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QT Education Master Degree

CityName of your University or Research InstituteDepartmentName of the Master schoolCurriculum and topicsCurriculum or topic nameDuration Coordinator's nameCoordinator's emailwebsite
PaviaUniversità di PaviaDipartimento di FisicaLaurea Magistrale in Scienze Fisiche (Master in Physical sciences)curriculumPhysics of Quantum Technologies2 yearsChiara Macchiavellochiara@unipv.ithttp://fisica.unipv.it/dida/Corso_LM_Scienze_Fisiche.htm
PisaUniversità di PisaDipartimento di FisicaCorso di Laurea Magistrale in Fisica (Master school)study planQuantum Computation and Technologies2 yearsRiccardo Mannellariccardo.mannella@unipi.ithttps://www.df.unipi.it/it/didatticanuova/1011/classe-lm-17
CasertaUniversity of Campania “Luigi Vanvitelli”Department of Mathematics and Physics (DMF)Master of Science (MSc) Programme in PhysicstopicAtoms, molecules and photons24 monthLivio Gianfranilivio.gianfrani@unicampania.ithttps://www.matfis.unicampania.it/didattica/corsi-di-studio/corso-di-laurea-magistrale-in-physics
CataniaUniversity of CataniaDepartment of physics and astronomy "Ettore Majorana"Laurea magistrale in PhysicscurriculumSub-Curriculum in Theoretical Condensed Matter Physics with five specialized courses in quantum information, quantum optics, computational quantum dynamics, superconductivyty, quantum phases of matter2 yearsFrancesca Zuccarello/ Giuseppe Falci for Theor. Cond Mat.giuseppe.falci@unict.ithttps://www.dfa.unict.it/en/content/courses/LM-17
MilanUniversity of MilanDepartment of Physics 'Aldo Pontremoli'PhysicstopicQuantum information & technology2 yrs (master, 120 ECTS credits)Alberto Pulliaalberto.pullia@unimi.ithttp://eng.fisica.unimi.it/ecm/home/teaching

QT Education_PhD

CityName of your University or Research InstituteDepartmentName of the PhD program Curriculum and topicsCurriculum or topic nameDuration Coordinator's nameCoordinator's emailWebsite
NapoliUniversità di Napoli Federico IIDipartimento di Fisica "E.Pancini"Quantum Technologiescurriculum3 yearsFrancesco Tafurifrancesco.tafuri@unina.ithttps://www.fisica.unina.it/presentazione-dottorato-qt
ModenaUniversità di Modena e Reggio EmiliaScienze Fisiche, informatiche e MatematichePhysics and Nanosciences3 yearsStefano Frabboniphd_physicsnanosciences@unimore.ithttp://www.nano-phdschool.unimore.it/site/home.html
PalermoUniversità di PalermoDipartimento di Fisica e ChimicaDottorato in Scienze Fisiche e ChimichetopicQuantum Technologies3 yearsGioacchino Massimo Palmamassimo.palma@unipa.ithttps://www.unipa.it/dipartimenti/difc/dottorati/scienzefisicheechimiche
PisaScuola Normale SuperioreClasse di ScienzePhysics, NanoscienzetopicQuantum Technologies, and quantum information4 yearGigi Rolandi and Andrea Ferraraluigi.rolandi@sns.ithttps://www.sns.it/en/nanoscience
CataniaUniversity of CataniaDepartment of physics and astronomy "Ettore Majorana"PhD in FisicacurriculumCurriculum in Theoretical Physics of fundamental Interaction and Quantum Technologies3 yearsSebastiano Albergosebastiano.albergo@dfa.unict.ithttps://www.dfa.unict.it/it/content/dottorato-fisica
MilanUniversity of MilanDepartment of Physics 'Aldo Pontremoli'Phd in Physics, Astrophysics and Applied PhysicstopicQuantum information & technology3 yearsMatteo Parismatteo.paris@unimi.ithttp://phd.fisica.unimi.it
BariUniversità di BariDipartimento di FisicaPhysicstopicQuantum Information and Quantum Tecnologies3 yearsGiuseppe Iaselligiuseppe.iaselli@poliba.ithttp://phdphysics.cloud.ba.infn.it

QT Research Groups

CityName of your University or Research InstituteDepartmentName of the research groupTheoretical or/and experimentalFlagship topicFree topicShort descriptionNumber of the group membersCoordinator's nameCoordinator's emailWebsite
BariUniversity of BariPhysicsQuantumTheoreticalquantum computation, quantum simulation, basic science Quantum simulations of lattice gauge theories.
