Search results for "atomic magnetometer"

showing 3 items of 3 documents

Rapid online solid-state battery diagnostics with optically pumped magnetometers

2020

Applied Sciences 10(21), 7864 (2020). doi:10.3390/app10217864

Battery (electricity)Physics - Instrumentation and DetectorsAtomic Physics (physics.atom-ph)Power storageComputer scienceMagnetometerFOS: Physical sciencesApplied Physics (physics.app-ph)02 engineering and technology010402 general chemistrymagnetization01 natural scienceslcsh:Technologylaw.inventionPhysics - Atomic Physicslcsh:Chemistrylawrapid online diagnosticsGeneral Materials ScienceInstrumentationlcsh:QH301-705.5Fluid Flow and Transfer Processesatomic magnetometerbusiness.industrylcsh:TProcess Chemistry and TechnologyGeneral EngineeringElectrical engineering600Instrumentation and Detectors (physics.ins-det)Physics - Applied Physics021001 nanoscience & nanotechnologylcsh:QC1-9990104 chemical sciencesComputer Science ApplicationsState of chargelcsh:Biology (General)lcsh:QD1-999lcsh:TA1-2040Solid-state batterysolid-state battery0210 nano-technologybusinesslcsh:Engineering (General). Civil engineering (General)ddc:600Atomic magnetometerlcsh:Physicsmagnetic susceptibility
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Is light narrowing possible with dense-vapor paraffin coated cells for atomic magnetometers?

2017

We investigated the operation of an all-optical rubidium-87 atomic magnetometer with amplitude-modulated light. To study the suppression of spin-exchange relaxation, three schemes of pumping were implemented with room-temperature and heated paraffin coated vacuum cells. Efficient pumping and accumulation of atoms in the F=2 ground state were obtained. However, the sought-for narrowing of the resonance lines has not been achieved. A theoretical analysis of the polarization degree is presented to illustrate the absence of light narrowing due to radiation trapping at high temperature.

Materials scienceMagnetometerGeneral Physics and AstronomyPolarization (waves)01 natural sciencesMolecular physicslcsh:QC1-999law.invention010309 opticslaw0103 physical sciencesRadiation trappingPhysics::Atomic Physics010306 general physicsGround stateAtomic magnetometerlcsh:PhysicsAIP Advances
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Magnetic Gradiometer for Detection of Zero- and Ultralow-Field Nuclear Magnetic Resonance

2019

Magnetic sensors are important for detecting nuclear magnetization signals in nuclear magnetic resonance (NMR). As a complementary analysis tool to conventional high-field NMR, zero- and ultralow-field (ZULF) NMR detects nuclear magnetization signals in the sub-microtesla regime. Current ZULF NMR systems are always equipped with high-quality magnetic shieldings to ensure that ambient magnetic field noise does not dwarf the magnetization signal. An alternative approach is to separate the magnetization signal from the noise based on their differing spatial profiles, as can be achieved using a magnetic gradiometer. Here, we present a gradiometric ZULF NMR spectrometer with a magnetic gradient …

PhysicsField (physics)Atomic Physics (physics.atom-ph)Zero (complex analysis)General Physics and AstronomyFOS: Physical sciences02 engineering and technology021001 nanoscience & nanotechnology01 natural sciencesNoise (electronics)Chirality (electromagnetism)Gradiometer3. Good healthMagnetic fieldPhysics - Atomic PhysicsNuclear magnetic resonance0103 physical sciencesFundamental physicsCondensed Matter::Strongly Correlated Electrons010306 general physics0210 nano-technologyAtomic magnetometer
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