Ambitions and vision
The CNR Department of Physical Sciences and Technologies of Matter (DSFTM) is a pivotal division within Italy's National Research Council (CNR), focusing on advancing knowledge in the physics of matter and materials science. DSFTM's research encompasses a broad spectrum, including the development of nanostructures based on semiconductors, oxides, organic and magnetic materials, superconductors, and hybrid systems. The department also delves into laser and photonic systems, sensors, and devices for microelectronics, with applications spanning energy, healthcare, and information and communication technologies (ICT). DSFTM is renowned for its cutting-edge research in quantum science and technology, particularly in the manipulation and transfer of information to create advanced data processing devices. Their work is crucial in pushing the boundaries of classical systems, striving for unmatched capabilities in quantum computing and related fields. DSFTM's collaborative approach with universities and high-tech industries, particularly in creating spin-offs, has led to significant technological advancements and economic impacts. A core value of DSFTM is bridging the gap between fundamental research and practical technological applications. This mission is supported by its state-of-the-art facilities and innovative methodologies, which enable comprehensive studies of complex materials and biological systems at all levels. The department's work not only contributes to scientific knowledge but also addresses global challenges such as sustainable energy and advanced healthcare solutions.
Technical fields
The department's primary focus includes the creation and study of nanostructures. These materials are foundational to developing advanced laser and photonic systems, as well as sensors and devices with applications in microelectronics, energy, healthcare, and information and communication technologies. In the field of quantum science and technology, DSFTM excels in developing technologies for the manipulation and transfer of information. This research aims to create quantum devices for data processing that surpass classical systems in performance and efficiency. The department's expertise extends to biophotonics, nanomedicine, and nano(bio)technologies, highlighting their multidisciplinary approach and capacity to address complex scientific challenges. DSFTM is also involved in developing ultrashort pulse lasers and coherent radiation sources in the infrared and ultraviolet spectrums, contributing to significant advancements in optical diagnostics and transmission technologies. The department’s work in very low temperature atomic physics and complex systems further underscores its role in pioneering new methods and technologies for understanding and manipulating matter at fundamental levels. Additionally, DSFTM plays a pivotal role in nanomechanics and the development of innovative micro/nanorobotics actuators, designed for high-performance applications. Their research in magnetism and superconductivity is internationally recognized, fostering both theoretical and experimental advancements in these fields. By integrating basic and applied research, DSFTM supports the development of new materials, devices, and sensors, promoting sustainable technological solutions to global challenges.