I am a theoretical physicist working at the interface of quantum information, quantum communication, quantum foundations, mathematical physics, and quantum optics. My research develops practical ways to certify and protect quantum resources under realistic constraints, including finite data, noise, loss, imperfect devices, and restricted measurement access.
Current themes include finite-size security in quantum key distribution, device-independent methods and self-testing, entanglement detection through randomized measurements, quantum error filtration, Bell nonlocality, and quantum machine learning. Earlier work spans positive maps and entanglement witnesses, light-matter interaction, and correlation plenoptic imaging.
From November 2026, I will join Nicolaus Copernicus University in Toruń as an Assistant Professor and Principal Investigator of the NCN SONATA 21 project Dynamical Resource for Multipartite Quantum Systems (grant 2025/59/D/ST2/02708; November 2026–October 2029).
PhD in Theoretical Physics, 2021
University of Bari
Master degree in Theoretical Physics, 2017
University of Bari
BSc in Physics, 2015
University of Bari
Quantum correlations from foundations to applications.
A cross-section of recent work in secure communication, entanglement certification, quantum foundations, and noise mitigation.
Independent funding, collaborative projects, mobility support, and distinctions.
Principal-investigator grant
Project membership
Fellowships and mobility
Awards
Research-led teaching across undergraduate, master’s, doctoral, and summer-school programmes.
My teaching combines mathematical precision with physical intuition, computation, and examples drawn from current research. Recent courses span physics, group theory, information theory, quantum cryptography, general probabilistic theories, and quantum information.
Recent presentations on randomized measurements, Bell nonlocality, self-testing, and quantum communication.
Open research code supporting work in entanglement theory, Bell nonlocality, and uncertainty relations.
Selected public repositories include Self-testing tilted CHSH, 3×3 optimal entanglement witnesses, Bell inequalities, and XYZ uncertainty relations.
Research collaborations, seminar invitations, and enquiries about the DyResQ project are welcome.
Email Giovanni Scala · ORCID · Google Scholar · GitHub · LinkedIn · ResearchGate · Scopus · Web of Science · SciProfiles
Join the DyResQ project at Nicolaus Copernicus University in Toruń.
Two positions are planned within the NCN SONATA 21 project Dynamical Resource for Multipartite Quantum Systems:
The official calls, deadlines, requirements, and application links have not yet been announced. This section will be updated when the positions formally open. In the meantime, prospective applicants may contact Giovanni Scala privately for further information or send a concise expression of interest.