Abstract trace of a quantum wavepacket orbiting in a rotating trap

This research line explores quantum-enhanced strategies, including the use and generation of non-classical states of light, such as broadband high-brightness squeezed vacuum, as fundamental quantum optics tools for advanced sensing and communication systems. It also focuses on the development of methods for the modeling and control of quantum systems, with particular emphasis on high-fidelity quantum information processing in trapped-ion platforms. This includes the use of both laser- and microwave-based approaches, supported by detailed radiation pattern modeling. In addition, it develops machine learning architectures and Bayesian statistical methods for the analysis of complex experimental datasets, bridging theory and experiment and enabling the characterization of quantum platforms under realistic conditions.

14 people in this line

NamePositionResearch lines
Alsina, PolPhD StudentQuantum Optics & Control
Arrazola, IñigoAssistant ProfessorQuantum Optics & Control
Biteri, AinitzePhD StudentQuantum Optics & Control
Casanova, JorgeResearcherQuantum Optics & Control, Quantum Sensing & Metrology
Garcia, JaimePhD StudentQuantum Optics & Control
Iriarte, IñakiPhD StudentQuantum Optics & Control
Lizuain, IonAssociate ProfessorQuantum Optics & Control
Martínez Garaot, SofíaAssistant ProfessorQuantum Optics & Control
Novoa, DavidIkerbasque Research FellowQuantum Optics & Control, Quantum Sensing & Metrology, Quantum Communications
Palmero, MikelAssociate ProfessorQuantum Optics & Control
Rodríguez Prieto, AlvaroAssociate ProfessorQuantum Optics & Control
Tobalina, AnderAssistant ProfessorQuantum Optics & Control
Whaites, OliverPostdoc FellowQuantum Optics & Control
Zubia, JosebaFull ProfessorQuantum Optics & Control, Quantum Sensing & Metrology, Quantum Communications

Other lines in Quantum Sensing & Communications