Quantum magneto-optical sensors involve the field of sensors for
quantum-level ultra-trace detection of
nuclear magnetic resonance and
Raman spectroscopy, specifically including the discovery of the
electronic energy of specific protons in the detection object under the states of nuclear magnetic
magnetization,
nuclear magnetic resonance, nuclear
magnetic relaxation and nuclear magnetic demagnetization. The difference in distribution probability of Raman
scattered light in
azimuth and direction caused by the order transition, and finding and adjusting the optimal
magneto-optical angle between excitation light and Raman
scattered light will obtain higher collection efficiency of Raman
scattered light. The characteristic magnetic spectrum and the characteristic spectrum, according to the
quantum correlation, can also find out more information from the
quantum correlation. Specifically, the main
magnetic field generator, the excitation
induction coil, the control subsystem, the
laser and the Raman probe constitute the quantum
magneto-optical sensor. By adjusting the magneto-optical angle in an off-axis or coaxial way, the Raman spectrum collection efficiency can be improved, and at the same time, the correlation between the characteristic magnetic spectrum and the characteristic spectrum in multiple states can be realized, which provides a calculation basis for further analyzing the content of the detected molecules.