Diamond is a promising material for innovative electronic devices, radiation detectors, and integrated platforms for quantum technologies, but with a major hurdle: Deep levels in diamond's band gap act as charge-carrier traps, causing electric-field inhomogeneities and memory effects. Conventional techniques cannot provide a direct, unambiguous picture of the local field distribution in the defective material. This study use the sensitivity of the native nitrogen-vacancy defect itself to measure the local internal electric field, for a clear view of the inner workings of diamond devices.
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A 2018 study studied this question.
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