Executive Commitee
- Paolo Bisegna– University of Rome Tor Vergata
- Vincenzo Parenti Castelli– Alma Mater Studiorum, University of Bologna
- Gianni Pedrizzetti– University of Trieste
Council Board
- Marco Donato De Tullio – Polytechnic University of Bari
- Michele Marino (secretary) – University of Rome Tor Vergata
- Nicola Sancisi – Alma Mater Studiorum, University of Bologna
- Giuseppe Vairo – University of Rome Tor Vergata
Founder
Roberto Contro
GBMA Aims
The group is composed by researchers and scientists working in the field of Biomechanics. GBMA aims to encourage, promote, and develop research and dissemination activities concerning the science of biomechanics, as well as it aims to promote, initiate, and support cooperation and interaction with other associations and bodies, operating both on the same topics, and – since the deeply interdisciplinary nature of the addressed issues- in affine sectors. Moreover, within the context of the activities promoted by AIMETA, GBMA encourages the knowledge transfer concerning results obtained through the methodological approaches of the theoretical and applied Mechanics towards clinical applications, biomedicine, and bioengineering.
NEXT MEETING
- Convegno GIMC-GMA-GBMA 2023, Reggio Calabria, 12-14 Luglio
Events, Conference Proceedings, Initiatives
- GBMA minisymposium "Theoretical and Applied Biomechanics" within AIMETA 2022
- Giovani alla Ricerca - GBMA, GIMC e GMA si incontrano on-line (7-8 Giugno 2021)
- GBMA minisymposium "Theoretical and Applied Biomechanics" within AIMETA 2019
- Special Issue of “Meccanica” (Springer), volume 52, issue 3, 2017 - Advances in biomechanics: from foundations to applications
- Minisymposium “Biomeccanica teorica e applicata per problemi cardiovascolari” – AIMETA 2017
- Minisymposium “Progressi in biomeccanica: dalla ricerca di base alle applicazioni” – AIMETA 2015
GBMA Award for the best PhD Thesis in Theoretical and Applied Biomechanics
Year | Thesis title | Author |
2022 (ex aequo) |
Modelling the failure mechanics of hard biological tissues: continuum damage-based approaches |
Pierfrancesco Gaziano |
2022 (ex aequo) |
The response of endothelial cells to angiogenic stimuli: experiments, modeling and simulations | Mattia Serpelloni |
2021 (ex aequo) |
Multiscale chemo-mechanical modeling of dystrophic skeletal muscle biomechanics |
Marco Stefanati |
2021 (ex aequo) |
Development of a multiphysics solver for complex coupled problems involving thin shells: fluid-structure-electrophysiology interaction |
Alessandro Nitti |
2020 |
Mathematical Modeling and Machine Learning for the Numerical Simulation of Cardiac Electro-mechanics |
Francesco Regazzoni |
2019 |
On the mechanical behavior of single-cell: from microstructural remodelling to macroscopic elasticity |
Stefania Palumbo |