PhD student in co-supervision, Ultrafast Optics and Nanophotonics (DON)
Phone: +33(0)3 88 10 72 69Office: 2206

Current Research

Study of the Hyperfine Interactions in Lanthanide-Organic Complexes for Quantum Information Processing

Qudits vs. qubits : Conditions on Gate Efficiency

One of the big challenges in the field of quantum computing is to increase computing capacity by increasing the number of qubits. Scientists are therefore exploring an alternative called qudits, which are similar to qubits but with more than two available levels. However, due to these additional levels, they may have more paths vulnerable to errors. The objective of the study is therefore to investigate whether qudits are still competitive with qubits for handling errors arising from the environment. The study showed that qudits can be a promising option for quantum information processing in the future, especially if associated with specialized error correction methods.

University Background

2020 – current : PhD Student | IPCMS | Department of Ultrafast Optics and Nanophotonics | QDYNO Group
Supervisor : Paul-Antoine Hervieux
Cotutelle : Mario Ruben, KIT, Karlsruhe, Germany

2019 : M1 Internship | Faculty of Physics – University of Basel | Condensed Matter Theory & Quantum Computing Group | Supervisors : Prof. Dr. Daniel Loss – Dr. Marko Rancic


Academic Background

2018 – 2020 : MSc Condensed Matter and Nanophysics | University of Strasbourg

2016 – 2018 : BSc in Physics | University of Strasbourg

2016 – 2017 : Two-years degree Mathematics & Physics | University of Strasbourg

2015-2016 : Prep Classes for Engineering Schools : Physics & Chemistry| Lycée Kléber, Strasbourg

2015 : High School Diploma | Lycée Jean Mermoz, Saint-Louis


arXiv preprints

  • by Denis Janković, Jean-Gabriel Hartmann, Mario Ruben, Paul-Antoine Hervieux
    As qubit-based platforms face near-term technical challenges in terms of scalability, qudits, $d$-level quantum bases of information, are being implemented in multiple platforms as an alternative for Quantum Information Processing (QIP). It is, therefore, crucial to study their efficiencies for QIP compared to more traditional qubit platforms, specifically since each […]