DK
David K. Kim
quant-phcond-mat.mes-hallcond-mat.supr-conphysics.app-phcond-mat.mtrl-scinucl-excond-mat.str-elMagnetic Fieldsphysics.ins-det
On Valency
published · living versionsW_ssfqevk3·v1 · currentpublished
Analog quantum simulation of paraparticle statistics
with Gyunghun Kim, Cora N. Barrett, Sarah E. Muschinske, Junyoung An +12
1 version
Preprints & journals
52 papers in the corpus · 2017–2026Kinetic inductance of few-layer NbSe2 in the two-dimensional limit.42642401 · Zaman, Sameia, Wang, Joel Î-J, Werkmeister, Thomas et al.2026 · 1 citationNature communications. 2026;17(1)
Detailed, interpretable characterization of mid-circuit measurement on a transmon qubit2602.03938v3 · Piper C. Wysocki, Luke D. Burkhart, Madeline H. Morocco et al.2026 · 0 citationsarXiv
Fabrication and Properties of NbN/NbNx/NbN and Nb/NbNx/Nb Josephson Junctions2512.01826v1 · Sergey K. Tolpygo, Ravi Rastogi, David Kim et al.2025 · 0 citationsarXiv
Improving Transmon Qubit Performance with Fluorine-based Surface Treatments2507.08089v1 · Michael A. Gingras, Bethany M. Niedzielski, Kevin A. Grossklaus et al.2025 · 1 citationarXiv
Superfluid stiffness of magic-angle twisted bilayer graphene.39910388 · Tanaka, Miuko, Wang, Joel Î-J, Dinh, Thao H et al.2025 · 64 citationsNature. 2025;638(8049):99-105
Observation of Photon Blockade in a Tavis-Cummings System2501.18751v1 · Brian Marinelli, Alex H. Rubin, Victoria A. Norman et al.2025 · 5 citationsarXiv
Efficient Qubit Calibration by Binary-Search Hamiltonian Tracking2501.05386v2 · Fabrizio Berritta, Jacob Benestad, Lukas Pahl et al.2025 · 4 citationsPRX Quantum 6, 030335 (2025)
Flat-band (de)localization emulated with a superconducting qubit array2410.07878v2 · Ilan T. Rosen, Sarah Muschinske, Cora N. Barrett et al.2024 · 13 citationsarXiv
Superfluid Stiffness and Flat-Band Superconductivity in Magic-Angle Graphene Probed by cQED2406.13740v2 · Miuko Tanaka, Joel I-j. Wang, Thao H. Dinh et al.2024 · 0 citationsarXiv
Implementing a synthetic magnetic vector potential in a 2D superconducting qubit array2405.00873v5 · Ilan T. Rosen, Sarah Muschinske, Cora N. Barrett et al.2024 · 32 citationsarXiv
Probing entanglement in a 2D hard-core Bose-Hubbard lattice.38658761 · Karamlou, Amir H, Rosen, Ilan T, Muschinske, Sarah E et al.2024 · 36 citationsNature. 2024;629(8012):561-566
Abatement of Ionizing Radiation for Superconducting Quantum Devices2403.01032v1 · B. Loer, P. M. Harrington, B. Archambault et al.2024 · 11 citationsJINST 19 P09001 (2024)
Characterization of superconducting through-silicon vias as capacitive elements in quantum circuits2308.00834v1 · Thomas M. Hazard, Wayne Woods, Danna Rosenberg et al.2023 · 12 citationsarXiv
Decoherence of a tunable capacitively shunted flux qubit2307.13961v2 · R. Trappen, X. Dai, M. A. Yurtalan et al.2023 · 3 citationsCommunications Physics 8, 453 (2025)
Evolution of 1/f Flux Noise in Superconducting Qubits with Weak Magnetic Fields.37327421 · Rower, David A, Ateshian, Lamia, Li, Lauren H et al.2023 · 52 citationsPhysical review letters. 2023;130(22):220602
High-Fidelity, Frequency-Flexible Two-Qubit Fluxonium Gates with a Transmon Coupler2304.06087v1 · Leon Ding, Max Hays, Youngkyu Sung et al.2023 · 149 citationsPhys. Rev. X 13, 031035 (2023)
