Michele Di Lauro, Fabien Alibart, Olivier Bardagot, Pietro Belleri, M. Benwadih, Asma Benyahia, Lukas M. Bongartz, Alexander J. Boys, Ugo Bruno, Mario Caironi, Matías Ignacio Ceballos Hernández, Valeria Criscuolo, Séverine Danthon, Ghader Darbandy, Anna De Salvo, Michael D Dickey, Sami El‐Nakouzi, Simone Fabiano, Marco Fattori, Elena Feltri, D. Gallaire, Elodie Gerente, Paschalis Gkoupidenis, Amir Handelman, Marcello Ienca, Sahika Inal, Benjamin Iniguez, Esma Ismailova, Lina Kadura, Richard Kantelberg, Somayeh Kashani, Scott T. Keene, Yerin Kim, Hans Kleemann, Emil List, Imke Krauhausen, Zonglong Li, Giovanni Ligorio, Nicolas Lobato‐Dauzier, Alessandro Luzio, Christian D. Matthus, Tommy Meier, Andreas Offenhäusser, Shashi Paul, Nikita Prudnikov, Viviana Rincón Montes, Francesca Santoro, Wentao Shan, Ali Solgi, Ermias Telahun Teka, Laura Teuerle, Wei‐Ting Ting, Fabrizio Torricelli, Laurent Tournon, Yoeri van de Burgt, Yazhou Wang, Yeo‐Hwan Yoon, Amer Zaibi, Daniele Zucchelli, Laurie E. Calvet
Abstract Organic materials offer a transformative opportunity for smart edge applications due to their compatibility with large-area manufacturing, mechanical flexibility, scalability at low cost, and potentially reduced environmental impact. While their use in display technologies is now well-established, their integration into other applications domains is still in its early stages. Significant progress has been made in the development of materials for organic neuromorphic devices, enabling explorations of applications in neuroscience, soft robotics and healthcare. Additional promising directions include photonics, optoelectronics and memories. The goal of this roadmap is to consider how properties of these materials can be leveraged to implement alternative computing methodologies to enable a new generation of organic technologies