0000000000718351

AUTHOR

R. Link

showing 2 related works from this author

Magnetic hyperfine anomaly in muonic193Ir

1977

The nuclear decay of the 5/2+ 139 keV state to the 3/2+ ground state was observed in muonic193Ir. The hyperfine splitting of the 3/2+ state and 5/2+ state was determined to be 640±100 eV and 1280±160 eV, respectively. The ground state splitting is about twice that of a point nucleus, an anomaly never observed this large. This is mainly due to the different radial distribution of spin and orbital magnetization of a d3/2 proton configuration for which these contributions nearly cancel to zero in the magnetic moment. But calculations including configuration mixing and coupling to a vibrating or a deformed core show deviations. The groundstate anomaly is in line with that observed by the Mossba…

PhysicsNuclear and High Energy PhysicsProtonMagnetic momentCondensed Matter PhysicsAtomic and Molecular Physics and OpticsMössbauer spectroscopyPhysical and Theoretical ChemistryAtomic physicsAnomaly (physics)Spin (physics)Ground stateOrbital magnetizationHyperfine structureHyperfine Interactions
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On-line Mössbauer measurements at low temperatures of 83mKr implanted into Al

1978

Abstract A vacuum ion implantation chamber housing a helium flow cryostat and a Mossbauer transducer has been constructed and coupled directly to an ion separator for low temperature implantation and on-line Mossbauer measurements. 83m Kr, produced by thermal neutron activation of enriched 82 Kr gas, has been implanted into Al foils in the temperature range 15–300 K. Annealing effects and the temperature dependence of the Lamb-Mossbauer factor have been studied by Mossbauer measurements (at 15–35 K) using the implanted Al targets as sources and Kr/hydrochinone as absorber.

CryostatMaterials scienceAnnealing (metallurgy)Analytical chemistrychemistry.chemical_elementGeneral MedicineAtmospheric temperature rangeNeutron temperatureIonIon implantationNuclear magnetic resonancechemistryMössbauer spectroscopyHeliumNuclear Instruments and Methods
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