In recent decades, the advent of nanomaterials such as graphene and carbon nanotubes ushered in the era of polymer
nanocomposites (PNCs). PNCs are produced by dispersing nanoparticles into a polymer matrix, resulting in composites with
unique mechanical and physical properties. With their outstanding combination of lightweight, durability and strength, these
materials are attracting significant interest in civil engineering. Furthermore, green and biocompatible PNCs are revolutionizing
the construction industry, thus contributing to a more sustainable future.
Despite the considerable interest in PNCs, there remains a notable gap in the availability of mechanical models that can fully
unlock their potential. The existing modeling approaches for PNCs suffer from several limitations, including: (i) reliance on
simplified assumptions that fail to capture the true behavior; (ii) insufficient experimentation leading to inaccurate predictions of
mechanical responses; (iii) shortage of straightforward models readily usable by engineers.
The objective of this project is to advance our knowledge of PNCs and overcome the limitations of current models. The
initial focus is on attaining an in-depth understanding of the mechanical behavior of PNCs through an extensive experimental
campaign. The insights drawn from the experiments serve as the foundation for developing accurate yet straightforward models.
These cutting-edge models provide the means to optimize the design of structures incorporating PNCs, promoting the
construction of lightweight and energy-efficient buildings.
This project offers a unique integration of approaches, competencies and resources spanning civil engineering, materials
science, chemistry and physics. Far-reaching implications in the field of construction are expected, fostering the use of
these revolutionary materials for the advancement of smart and eco-friendly buildings, aligning with our vision of a
greener future.