Multiscale Mechanics of Multifunctional Materials (M3M)

The M3M laboratory is dedicated to the design of new bio-inspired and multifunctional materials, combining experimental and numerical techniques (e.g., multiscale modeling) and leveraging artificial intelligence to accelerate the design phase.
The laboratory integrates theoretical, numerical, and experimental expertise to develop engineered materials, smart composites, and sustainable solutions that combine lightweight, strength, and advanced functionality. Experimental activities include mechanical testing, morphological analysis using optical microscopy and fractography, as well as rapid prototyping of complex structures through 3D printing of polymeric and elastomeric materials and the fabrication of composite materials. Advanced tools also enable the analysis of self-sensing nanocomposites containing conductive nanoparticles. Numerical activities focus on multiscale and multiphysics simulations, from finite element models to atomistic simulations, aimed at analyzing materials and structures with complex hierarchical architectures and nonlinear behavior. Analytical modeling is based on composite theory, advanced material property homogenization techniques, cellular materials theory, and structural instability (buckling). M3M Lab also stands out for its adoption of data-driven methodologies and the integration of artificial intelligence into the design process, accelerating the development of innovative materials and structures. Applications of the lab's research range from biomedical devices to sports equipment, from nautical structures to automotive components, highlighting the versatility and impact of the solutions developed.

Location

  • Via Giuseppe Fasce 4, 16145 Genova

Researchers

  • Scientific referent: Flavia Libonati
  • Collaborators: Ludovico Musenich, Flavia Caronna, Massimiliano Avalle, Mattia Frascio

Research Topics

  • Advanced Materials Design
  • Biomechanics and Study of Natural and Biological Materials
  • Numerical Modeling
  • Design and Fabrication of Engineered Materials and Components Through Additive Manufacturing
  • Design, Fabrication, and Characterization of Composite Materials
  • Characterization of Plastic, Composite, Cellular, and Bioinspired Materials
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