Quantum Information Technology Lab
at UNIUD
Advancing research and development in quantum information, quantum computing and quantum machine learning.
Research
Our research explores the frontiers of quantum computational capabilities and quantum artificial intelligence with the purpose of bridging the gap between theoretical potential and practical realization. We move beyond abstract models to develop the tools necessary to make scalable quantum computing a reality.
We investigate practical tools for near-term and future quantum devices. We use ML and Reinforcement Learning to automate circuit synthesis and tailor quantum compilation to specific hardware, ranging from Superconducting qubits to Neutral Atom architectures. We focus on building efficient Quantum Machine Learning frameworks by optimizing hardware performance through classical methods, making quantum systems more practical and computationally effective.
Software & Publications
Latest Software
Dropout in QNN
We implemented a framework to apply soft dropout in Quantum Neural Networks.
FREEQO
Following our paper about graph encoding, we wrote Failure-Resilient Eulerian graph Encoding (for) Quantum tOurs (FREQOO). With such software, we can encode any graph into an unitary matrix. Check out the link below to see the source code.
Latest Publications
AlphaClifford: Efficient Clifford Synthesis and Transpilation with Model-based RL
Proceedings of the 2026 IEEE International Conference on Quantum Computing and Engineering (QCE26)
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Minimizing AOD Trap Activations for Atom Shuttling in Neutral-Atom Quantum Architectures
Proceedings of the 2026 Italian Conference on Theoretical Computer Science (ICTCS2026)
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