Sordo, FedericaMichaud, VĂ©ronique2016-11-212016-11-212016-11-21201610.1088/0964-1726/25/8/084012https://infoscience.epfl.ch/handle/20.500.14299/131278WOS:000383275000013Glass fiber reinforced composites with a self-healing, supramolecular hybrid network matrix were produced using a modified vacuum assisted resin infusion moulding process adapted to high temperature processing. The quality and fiber volume fraction (50%) of the obtained materials were assessed through microscopy and matrix burn-off methods. The thermo-mechanical properties were quantified by means of dynamic mechanical analysis, revealing very high damping properties compared to traditional epoxy-based glass fiber reinforced composites. Self-healing properties were assessed by three-point bending tests. A high recovery of the flexural properties, around 72% for the elastic modulus and 65% of the maximum flexural stress, was achieved after a resting period of 24 h at room temperature. Recovery after low velocity impact events was also visually observed. Applications for this intrinsic and autonomic self-healing highly reinforced composite material point towards semi-structural applications where high damping and/or integrity recovery after impact are required.fiber reinforced polymer matrix compositesinstrinsic self-healingsupramolecular polymersdampingProcessing and damage recovery of intrinsic self-healing glass fiber reinforced compositestext::journal::journal article::research article