| Ultrafast universal quantum control of a quantum-dot charge qubit using Landau–Zener–Stückelberg interference G Cao, HO Li, T Tu, L Wang, C Zhou, M Xiao, GC Guo, HW Jiang, GP Guo Nature Communications 4 (1), 1401, 2013 | 202 | 2013 |
| Semiconductor quantum computation X Zhang, HO Li, G Cao, M Xiao, GC Guo, GP Guo National Science Review 6 (1), 32-54, 2019 | 163 | 2019 |
| A graphene quantum dot with a single electron transistor as an integrated charge sensor LJ Wang, G Cao, T Tu, HO Li, C Zhou, XJ Hao, Z Su, GC Guo, HW Jiang, ... Applied Physics Letters 97 (26), 2010 | 150 | 2010 |
| Strong and Tunable Spin− Orbit Coupling of One-Dimensional Holes in Ge/Si Core/Shell Nanowires XJ Hao, T Tu, G Cao, C Zhou, HO Li, GC Guo, WY Fung, Z Ji, GP Guo, ... Nano letters 10 (8), 2956-2960, 2010 | 135 | 2010 |
| Tunable hybrid qubit in a GaAs double quantum dot G Cao, HO Li, GD Yu, BC Wang, BB Chen, XX Song, M Xiao, GC Guo, ... Physical review letters 116 (8), 086801, 2016 | 103 | 2016 |
| A gate defined quantum dot on the two-dimensional transition metal dichalcogenide semiconductor WSe 2 XX Song, D Liu, V Mosallanejad, J You, TY Han, DT Chen, HO Li, G Cao, ... Nanoscale 7 (40), 16867-16873, 2015 | 100 | 2015 |
| Coupling two distant double quantum dots with a microwave resonator GW Deng, D Wei, SX Li, JR Johansson, WC Kong, HO Li, G Cao, M Xiao, ... Nano letters 15 (10), 6620-6625, 2015 | 97 | 2015 |
| Ultrafast coherent control of a hole spin qubit in a germanium quantum dot K Wang, G Xu, F Gao, H Liu, RL Ma, X Zhang, Z Wang, G Cao, T Wang, ... Nature Communications 13 (1), 206, 2022 | 96 | 2022 |
| Strong indirect coupling between graphene-based mechanical resonators via a phonon cavity G Luo, ZZ Zhang, GW Deng, HO Li, G Cao, M Xiao, GC Guo, L Tian, ... Nature communications 9 (1), 1-6, 2018 | 91 | 2018 |
| Charge number dependence of the dephasing rates of a graphene double quantum dot in a circuit QED architecture GW Deng, D Wei, JR Johansson, ML Zhang, SX Li, HO Li, G Cao, M Xiao, ... Physical Review Letters 115 (12), 126804, 2015 | 82* | 2015 |
| Conditional rotation of two strongly coupled semiconductor charge qubits HO Li, G Cao, GD Yu, M Xiao, GC Guo, HW Jiang, GP Guo Nature communications 6 (1), 7681, 2015 | 75 | 2015 |
| Strongly coupled nanotube electromechanical resonators GW Deng, D Zhu, XH Wang, CL Zou, JT Wang, HO Li, G Cao, D Liu, Y Li, ... Nano letters 16 (9), 5456-5462, 2016 | 70 | 2016 |
| Two-dimensional superconductivity at (110) LaAlO3/SrTiO3 interfaces YL Han, SC Shen, J You, HO Li, ZZ Luo, CJ Li, GL Qu, CM Xiong, RF Dou, ... Applied Physics Letters 105 (19), 2014 | 69 | 2014 |
| Electrotunable artificial molecules based on van der Waals heterostructures ZZ Zhang, XX Song, G Luo, GW Deng, V Mosallanejad, T Taniguchi, ... Science advances 3 (10), e1701699, 2017 | 63 | 2017 |
| Qubits based on semiconductor quantum dots X Zhang, HO Li, K Wang, G Cao, M Xiao, GP Guo Chinese Physics B 27 (2), 020305, 2018 | 62 | 2018 |
| Coherent phonon dynamics in spatially separated graphene mechanical resonators ZZ Zhang, XX Song, G Luo, ZJ Su, KL Wang, G Cao, HO Li, M Xiao, ... Proceedings of the National Academy of Sciences 117 (11), 5582-5587, 2020 | 59 | 2020 |
| Temperature dependence of Coulomb oscillations in a few-layer two-dimensional WS2 quantum dot XX Song, ZZ Zhang, J You, D Liu, HO Li, G Cao, M Xiao, GP Guo Scientific Reports 5 (1), 16113, 2015 | 51 | 2015 |
| Coherent phonon Rabi oscillations with a high-frequency carbon nanotube phonon cavity D Zhu, XH Wang, WC Kong, GW Deng, JT Wang, HO Li, G Cao, M Xiao, ... Nano Letters 17 (2), 915-921, 2017 | 50 | 2017 |
| Superconductivity at 57.3 K in La-Doped Iron-Based Layered Compound Sm0.95La0.05O0.85F0.15FeAs Z Wei, H Li, WL Hong, Z Lv, H Wu, X Guo, K Ruan Journal of superconductivity and novel magnetism 21, 213-215, 2008 | 50 | 2008 |
| Giant anisotropy of spin relaxation and spin-valley mixing in a silicon quantum dot X Zhang, RZ Hu, HO Li, FM Jing, Y Zhou, RL Ma, M Ni, G Luo, G Cao, ... Physical Review Letters 124 (25), 257701, 2020 | 47 | 2020 |
HongWen JiangUCLAEmail verificata su physics.ucla.edu