Abstract
Full accounts have been given at this school of the three major techniques whereby hyperfine interactions (hfi) of nuclei can be measured using radiative emissions, namely the Mossbauer effect (MO), nuclear orientation (NO), and perturbed angular correlation (PAC). Stress has been laid on the highly specific signal from particular decay transitions and upon the low concentration and absolute number of nuclei required for a measurement. However typically all three techniques yield data accurate to a few percent and are thus of much lower precision than resonance methods, NMR and EPR, used in studies of stable isotopes present in solids at higher relative concentration and total number. Conventional NMR linewidths in metals are of order kHz at frequencies of hundreds of MHz, i.e. accurate to 1 in 105 or better.
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References
M N Hack and M Hamermesh, Nuovo Cimento 19 (1961) 546.
E Matthias in “Hyperfine Structure and Nuclear Radiations” (eds. E Matthias and D A Shirley) North-Holland Amsterdam (1968) p.815.
E Recknagel in “Hyperfine Interactions in Excited Nuclei” (eds. G Goldring and R Kalish) Gordon & Breach (1971) p.291.
N J Stone, Hyperfine Interactions 2 (1976) 45.
E Matthias and R J Holliday, Phys.Rev. Lett. 17 (1966) 897.
P Herzog, H-R Folle, K Freitag, A Kluge, M Reuschenbach and E Bodenstedt, Nuclear Instruments and Methods (1978) to be published.
N J Stone in “Hyperfine Interactions in Excited Nuclei” (eds. G Goldring and R Kalish) Gordon & Breach (1971) p.237.
E Matthias, B Olsen, D A Shirley, J E Templeton and R M Steffen, Phys. Rev. A4 (1971) 1626.
D Riegel, N Brauer, B Focke and E Matthias in “Hyperfine Interactions in Excited Nuclei” (eds. G Goldring and R Kalish) Gordon & Breach (1971) p.313.
P D Johnston, R A Fox and N J Stone, J. Phys. C 5 (1972) 2077.
P T Callaghan, P D Johnston, W M Lattimer and N J Stone, Phys. Rev. B12 (1975) 3526.
HR Foster, P Cooke, D H Chaplin, P Lynam and G V H Wilson, Phys. Rev. Lett. 38 (1977) 1546.
See tabulation at end of ref. 4.
PK James (thesis) Oxford (1975) and in ref. 4.
E Schoeters, R Coussement, R Geerto, J Odeurs, H Pattyn, R E Silverans and L Vanneste, Phys. Rev. Lett. 37 (1976) 302.
D Visser, L Niesen, H Postma and H de Waard, Phys. Rev. Lett. 41 (1978) 882.
H de Waard, R L Cohen, S R Reintsema and S A Drentje, Phys. Rev. B10 (1974) 3760.
W Brewer, private communcation. See also W Brewer and M Kopp, Hyperfine Interactions 2 (1976) 299.
Y Nojiri, H Hamagaki and K Sugimoto, Physics Letters 60A (1977) 77.
H Ackermann, Hyperfine Interactions 4 (1978) 645.
H Ackermann, D Dubbers, H Grupp, M Grupp, P Heitjans and H-J Stöckmann, Physics Letters 54A (1975) 399.
P T Callaghan and N J Stone, Physics Letters 40B (1972) 84.
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© 1980 Plenum Press, New York
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Stone, N.J. (1980). NMR Detected by Nuclear Radiation: NMR/ON. In: Perez, A., Coussement, R. (eds) Site Characterization and Aggregation of Implanted Atoms in Materials. NATO Advanced Study Institutes Series, vol 47. Springer, Boston, MA. https://doi.org/10.1007/978-1-4684-1015-0_11
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