Stationary Magic Angle Spinning Enhanced Solid State Spin Sensor

Here we present a solid-state spin sensor with enhanced sensitivity. The enhanced sensitivity is achieved by increasing the T2* dephasing time of the color center defects within the solid-state spin sensor. The T2* dephasing time extension is achieved by mitigating dipolar coupling between paramagnetic defects within the solid-state spin sensor. The mitigation of the dipolar coupling is achieved by applying a magic-angle-spinning magnetic field to the color center defects. This field is generated by driving a magnetic field generator (e.g., Helmholtz coils) with phase-shifted sinusoidal waveforms from current source impedance-matched to the magnetic field generator. The waveforms may oscillate (and the field may rotate) at a frequency based on the precession period of the color center defects to reduce color center defect dephasing and further enhance measurement sensitivity.

Researchers

Danielle Braje / Linh Pham / John Barry / Erik Eisenach / Michael O'Keeffe / Christopher McNally

Departments: Lincoln Laboratory, Electrical Eng & Computer Sci
Technology Areas: Electronics & Photonics: Semiconductors
Impact Areas: Advanced Materials

  • stationary magic angle spinning enhanced solid state spin sensor
    United States of America | Granted | 10,705,163

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