Jann Hinnerk Ungerer

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Christian SchoenenbergerDepartment of Physics and Swiss Nanoscience Institute of University of BaselAdresse e-mail validée de unibas.ch
Pasquale ScarlinoÉcole polytechnique fédérale de Lausanne ‐ EPFLAdresse e-mail validée de epfl.ch
Joost RidderbosAssistant Professor, University of TwenteAdresse e-mail validée de utwente.nl
Werner WegscheiderProfessor für Physik, ETH ZürichAdresse e-mail validée de phys.ethz.ch
Clemens MüllerZurich Instruments AGAdresse e-mail validée de mueljevic.ch
Klaus EnsslinProfessor of Physics, ETH ZurichAdresse e-mail validée de phys.ethz.ch
Andreas WallraffETH ZurichAdresse e-mail validée de phys.ethz.ch
Thomas IhnETH ZurichAdresse e-mail validée de phys.ethz.ch
Andreas BaumgartnerSenior scientist, University of BaselAdresse e-mail validée de unibas.ch
David van WoerkomMicrosoft Quantum Lab DelftAdresse e-mail validée de microsoft.com
Jonne V. KoskiSenior Researcher, Microsoft Quantum Lab DelftAdresse e-mail validée de microsoft.com
Erik BakkersAdresse e-mail validée de tue.nl
Claes ThelanderSolid State Physics, Lund UniversityAdresse e-mail validée de ftf.lth.se
Kimberly DickProfessor of Materials Science, Lund UniversityAdresse e-mail validée de ftf.lth.se
Peter StanoCenter for Emergent Matter Science, RIKENAdresse e-mail validée de savba.sk
Carlo CiacciaUniversity of BaselAdresse e-mail validée de unibas.ch
Dominik ZumbuhlPhysics Department, University of BaselAdresse e-mail validée de unibas.ch
Pauli VirtanenUniversity of JyväskyläAdresse e-mail validée de jyu.fi
David I. IndoleseResearch Scientist, IBM Research, SwitzerlandAdresse e-mail validée de ibm.com
Kenji WatanabeNational Institute for Materials ScienceAdresse e-mail validée de nims.go.jp

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Jann Hinnerk Ungerer

Harvard University

Adresse e-mail validée de g.harvard.edu

Quantum Physics Nanoelectronics Circuit QED Spin qubits


Titre Trier par citations Trier par année Trier par titre	Citée par Citée par	Année
Microwave photon-mediated interactions between semiconductor qubits DJ van Woerkom, P Scarlino, JH Ungerer, C Müller, JV Koski, AJ Landig, ... Physical Review X 8 (4), 041018, 2018	97	2018
In-situ tuning of the electric dipole strength of a double dot charge qubit: Charge noise protection and ultra strong coupling P Scarlino, JH Ungerer, DJ van Woerkom, M Mancini, P Stano, C Muller, ... PhysRevX.12.031004, 2022	51	2022
Phase-dependent microwave response of a graphene Josephson junction R Haller, G Fülöp, D Indolese, J Ridderbos, R Kraft, LY Cheung, ... Physical Review Research 4 (1), 013198, 2022	23	2022
Strong coupling between a microwave photon and a singlet-triplet qubit JH Ungerer, A Pally, A Kononov, S Lehmann, J Ridderbos, C Thelander, ... Nature Communications 15, 2024	17	2024
Photon-mediated long-range coupling of two Andreev pair qubits LY Cheung, R Haller, A Kononov, C Ciaccia, JH Ungerer, T Kanne, ... Nature Physics, 1-5, 2024	8	2024
Coherent control of a few-channel hole type gatemon qubit H Zheng, LY Cheung, N Sangwan, A Kononov, R Haller, J Ridderbos, ... Nano Letters, 2024	8	2024
Performance of high impedance resonators in dirty dielectric environments JH Ungerer, D Sarmah, A Kononov, J Ridderbos, R Haller, LY Cheung, ... EPJ Quantum Technol. 10 (41), 2023	7	2023
Charge-sensing of a Ge/Si core/shell nanowire double quantum dot using a high-impedance superconducting resonator JH Ungerer, P Chevalier Kwon, T Patlatiuk, J Ridderbos, A Kononov, ... Materials for Quantum Technology, 2023	7	2023
Photon-mediated long range coupling of two Andreev level qubits, arXiv e-prints 10.48550 LY Cheung, R Haller, A Kononov, C Ciaccia, JH Ungerer, T Kanne, ... arXiv preprint arXiv.2310.15995, 2023	4	2023
High-impedance circuit quantum electrodynamics with semiconductor quantum dots JH Ungerer University of Basel, 2023	1	2023
Quantencomputing - Buchmarktübersicht JH Ungerer iX Magazin für profesionelle IT 2024 (6), 144, 2024		2024
A coherence sweet spot with enhanced dipolar coupling JH Ungerer, A Pally, S Bosco, A Kononov, D Sarmah, S Lehmann, ... arXiv preprint arXiv:2405.10796, 2024		2024
Gatemon qubit in a narrow Ge/Si core/shell nanowire H Zheng, LY Cheung, N Sangwan, A Kononov, R Haller, J Ridderbos, ... Bulletin of the American Physical Society, 2024		2024
Coupling a high-impedance resonator to crystal-phase defined quantum dots in a zincblende InAs nanowire J Ungerer, A Pally, A Kononov, S Lehmann, J Ridderbos, R Haller, ... APS March Meeting Abstracts 2022, Y39. 009, 2022		2022
Coupling a Ge/Si nanowire quantum dot to a high-impedance resonator P Chevalier Kwon, J Ungerer, T Patlatiuk, J Ridderbos, D Sarmah, ... APS March Meeting Abstracts 2022, T36. 006, 2022		2022
Dispersive Sensing of Holes in Silicon Fin Field-Effect Transistors R Eggli, T Patlatiuk, L Camenzind, S Geyer, D Sarmah, J Ungerer, ... APS March Meeting Abstracts 2022, S36. 012, 2022		2022
Crashkurs Quantenmechanik JH Ungerer iX Special Quantencomputer 2021, 8, 2021		2021
Quantencomputing: Wie man Qubits implementiert JH Ungerer iX Special Quantencomputer 2021, 38, 2021		2021
Rezension 'Helgoland' von Carlo Rovelli JH Ungerer iX – Magazin für professionelle Informationstechnik 1, 140, 2021		2021
Circuit Quantum Electrodynamics with superconductor-semiconductor hybrid systems P Scarlino, D Van Woerkom, U Mendes, C Mueller, J Koski, A Landig, ... APS March Meeting Abstracts 2019, C35. 001, 2019		2019

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