In this paper we present a method to detect, locate, and control individual nuclei in interacting clusters by using a single nitrogen-vacancy (NV) center and external control provided by microwave and radio-frequency radiation. The method overcomes the inability of previous schemes to address individually spins that are interacting. It also does not suffer from serious technical drawbacks related to the reorientation of the external alignment field, which affects the NV readout and initialization and is time consuming in current laboratory setups. Detailed numerical simulations demonstrate the precision that our method can achieve by resolving 3D structures of nuclear spins in complex ensembles with Angstrom fidelity. With this information at hand, different applications that include quantum information processing using clusters of carbon-13 nuclei in diamond or identification of the stereoisomeric forms of molecules are available. Note that the former paves the way to exploit the exceptional properties of nuclear spins as solid-state quantum registers while, the latter, corresponds to a question that could previously be answered only when billions of these molecules were available.
- Jorge is a dad!
- Work of the group is published in Science
- Quantum biology work of the group features in a full page particle in the Frankfurter Allgemeine Sonntagszeitung
- ITP and the Center of QuantumBioSciences is part of newly approved Collaborative Research Center 1279
- The work of the Institute was mentioned in The Economist
Most Recent Papers
•Arbitrary nuclear-spin gates in diamond mediated by a nitrogen-vacancy-center electron spin, Physical Review A, 96, 032314 (2017)
•Momentum coupling in non-Markovian quantum Brownian motion, Physical Review A, 96, 012109 (2017)
•Autonomous Quantum Clocks: Does Thermodynamics Limit Our Ability to Measure Time?, Physical Review X, 7, 031022 (2017)
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