Matter is discrete and complex. Physical phenomena are however often described by few equations with a small number of macroscopic variables. Our understanding of Nature therefore stems from simple classical and quantum models of the underlying microscopic quantum world. The universality, accuracy and predictive power of these coarse grained models prompts fundamental questions:
- Which aspects of complex quantum systems allow for a simple effective description?
- How can we isolate the variables making the effective description of a quantum system simple and accurate?
- How can we exploit quantum phenomena to realize devices?
Quantum complexity deals with these fundamental questions.
Researchers
Valentina Brosco, Claudio Conti, Silvia Gentilini, Neda Ghofraniha, Laura Fanfarillo, Simone Felicetti, Giovanni Giacomelli, Emilia Giorgetti, Rosanna Larciprete, José Lorenzana, Mauro Missori, Oriele Palumbo, Davide Pierangeli, Annalisa Paolone, Laura Pilozzi, Tommaso Rizzo, Bruno Tiribilli, Ruggero Vaia, Paola Verrucchi
The Hyperspin Machine in Nature Communications
in News, Quantum ComplexitySIF Prize “Sergio Panizza e Gabriele Galimberti” to D. Pierangeli
in News, Quantum ComplexityThouless pumping of light with a twist – Nature Physics News and Views
in News, Quantum ComplexityNews and Views on “Thermally reconfigurable random lasers”
in News, Quantum Complexity, Soft MatterPhotonics and the Nobel Prize in Physics – News and Views on Nature Photonics
in News, Quantum ComplexityNature Communications : Hyperbolic optics and superlensing from self-induced topological transitions
in News, Quantum ComplexityQUANCOM project launched!
in News, Quantum ComplexityTime and classical equations of motion from quantum entanglement
in News, Quantum ComplexityPhotonics Research Special Issue now available online
in News, Quantum ComplexityReplica Symmetry Breaking Maps in Random Laser, ACS Photonics (2021)
in News, Quantum Complexity