Complexity.
Entanglement.
Quantum dissipative systems.		10Saverio Pascaziosaverio.pascazio@ba.infn.ithttp://www.ba.infn.it/~pascazio/
CamerinoUniversity of CamerinoPhysics Division, School of Science and TechnologyQuantum Technologies and OptomechanicsTheoretical, ExperimentalQuantum communication, quantum sensing and methrology, basic science Quantum sensing with hybrid optomechanical devices, i.e., nanomechanical resonators coupled to quantum light and quantum microwaves., Quantum interfaces for signal conversion at the quantum level, Quantum communication and sensing with quantum light and microwaves10David Vitali, Giovanni Di Giuseppedavid.vitali@unicam.ithttps://www.unicam.it/iquoems/
CamerinoUniversity of CamerinoSchool of Science and TechnologyQuantum Mechanics & Information Theory (QM&IT)TheoreticalQuantum Communication, Basic ScienceQuantum channels capacities; Quantum control and error correction; Entanglement characterization; Information geometry; Quantum cryptography5Stefano Mancinistefano.mancini@unicam.ithttp://qmit.phys.unicam.it/
CataniaUniversity of CataniaDepartment of physics and astronomy "Ettore Majorana"Condensed Matter and Quantum Technologies (CMQT)Theoreticalquantum computation, quantum simulation, basic science Quantum computation with superconductors. Strong and Ultrastrong coupling. Hybrid graphene-Josephson systems
Open quantum systems: non-Markovian dynamics and quantum sensing.
Atomtronics		9Giuseppe Falcigiuseppe.falci@unict.ithttps://www.dfa.unict.it/en/cmqt
ComoUniv. InsubriaScience and High TechnologyCenter for Nonlinear and Complex SystemsTheoreticalbasic science - Quantum Thermodynamics (quantum heat engines, trade-off between power, efficiency, and fluctuations, thermodynamic uncertainty relations, heat management at the nanoscale, thermal rectification)
- Quantum information processing in the ultra-strong coupling regime (state transfer, entanglement generation, two-qubit gates)		3Giuliano Benentigiuliano.benenti@uninsubria.ithttp://scienze-como.uninsubria.it/benenti/
ComoIFN-CNR c/o University of InsubriaDepartment of Science and high TechnologyUltrafast Nonlinear Optics groupExperimentalquantum sensing and methrology, basic science Nonlinear and Quantum OpticsBeam shaping and tailoring of the pump of Parametric down conversion processes for the generation of twin beams and the engineering of correlated and multipartite entangled states.

Beam shaping and application to laser micromachining of diamond for quantum sensing and microfluidics.		3Ottavia Jedrkiewiczottavia.jedrkiewicz@ifn.cnr.it
FirenzeIstituto Nazionale di Ottica/LENSQuantum Science and Technology in ArcetriTheoreticalQuantum communication, quantum computation, quantum simulation, quantum sensing and methrology, basic science Qstar offers a highly interdisciplinary scientific environment focused on quantum science and technology and in particular on the research opportunities in low-energy quantum science that are being created by emerging new technologies in atomic, molecular and optical (amo) physics, precision metrology, and nano-scale science.
(Connected to Quantum gases at LENS)		12Augusto Smerziaugusto.smerzi@ino.cnr.ithttp://www.cqstar.eu/2019/index.html
FirenzeLENS (Università di Firenze)/CNR-INOQuantum gasesExperimentalquantum simulation, quantum sensing and methrology, basic scienceIn our labs we use lasers and magnetic fields to produce the lowest temperatures of the Universe, just a few billionths of a degree above absolute zero. At these temperatures, atoms stop moving and we can control them for a variety of different fundamental studies and applications. We can force atoms to arrange according to a periodic structure and simulate the behavior of crystalline solids and new materials. We can use the atoms as ultra-high accurate sensors to probe forces with the power of quantum mechanics. We can study how quantum particles combine together under the action of strong interactions and how superfluidity develops. We can use these ultracold atoms to process information and develop new quantum technologies.