Learning-based Calibration of Flux Crosstalk in Transmon Qubit Arrays2303.03347v3 · Cora N. Barrett, Amir H. Karamlou, Sarah E. Muschinske et al.2023 · 21 citationsPhys. Rev. Applied 20, 024070 (2023)
Dynamically Reconfigurable Photon Exchange in a Superconducting Quantum Processor2303.03507v1 · Brian Marinelli, Jie Luo, Hengjiang Ren et al.2023 · 7 citationsarXiv
Optimizing for periodicity: a model-independent approach to flux crosstalk calibration for superconducting circuits2211.01497v2 · X. Dai, R. Trappen, R. Yang et al.2022 · 3 citationsQuantum Sci. Technol. 9 025007 (2024)
Improving qubit coherence using closed-loop feedback.35410327 · Vepsäläinen, Antti, Winik, Roni, Karamlou, Amir H et al.2024 · 44 citationsNature communications. 2022;13(1):1932
Broadband Squeezed Microwaves and Amplification with a Josephson Traveling-Wave Parametric Amplifier2201.11261v3 · Jack Y. Qiu, Arne Grimsmo, Kaidong Peng et al.2022 · 80 citationsarXiv
Hexagonal boron nitride as a low-loss dielectric for superconducting quantum circuits and qubits.35087240 · Wang, Joel I-J, Yamoah, Megan A, Li, Qing et al.2026 · 93 citationsNature materials. 2022;21(4):398-403
Demonstration of long-range correlations via susceptibility measurements in a one-dimensional superconducting Josephson spin chain2111.04284v2 · Daniel M. Tennant, Xi Dai, Antonio J. Martinez et al.2021 · 7 citationsnpj Quantum Information 8, 85 (2022)
Quantum transport and localization in 1d and 2d tight-binding lattices2107.05035v1 · Amir H. Karamlou, Jochen Braumuller, Yariv Yanay et al.2021 · 65 citationsnpj Quantum Inf 8, 35 (2022)
Calibration of flux crosstalk in large-scale flux-tunable superconducting quantum circuits2105.14360v2 · X. Dai, D. M. Tennant, R. Trappen et al.2021 · 39 citationsPRX Quantum 2, 040313 (2021)
Lindblad Tomography of a Superconducting Quantum Processor2105.02338v5 · Gabriel O. Samach, Ami Greene, Johannes Borregaard et al.2021 · 45 citationsPhys. Rev. Applied 18, 064056 (2022)
Fabrication of superconducting through-silicon vias2103.08536v1 · Justin L. Mallek, Donna-Ruth W. Yost, Danna Rosenberg et al.2021 · 16 citationsarXiv
Deep Neural Network Discrimination of Multiplexed Superconducting Qubit States2102.12481v2 · Benjamin Lienhard, Antti Vepsalainen, Luke C. G. Govia et al.2021 · 60 citationsarXiv
Probing quantum information propagation with out-of-time-ordered correlators2102.11751v2 · Jochen Braumuller, Amir H. Karamlou, Yariv Yanay et al.2021 · 126 citationsNature Physics volume 18, pages 172-178 (2022)
Multi-level quantum noise spectroscopy.33574240 · Sung, Youngkyu, Vepsäläinen, Antti, Braumüller, Jochen et al.2024 · 40 citationsNature communications. 2021;12(1):967
Microwave Package Design for Superconducting Quantum Processors2012.01438v3 · Sihao Huang, Benjamin Lienhard, Greg Calusine et al.2020 · 71 citationsPRX Quantum 2, 020306 (2021)
Realization of high-fidelity CZ and ZZ-free iSWAP gates with a tunable coupler2011.01261v3 · Youngkyu Sung, Leon Ding, Jochen Braumuller et al.2020 · 315 citationsPhys. Rev. X 11, 021058 (2021)
Author Correction: Impact of ionizing radiation on superconducting qubit coherence.32918069 · Vepsäläinen, Antti P, Karamlou, Amir H, Orrell, John L et al.2020 · 2 citationsNature. 2020;586(7827):E8
