Success at the NDNC 2025 Conference in Beppu, Japan
Young Scholar Awar for Katharina Senkalla and Yuliya Mindarava.
Research Topics
Fundamental quantum optics
Experiments towards fundamental test of quantum mechanics predictions, transition of classical to quantum, decoherence, complex quantum systems
Quantum technologies
Hybrid solid state quantum registers based on photons and solid-state spin systems for quantum computing, simulation, sensing and communication applications.
Quantum materials
Synthesis of ultrapure tailored diamond and generation of spin qubits in diamond
Novel methods in magnetic resonance
Ultrasensitive nuclear and electron spin resonance for application in biosciences, medical and battery research
Optimal control of complex quantum systems
Coherent control of the complex quantum system in complex environment
Highlights
two-qubit operations between electron spins in diamond
We achieved a record fidelity for two-qubit operations between electron spins in diamond - a key step toward building larger quantum computers that…
Article on photoactivation of NV centers in diamond published
We published a paper about the photoactivation of NV centers in diamond via continuous-wave laser illumination.
13C hyperpolarization with nitrogen-vacancy centers in micro- and nanodiamonds for sensitive magnetic resonance applications.
Reducing inhomogeneous broadening of spin and optical transitions of nitrogen-vacancy centers in high-pressure, high-temperature diamond
Article on gate-set evaluation metrics for closed-loop control published
Preprint Coherent Control of Nuclear Memory Spin in a GeV Multi-Qubit Node published
Poster Award for Karolina Schüle
Award at "New Diamond and Nano Carbons Conference"
"Defects in Solids for Quantum Technologies" conference (DSQT2024), in Budapest from June 10th to 14th
This unique, one-week event provided broad coverage of current research on point defects in solid-state systems, including diamond, silicon carbide,…
Research on Protecting Quantum Information via Destructive Interference of Correlated Noise
Our research has shown that cross-correlations of noise sources can significantly improve coherence times for quantum memories, sensing and computing.
Contact
Institute Director
Prof. Dr. Fedor Jelezko
fedor.jelezko(at)uni-ulm.de
tel: + 49 / 731 / 50-23750
fax: + 49 / 731 / 50-23752
University Ost, Meyerhofstraße M26 (ZQB) Room 4205/06
Secretary
Dr. Maria Heuschmid
maria.heuschmid(at)uni-ulm.de
tel: + 49 / 731 / 50-23751
fax: + 49 / 731 / 50-23752
University Ost, Meyerhofstraße M26 (ZQB) Room 4204
Address
Ulm University
Institute for Quantum Optics
Albert-Einstein-Allee 11
D-89081 Ulm
Germany