(Includes INRIM at LENS, connected to Qstar in Arcetri).		40Massimo Inguscioquantumgases@lens.unifi.ithttp://quantumgases.lens.unifi.it/
LecceIstituto di Nanotecnologia - CNRScienze fisiche e tecnologie della materiaAdvanced Photonics LabExperimentalquantum simulation, basic science We are interested in the quantum properties of exciton-polaritons, hybrid particles formed by the strong coupling of photon and exciton, for the realization of nonlinear quantum devices. We already demonstrated quantum behaviors at the macroscopic level, by reaching Bose-Einstein condensation and superfluidity at room temperature, as well as the entanglement of a photon-polariton pair and single polariton interference. Now, we focus on many body quantum effects in fluids of light, topological properties in engineered materials and nonlinear logic gates for quantum circuits.18Daniele Sanvittodaniele.sanvitto@nanotec.cnr.ithttp://polaritonics.nanotec.cnr.it/
MilanNational Research Council (CNR)Institute for Photonics and NanotechnologiesFAST GroupExperimentalQuantum Computation, Quantum Communication, Quantum Simulation, Basic science Our research field is Integrated Quantum Photonics (IQP). IQP is an enabling technology for all quantum photonic topics, from communication to basic science. Through multiple collaborations worldwide we aim to address all of them. Our main technological platform is femtosecond laser writing of integrated photonic circuits. This versatile technology allows unique 3D layouts, rapid prototyping and multimaterial processing. Our activity is funded by several EU projects, including a dedicated ERC AdG.8Roberto Osellameroberto.osellame@cnr.ithttp://www.mi.ifn.cnr.it/research/fs-micromachining
MilanPolitecnico di MilanoMathematicsQuantum ProbabilityTheoreticalbasic science Quantum stochastic calculusThe group is working in quantum measurement theory and quantum information. In particular the group is developing the theory of quantum measurements in continuous time (quantum trajectories) with applications to photo-detection theory, optomechanical systems, quantum control (measurement based feedback). The group is active also in quantum tomography and measurement uncertainty relations in entropic formulation.
In general mathematical tools needed to model quantum open systems are studied and developed, such as quantum stochastic calculus, quantum Markov semigroups, noncommutative potential theory.		7Alberto Barchiellialberto.barchielli@polimi.ithttps://www.mate.polimi.it/qp/
MilanUniversity of MilanDepartment of Physics 'Aldo Pontremoli'Applied quantum mechanics (it is theoretical and experimental group))TheoreticalQuantum communication, quantum computation, quantum simulation, quantum sensing and methrology, basic science Quantum OpticsOur research aims to enlarge knowledge and to solve problems in fundamental and applied science by using new tools based on quantum physics and quantum technologies and by building-up core competences for the wider exploitation of quantum science and technologies in mainstream engineering.

FIELDs OF RESEARCH: quantum sensing and metrology, open quantum systems, quantum communication, quantum and atom optics,
quantum simulations, foundations of quantum mechanics, quantum information processing, quantum computation, cold atoms, nonlinear optics, extreme states of matter, exotic atoms.		15Matteo Parismatteo.paris@fisica.unimi.ithttps://sites.unimi.it/aqm/
MilanoPolitecnico di MilanoDipartimento di Elettronica, Informazione e BioingegneriaSPADlabExperimentalQuantum communication, quantum sensing and methrology Single photon detectorAt SPADlab we design, develop, fabricate and characterize Single-Photon Avalanche Diodes (SPADs), which are single-photon detectors fabricated in silicon, InGaAs/InP and germanium. Our research goes from the single pixel to complex single-photon imaging systems.12Alberto Tosialberto.tosi@polimi.ithttps://www.deib.polimi.it/ita/laboratori-deib/dettagli/61
NaplesCNR-SPINOptical Quantum CommnunicationExperimentalQuantum communication, basic science Generation and characterization of multi-partite quantum state.
Quantum communication protocols
Use of different degree of freedom for enconding and transmitting quantum information		Alberto Porzioalberto.porzio@spin.cnr.it
NapoliUniversità di Napoli Federico IIDipartimento di Fisica "E.Pancini"Superconducting Quantum TechnologiesExperimentalQuantum communication, quantum computation, basic science Superconducting Electronic, superconducting qubits, transmonsThe research activity of the superconductivity group in Napoli is mostly focused on superconducting electronics, on qubits and transmons, on the interface between quantum and classical components, on novel protocols of control and read-out of qubits.
