1982
DOI: 10.1016/0304-3991(82)90264-9
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A simple and practical approach to correct spherical aberration in existing electron probe microscopes

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Cited by 5 publications
(2 citation statements)
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“…Ever since 1936, when Scherzer showed that, subject to various conditions, the spherical aberration coefficient of electron lenses cannot change sign, sporadic attempts have been made to find round lenses for which this result is not true. The first and best known are those of Glaser (1940, 1956) and other claims have been made by Garg (1982, see Scherzer, 1982) and by S. Hosoki (see Davey & Hawkes, 1995); most recently, Nomura has entered the lists. He first claimed to have found a combination of round lenses free of spherical aberration at the meeting of EMAG in Oxford in 2003, but his paper was not accepted for publication in the Proceedings.…”
mentioning
confidence: 99%
“…Ever since 1936, when Scherzer showed that, subject to various conditions, the spherical aberration coefficient of electron lenses cannot change sign, sporadic attempts have been made to find round lenses for which this result is not true. The first and best known are those of Glaser (1940, 1956) and other claims have been made by Garg (1982, see Scherzer, 1982) and by S. Hosoki (see Davey & Hawkes, 1995); most recently, Nomura has entered the lists. He first claimed to have found a combination of round lenses free of spherical aberration at the meeting of EMAG in Oxford in 2003, but his paper was not accepted for publication in the Proceedings.…”
mentioning
confidence: 99%
“…Among the former is Glaser's celebrated attempt (1940) to find a magnetic field distribution for which the spherical aberration coefficient (Cs) vanishes, by setting the integrand in the formula for Cs equal to zero, and solving for the axial field distribution. The other category is represented by the paper of Garg (1982), refuted by Scherzer (1982). and no doubt by many others, with that of Dalglish & Kelly (1975) in between (see Hawkes, 1976).…”
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confidence: 99%