Coherent control of solid state nuclear spin nano-ensembles
arXiv:1802.02921 · doi:10.1038/s41534-018-0089-8
Abstract
Detecting and controlling nuclear spin nano-ensembles is crucial for the further development of nuclear magnetic resonance (NMR) spectroscopy and for the emerging solid state quantum technology. Here we present the fabrication of a 1 nanometre thick diamond layer consisting of C nuclear spins doped with Nitrogen-Vacancy centres (NV) embedded in a spin-free C crystal matrix. A single NV in the vicinity of the layer is used for polarization of the C spins and the readout of their magnetization. We demonstrate a method for coherent control of few tens of nuclear spins by using radio frequency pulses and show the basic coherent control experiments - Rabi oscillations, Ramsey spectroscopy and Hahn echo, though any NMR pulse sequence can be implemented. The results shown present a first steps towards the realization of a nuclear spin based quantum simulator.
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- Three-dimensional localization spectroscopy of individual nuclear spins with sub-Angstrom resolution
- Three-dimensional nuclear spin positioning using coherent radio-frequency control
- Extending qubit coherence by adaptive quantum environment learning
- Spectral features of Pb-related color centers in diamond
- Divergent effects of laser irradiation on ensembles of nitrogen-vacancy centers in bulk and nano-diamonds: implications for biosensing
- Non-Gaussian dynamics of quantum fluctuations and mean-field limit in open quantum central spin systems
- Active spin lattice hyperpolarization: Application to hexagonal boron nitride color centers
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- Algorithmic decomposition for efficient multiple nuclear spin detection in diamond
- Ensemble-Based Quantum Token Protocol Benchmarked on IBM Quantum Processors
- Suppression of Pulsed Dynamic Nuclear Polarization by Many-Body Spin Dynamics