The PhD program develops also in Firenze and Camerino and overall covers more topics: quantum computation, quantum networks and communication, quantum simulation, quantum sensors and metrology with some focus on quantum interfaces and couplers for integrated hybrid quantum devices.		12Francesco Tafurifrancesco.tafuri@unina.ithttp://www.qtlab.unina.it
PadovaPadova UniversityDepartment of Physics and AstronomyQuantum scienceTheoreticalquantum computation, quantum simulation, basic science Tensor network methods, quantum science and technologies, quantum optimal control6Simone Montangerosimone.montangero@unipd.ithttp://quantum.dfa.unipd.it
PalermoUniversità di PalermoDipartimento di Fisica e ChimicaOpen quantum systems, quantum optics, quantum thermodynamics, complex quantum systemsTheoreticalQuantum communication, quantum computation, quantum simulation, quantum sensing and methrology, basic science open quantum systems, quantum optics, quantum thermodynamics, quantum machine learning, optomechanical and hybrid mesoscopic system, topological states.8Gioacchino Massimo Palmamassimo.palma@unipa.it
PaviaUniversità degli Studi di PaviaPhysicsQuantum nanostructuresTheoreticalquantum simulation, basic science We study the physics of photonic and electronic nanostructures for applications in quantum simulations, quantum photonics, and quantum thermodynamics. We are also interested in the physics of open quantum systems and their applications to the generation of nonclassical states of radiation.3Dario Geracedario.gerace@unipv.it
PaviaUniversità degli studi di PaviaDipartimento di fisicaQUitTheoreticalQuantum communication, quantum computation, quantum simulation, quantum sensing and methrology, basic science Quantum FoundationsThe Group QUit has worked in the field of Quantum information since the very beginning of the discipline, with main focus on designing new quantum measurements and transformations. QUIT pioneered the technique of quantum tomography of states, quantum error correction and transformations, started quantum metrology, introduced the new notion of "quantum comb" for optimizing quantum algorithms and quantum protocols, studied security of quantum cryptographic protocols, found numerous new types of optimal measurements and transformations. QUit has numerous collaborations around the world14Giacomo Mauro D'Arianodariano@unipv.ithttps://www.qubit.it
PaviaUniversity of PaviaPhysicsNanomaterial for Quantum TechnologiesExperimentalQuantum communication, quantum computation, basic science We study experimentally the properties of quantum and topological nanostructures, implementing them in electrical and optical devices.6Vittorio Bellanivittorio.bellani@unipv.ithttp://fisica.unipv.it/bellani/main.html
PisaIstituto Nanoscienze-CNR, NEST LabsSQELTheoretical, Experimentalquantum computation, basic science Superconducting electronicsOur group focuses on the study of the properties of mesoscopic superconducting devices, ranging from fully metallic to hybrid superconductor-semiconductor systems. Using state of the art cryogenic techniques, we explore condensed matter physics at low temperatures, typically ranging from several Kelvin down to 10 milli Kelvin, both experimentally and theoretically.17Francesco Giazottofrancesco.giazotto@sns.ithttp://web.nano.cnr.it/sqel/
PisaIstituto Nazionale di Ottica (CNR-INO)Rydberg quantum simulatorsExperimentalquantum simulation, basic science We use cold Rydberg atoms to realize quantum simulators. Specifically, we are interested in transport and percolation of excitations in disordered networks of Rydberg atoms with competing coherent driving and dissipation. In the long run, such systems could be used as quantum co-processors for studying the properties of molecules and for the exploration of emergent phenomena in large ensembles of interacting spin systems.3Oliver Morschmorsch@df.unipi.ithttps://fed.ino.it/?page_id=7698&a=52
PIsaScuola Normale SuperioreClasse di ScienzeQuantum Information Theory GroupTheoreticalquantum computation, quantum simulation, basic science Quantum Thermodynamics; Quantum Control; Entanglement TheoryWe are interested in many different theoretical aspect of quantum information theory. Part of the research also exploit collaboration with the experimental group of the NEST lab at SNS.12Vittorio Giovannettivittorio.giovannetti@sns.ithttps://www.sns.it/it/condensed-matter-and-quantum-information-theory-group
PisaUniversity of PisaPhysicsQuantum fluidsTheoreticalquantum simulation, basic science Developing and engineering quantum technologies, mainly (not exclusively) based on quantum gases platforms, with the purpose of conceiving analog quantum simulators and novel paradigms for precision measurements relevant to fundamental physics, and exploring leading-edge pathways to optimize or solve quantum problems that are otherwise non-tractable by present computer machines.2Maria Luisa Chiofalomaria.luisa.chiofalo@unipi.ithttps://people.unipi.it/maria_luisa_chiofalo/
PisaCNR-NANO, NESTTerahertz optics and photonicsExperimentalquantum simulation, quantum sensing and methrology, Basic ScienceThe THz photonics group of Prof. Vitiello, located at the NEST Laboratory (National Enterprise for nanoScience and nanoTechnology) Pisa, Italy, focuses on the design, development and applications of THz quantum cascade lasers; the development of THz quantum nanodetectors based on semiconductor nanowires, 2D materials and vdW heterosctructures; far-infrared metrology; graphene-based photonics; near-field THz microscopy, quantum engineering of photonic devices, quantum technologies with 2D materials.

