • dynamic mechanical analysis (DMA),
  • thermomechanical analysis (TMA).

Extended with advanced thermal analysis techniques for:

  • measuring transitions more sensitively: modulated temperature differential scanning calorimetry (MTDSC), micro- and nanocalorimetry,
  • faster transformations, suitable for thin films and ultra-small samples: rapid-heat-cool DSC (RHC) and ultra fast scanning chip-based calorimetry,
  • spatially localized thermal analysis at the micro- and nanometer level using scanning probe microscopy based methods (µTA and nanoTA),
  • and novel in-house developed hyphenated thermal techniques permitting combinations of measurements on a single sample (RheoDSC)

This is further supported by

  • dynamic rheometry in an extended temperature range,
  • gel permeation chromatography, specifically equipped for copolymer analysis,
  • spectroscopic techniques: FTIR, UVVis, NMR, Raman,
  • microscopy and surface analysis techniques: AFM, SEM and SEM-EDX, XPS, Auger EM, Raman microscopy.


Research on the development and characterization of novel, functional nano-structured polymer-based materials focuses on nanocomposites and nano-structured active layers for organic photovoltaics. For nanocomposites this involves the design and synthesis of (co)polymers for nanofiller dispersion, the development of methods to study the influence of polymer-filler combinations and processing conditions on the nanofiller dispersion, and the characterization of the materials at all stages. FYSC is also active in the synthesis and fabrication of functional inorganic and organic nanoparticles for inclusion in polymer nanocomposites.

For organic photovoltaics, we currently focus on the study of state diagrams and morphology formation processes in the active layer of polymer-fullerene bulk heterojunction solar cells. As the application thickness of these layers is about 100 nm, ultrafast scanning chip calorimetry is used because it enables us to follow the formation of (metastable) structures in 100 nm thin samples. (with Universiteit Hasselt http://www.uhasselt.be/IMO).


Research in self-healing polymers is centred on three types of self-healing principles: systems with encapsulated healing agents, reversible covalent or physically bounds networks, and nanovascular systems with reacting healing agents.

The systems with encapsulated healing agents, either reactive ones or solvents, are studied with industrial and academic partners (SIM-SHE programme http://www.sim-flanders.be/research-program/she). In addition, we are developing nanovascular systems with reactive self-healing agents, making use of sacrificial templates made by electrospinning (with Department of Textiles of UGent (http://www.ugent.be/ea/textiles).

In-house, we are developing a series of thermoreversible covalent networks. These thermoreversible networks with tuneable properties display self-healing upon heating to 70-90°C. Recently these materials were successfully used for creating the first self-healing actuators for robotic applications. (with Robotics and MultiBody Mechanics Research Group, http://mech.vub.ac.be/multibody_mechanics.htm, VUB).
Together with the PCR group of UGent (www.pcr.ugent.be), photoreversible covalent networks are being developed.


FYSC has more than 30 years of experience in studying and modelling polymerization or cure kinetics and crystallization kinetics, as well as their combination with heat transfer modelling for simulating polymer processing. Recent work in this field includes:

  • the modelling of the cure kinetics and chemorheology of thermosetting polymers for composite or bulk applications,
  • the modelling of the cooling and crystallization of thermoformable masks for medical application,
  • the modelling of photo-induced polymerization reactions for laser-induced generation of 3D structures,
  • the modelling of the crystallization or cure of injection-moulded field joint coatings for deep-sea pipelines.

This modelling work is done with COMSOL finite element modelling software http://www.comsol.com/ and in-house developed software for developing reaction and crystallization kinetics models.

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