Data underlying the publication "Mapping a 50-spin-qubit network through correlated sensing"
doi: 10.4121/aba1cc84-0aea-4cdc-93ca-68b0db38bd81
CC BY-NC-SA 4.0
,
D. P. Kwiatkowski
,
Conor Bradley
,
Joe Randall
,
Mohamed Abobeih
,
S.A. Breitweiser
,
L.C. Basset
,
M. (Matthew) Markham
,
Daniel Twitchen
,
T.H. Taminiau
Spins associated to optically accessible solid-state defects have emerged as a versatile platform for exploring quantum simulation, quantum sensing and quantum communication. Pioneering experiments have shown the sensing, imaging, and control of multiple nuclear spins surrounding a single electron-spin defect. However, the accessible size and complexity of these spin networks has been constrained by the spectral resolution of current methods. Here, we map a network of 50 coupled spins through high-resolution correlated sensing schemes, using a single nitrogen-vacancy center in diamond. We develop concatenated double-resonance sequences that identify spin-chains through the network. These chains reveal the characteristic spin frequencies and their interconnections with high spectral resolution, and can be fused together to map out the network. Our results provide new opportunities for quantum simulations by increasing the number of available spin qubits. Additionally, our methods might find applications in nano-scale imaging of complex spin systems external to the host crystal.
This server contains the data and notebooks to reproduce the figures.
Also, it contains excel files detailing the positions, frequencies, measured couplings and predicted couplings of the 50-spin network mapped in this work.
- 2024-01-09 first online, published, posted
DATA
- 803 bytesMD5:
73e8a1f75982645f05acafb9e00bd102README.txt - 3,651,215 bytesMD5:
d99504bc3065313d7d152d46548530064TU_server.zip - 110,502 bytesMD5:
f9dc48a2ac752ef95513bb164fdecb12data_fig2_freq_sweep.json - 3,417 bytesMD5:
bd6936eda16c12152b7038f42e5faf0fdata_fig2_spin_params.json - 262,448 bytesMD5:
d6ba07f8c4b2286bc1a728068c48dc2fdata_fig2_tau_sweep.json - 6,904,957 bytesMD5:
23df23b6f191b026cbc5e6ed54bc4963data_fig3.json - 693,893 bytesMD5:
c47aebb2815168bbf40c2fc93ad35d8cdata_fig4_1D_ENES.json - 278,366 bytesMD5:
bb7ffb772c9d472d484941499365078bdata_fig4_2D_ENES.json - 24,086 bytesMD5:
215196814dcb2d182e92df8d1d07f073data_fig4_SEDOR_spectroscopy.json - 3,263 bytesMD5:
e9c4e9b20e608ec88245709c3f1e33e6data_fig4_SEDOR_tau_sweep.json - 31,808 bytesMD5:
84aa628ed8f1c5ccadfe9f56b1082872data_fig4_sim_1D.json - 156,591 bytesMD5:
dba271333e16838fea315dea9a562c39data_fig4_sim_2D.json - 24,086 bytesMD5:
215196814dcb2d182e92df8d1d07f073data_fig4_spectroscopy_data.json - 126,628 bytesMD5:
2185989a6f2a7b3daecc7cc98a20d005figure_2.ipynb - 59,725 bytesMD5:
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c8d57afcb2a40f386c11b0d610552393figure_5.pdf - 90,242 bytesMD5:
8b133fab0b45edbd43ecd330f21f3aa1figure_s2.pdf - 84,875 bytesMD5:
2647167ac6a66066fe15321eb7fd8ca2figure_s3.pdf - 3,981 bytesMD5:
38464148340faf8438dc0b9bde727e7espin_frequencies.pkl - 7,760 bytesMD5:
f1e17d5b0dcd09f545adbf019a463c83spin_frequencies.xlsx - 24,708 bytesMD5:
f6c6abc71b9f77076039d62ab6344553spin_measured_couplings.pkl - 13,036 bytesMD5:
a0a986c51d68c777022e68052644c070spin_measured_couplings.xlsx - 19,626 bytesMD5:
1bfc1823e815c43fe75d9e5c484105aaspin_positions.pkl - 7,711 bytesMD5:
6caa6b8e76e48cee8ce29e5214bbe229spin_positions.xlsx - 31,110 bytesMD5:
932743aba6f216d80713ae7f86970a4cspin_predicted_couplings.pkl - 14,551 bytesMD5:
b363e7b9ce6efb4bf59cbe269cda0b54spin_predicted_couplings.xlsx - 6,841 bytesMD5:
31892a5f9e741cacecb5d16386715371spin_table.pkl - 7,975 bytesMD5:
139b24872f149e01d93ce6cb7dd80ae0spin_table.xlsx -
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