Generating spatially entangled itinerant photons with waveguide quantum electrodynamics.33028523 · Kannan, B, Campbell, D L, Vasconcelos, F et al.2024 · 60 citationsScience advances. 2020;6(41)
Impact of ionizing radiation on superconducting qubit coherence.32848227 · Vepsäläinen, Antti P, Karamlou, Amir H, Orrell, John L et al.2020 · 247 citationsNature. 2020;584(7822):551-556
Comparison of Dielectric Loss in Titanium Nitride and Aluminum Superconducting Resonators2007.07338v1 · Alexander Melville, Greg Calusine, Wayne Woods et al.2020 · 72 citationsarXiv
Waveguide quantum electrodynamics with superconducting artificial giant atoms.32728243 · Kannan, Bharath, Ruckriegel, Max J, Campbell, Daniel L et al.2021 · 356 citationsNature. 2020;583(7818):775-779
Engineering Framework for Optimizing Superconducting Qubit Designs2006.04130v1 · Fei Yan, Youngkyu Sung, Philip Krantz et al.2020 · 21 citationsarXiv
Characterizing and optimizing qubit coherence based on SQUID geometry2002.09372v1 · Jochen Braumuller, Leon Ding, Antti Vepsalainen et al.2020 · 105 citationsPhys. Rev. Applied 13, 054079 (2020)
Programming a quantum computer with quantum instructions2001.08838v3 · Morten Kjaergaard, Mollie E. Schwartz, Ami Greene et al.2020 · 18 citationsarXiv
Quantum emulation of coherent backscattering in a system of superconducting qubits1912.12488v3 · Ana Laura Gramajo, Dan Campbell, Bharath Kannan et al.2019 · 7 citationsPhys. Rev. Applied 14, 014047 (2020)
Solid-state qubits integrated with superconducting through-silicon vias1912.10942v3 · Donna-Ruth W. Yost, Mollie E. Schwartz, Justin Mallek et al.2019 · 134 citationsnpj Quantum Information 6, 59 (2020)
Two-qubit spectroscopy of spatiotemporally correlated quantum noise in superconducting qubits1912.04982v1 · Uwe von Lupke, F'elix Beaudoin, Leigh M. Norris et al.2019 · 95 citationsPRX Quantum 1, 010305 (2020)
Non-Gaussian noise spectroscopy with a superconducting qubit sensor.31527608 · Sung, Youngkyu, Beaudoin, Félix, Norris, Leigh M et al.2024 · 98 citationsNature communications. 2019;10(1):3715
Silicon Hard-Stop Spacers for 3D Integration of Superconducting Qubits1907.12882v1 · Bethany M. Niedzielski, David K. Kim, Mollie E. Schwartz et al.2019 · 1 citationarXiv
3D integration and packaging for solid-state qubits1906.11146v2 · D. Rosenberg, S. Weber, D. Conway et al.2019 · 33 citationsarXiv
Coherent control of a hybrid superconducting circuit made with graphene-based van der Waals heterostructures.30598526 · Wang, Joel I-Jan, Rodan-Legrain, Daniel, Bretheau, Landry et al.2026 · 177 citationsNature nanotechnology. 2019;14(2):120-125
Determining interface dielectric losses in superconducting coplanar waveguide resonators1808.10347v1 · Wayne Woods, Greg Calusine, Alexander Melville et al.2018 · 181 citationsPhys. Rev. Applied 12, 014012 (2019)
Distinguishing Coherent and Thermal Photon Noise in a Circuit Quantum Electrodynamical System.30004727 · Yan, Fei, Campbell, Dan, Krantz, Philip et al.2018 · 110 citationsPhysical review letters. 2018;120(26):260504
Analysis and mitigation of interface losses in trenched superconducting coplanar waveguide resonators1709.10015v1 · Greg Calusine, Alexander Melville, Wayne Woods et al.2017 · 169 citationsarXiv
Career total: 142 works. 52 are in this corpus.Showing the 50 most recent.
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