The group targets new concepts and interdisciplinary approaches to unlock the scientific and technological potential of the terahertz spectrum of the electromagnetic radiation.		11Miriam Serena Vitiellomiriam.vitiello@sns.ithttp://thz-photonics.nano.cnr.it
PisaNanoscienze (CNR NANO)Dipartimento Scienze Fisiche e Tecnologie della MateriaQuantum transport and topological states of matterTheoretical, ExperimentalQuantum Computation, Quantum Sensing and Metrology, Basic ScienceThe research line aims at the investigation of new topological states of matter and their possible exploitation for novel quantum technological applications, such as topological quantum computation. Both theoretical and experimental studies, based on quantum transport and scanning gate microscopy techniques, focus on integer/fractional quantum Hall systems, hybrid superconductor/semiconductor devices and new phases of matter including majorana bound states and parafermions.4Stefan Heunstefan.heun@nano.cnr.ithttp://web.nano.cnr.it/heun/research/
PisaIstituto Nanoscienze (CNR NANO)Dipartimento Scienze Fisiche e Tecnologie della MateriaTopological quantum matterTheoreticalQuantum Computation, Basic ScienceThe research line aims at the theoretical investigation of new quantum phenomena, including topological states of matter, for their exploitation in quantum technologies.
Several aspects, including non equilibrium physics, are studied with special emphasis on the role of interactions and decoherence.
Tight collaborations with experimental groups allow a deeper understanding of quantum transport properties of topological quantum matter.		1Matteo Carregamatteo.carrega@cnr.ithttps://sites.google.com/site/teocarrega/research-interests
PisaIstituto Nanoscienze (CNR NANO) Quantum transport and thermoelectricityTheoretical Quantum Sensing and Metrology, Basic ScienceTheory of quantum transport in hybrid nanostructures and graphene; Thermoelectric properties of nanostructures; Transport in topological materials (quantum Hall systems, topological superconductors and insulators); Spintronics; Time-dependent transport; Graphene4Fabio Taddeifabio.taddei@nano.cnr.it
PozzuoliConsiglio Nazionale delle RicercheIstituto Nazionale di OtticaCold moleculesExperimentalquantum sensing and methrology, basic science Absolute frequency metrology and precision spectroscopy of buffer-gas-cooled ground-state molecules.3Pasquale Maddalonipasquale.maddaloni@ino.cnr.it
Pozzuoli (Napoli)Institute of Applied Sciences and Intelligent Systems of CNR (ISASI-CNR)Department of physical sciences and technologies of matterSQUID groupExperimentalquantum sensing and methrology, basic science The research line consists in the study, design, fabrication and characterization of superconducting quantum interferences devices and their applications to biomagnetim, nanomagnetism, magnetic microscopy, current sensing and ultra high sensitive magnetometry.6Carmine Granatacarmine.granata@cnr.it
http://www.isasi.cnr.it/?page_id=964
Rende (CS)Unviersità della CalabriaFisicaFisica Quantistica della MateriaTheoretical, ExperimentalBasic scienceQuantum thermodynamics- Decoherence and Open quantum systems;
- Quantum Coherence and Correlations;
- Quantum Thermodynamics;
- Spin systems.		3Francesco Plastinafrancesco.plastina@fis.unical.ithttps://www.unical.it/portale/strutture/dipartimenti_240/fisica/ricerca/quantistica/
RomeRoma TreScienceNEw Quantum Optics groupExperimentalbasic science 1. Multiparameter quantum
2. Information thermodynamics
3. Time-frequency quantum state characterisation		3M. Barbierimarco.barbieri@uniroma3.ithttps://web.scienze.uniroma3.it/neqo/
SalernoUniversità degli Studi di SalernoDepartment of Physics "E.R. Caianiello"Quantum transport and quantum simulationsTheoreticalquantum simulation, basic science The research is devoted to the study of quantum transport in nanostructures with topological properties and to the quantum simulation of synthetic matter (either cold atoms systems with short and long range interactions and spin-based models).4Roberta Citrorocitro@unisa.ithttps://www.df.unisa.it/ricerca/progetti-finanziati
