Conferences  >  Physics  >  Quantum Mechanics and Quantum Technology  >  Italy

Quantum computing (QC) is a constantly evolving research field, and the rapid progress in hardware development is opening new possibilities and offering new challenges. At the same time, quantum information is a highly multidisciplinary field, with increasing crossbreeding with condensed matter, molecular physics, quantum optics, and high-energy physics. The Quantum Science Generation (QSG) 2026, in its fourth edition, continues this successful event series aimed at young researchers who are interested in expanding their expertise or are delving for the first time into the fascinating field of quantum technologies

Lake Como School of Advanced Studies (LCSAS)

Quantum materials, Low Temperature Physics,    Courses and Events for Physics Students

Lake Como School of Advanced Studies (LCSAS)

TQD 2026 is the first summer school to unite the theory of quantum thermodynamics with hands-on numerical training in the two most powerful tools for analyzing quantum systems today: tensor networks and machine learning. Over five days on the shores of Lake Como, participants will explore how fundamental quantum features — coherence, entanglement, and measurement — shape thermodynamic behavior, and they will learn how to model these effects through practical coding sessions.

University of Naples Federico II

Atomic and Molecular Physics,    Optics and Lasers

Lake Como School of Advanced Studies (LCSAS)

The “Workshop on Many-Body Quantum Magic” will bring together experts from universities, national laboratories and technology companies with expertise in quantum information science and various areas of many-body and high-energy physics, to further the development of quantum complexity – entanglement and nonstabilizerness (magic) – as a quantitative tool in the study of strongly correlated quantum systems, including those relevant to nuclear physics. Magic has been identified as the essential resource enabling quantum computers to outperform classical simulation methods, yet only recently have tools become available to quantify and analyze it in many-body settings. This development opens new opportunities to study the generation, manipulation and certification of magic in extended systems, with profound implications for quantum computation, simulation of physical systems, and our understanding of complex matter. The significance of this workshop lies in advancing fundamental aspects of quantum information science, while bridging quantum information science to fundamental physical systems, including nuclear many-body physics. Many-body systems exemplify highly correlated quantum matter whose simulation is computationally demanding, and where identifying the boundaries between classical and quantum tractability is of critical importance. By accelerating advances and applications of quantum magic in quantum information, condensed matter, nuclear physics and quantum chemistry, we can better characterize the limitations of current approaches, inform the design of efficient tensor-network and variational methods, and guide the development of quantum algorithms and simulations.