This MSCA Individual Fellowship achieved significant progress beyond the state-of-the-art, yielding advancements in:
• Simulation of Nanostructured Materials: The project developed a sophisticated simulation platform surpassing existing capabilities in modelling the complex dynamics of these materials. This platform enables researchers to explore a wider range of parameters and facilitates the design and optimization of advanced nanostructured devices. Continued refinement and validation of this platform will further enhance its application in nanotechnology and photonics, accelerating the development of novel materials and devices for diverse applications, including sensors, lasers, and metamaterials. This progress has the potential to drive scientific discovery and facilitate the design of nanostructured materials for industrial applications, leading to new products and processes with enhanced performance and cost-effectiveness.
• Development of Optical Sensors: This fellowship created innovative, functionalized nanostructured elements for optically based sensing mechanisms, surpassing existing technologies in sensitivity, reversibility, and conformability. Continued development and refinement of these sensors, including exploring new functionalization strategies, will optimize their performance for specific applications. These advancements have the potential to revolutionize point-of-care diagnostics, enabling early disease detection, personalized medicine, and improved patient monitoring, particularly in resource-limited settings. Furthermore, they can drive the development of a new generation of wearable and implantable sensors for healthcare, environmental monitoring, and industrial applications, fostering both societal well-being and economic growth.
• Advancement of Holographic Devices: The project developed advanced holographic devices for inspection and visualization applications, pushing the boundaries of real-time holographic projection and high-resolution 3D imaging. Further development and optimization of these devices will focus on increasing resolution, enhancing speed and accuracy, and exploring new applications in areas like augmented reality and virtual reality. These innovations can enhance driver safety through real-time holographic displays in automotive head-up displays, improve the efficiency and safety of infrastructure inspection through advanced holographic imaging techniques, and drive innovation in the field of holography, leading to new applications in 3D visualization, augmented reality, and optical data storage.