TrentoUniversity of TrentoPhysicsNanoscience LaboratoryExperimentalQuantum communication, quantum simulation, quantum sensing and methrologyReasearch on QRNG, single particle entanglement for QKD, source of heralded single photons in integrated quantum photonics for quantum measurements, quantum simulator based on entangle photon states generated by FWM in silicon photonics, SPDC based on lateral p-i-n junctions in silicon for MIR10Lorenzo Pavesilorenzo.pavesi@unitn.ithttp://nanolab.physics.unitn.it/
TriesteSISSAPhysicsStatistical PhysicsTheoreticalQuantum communication, quantum computation, quantum simulation, quantum sensing and methrology, basic science Quantum systems; quantum quenches; quantum field theory; quantum mechanics and number theory; quantum computation; cold atom; quantum simulation30Prof. Giuseppe Mussardomussardo@sissa.ithttps://www.statphys.sissa.it/wordpress/
BariUniversità degli studi di Bari Aldo MoroDipartimento Interateneo di Fisica (Università di Bari e Politecnico di Bari); Dipartimento di ChimicaCondensed Matter Physics and PhotonicsTheoretical, ExperimentalQuantum Sensing and Metrology- Quantum interference effects in self-assembled molecular monolayers and their application to electrolyte-gated single-molecule transistor sensors.
- Single-molecule metrology via room temperature collective effects in functionalized surfaces and interfaces;
- Graphene based electrolyte-gated modulators for quantum cascade laser frequency combs.		12Gaetano Scamarciogaetano.scamarcio@uniba.ithttps://www.uniba.it/docenti/scamarcio-gaetano/curriculum/curriculum-1
FirenzeIstituto Nazionale di Ottica, CNR-INODipartimento di Scienze fisiche e tecnologie della materia, CNRQuantum Science and Technology with PhotonsExperimentalQuantum Communication, Quantum Computation, Quantum Simulation, Quantum Sensing and Metrology, Basic ScienceThe group deals with fundamental and applied quantum science with photons. Some of the main activities involve:
- photon-by-photon engineering of nonclassical optical quantum states and operations;
- quantum nanophotonics with emitters based on single molecules as non-classical light sources, non-linear elements and quantum sensors;
- tailoring of the nonclassical multimode emission from quantum cascade lasers as a new paradigm for quantum simulation and computation;
- development of practical QKD schemes for secure quantum communications in optical fiber networks		15Marco Bellinimarco.bellini@ino.cnr.ithttp://research.ino.it/Groups/extreme_light/

http://www.quantumnanophotonics-lab.it/

https://www.qombs-project.eu/index.php/Home
TrentoFondazione Bruno KesslerCentre for Materials and MicrosystemsFunctional Materials and Photonic StructuresExperimentalQuantum Simulation, Quantum Sensing and Metrology, Basic ScienceIntegrated photonics for Quantum Technologies:
1. Entangled photon sources and generation
2. On-chip single photon detection
Defect centers in Diamond:
1. Quantum sensing with Diamond
2. Diamond-based single photon emitters		12Georg Puckerpucker@fbk.euhttp://cmm.fbk.eu
RomeSapienza Università di RomaDepartment of PhysicsQuantum Information LabTheoretical, ExperimentalQuantum Communication, Quantum Computation, Quantum Simulation, Basic ScienceThe Quantum Information Lab is a research team of the Physics Department of Sapienza University of Rome. Our research is focused on the fields of Quantum Optics and Quantum Information. The manipulation of quantum states of light is the fundamental resource to investigate the foundations of quantum mechanics and to build up a revolutionary technology based on quantum phenomena.15Fabio Sciarrinofabio.sciarrino@uniroma1.ithttp://www.quantumlab.it