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Gaston Tarry and multimagic squares

Published online by Cambridge University Press:  23 January 2015

A. D. Keedwell*
Affiliation:
Department of Mathematics, University of Surrey, Guildford GU2 7XH

Extract

It is well known that G. Tarry [1] was the first to publish a proof that the famous thirty-six officers problem posed by L. Euler [2] in 1779 has no solution but it appears to be less well known that he was the first to devise a systematic method of constructing bimagic and trimagic squares, that is, magic squares which remain magic when each entry is replaced by its square and, in the case of trimagic squares, also when each entry is replaced by its cube. Tarry's method was outlined in [3] and was explained and slightly improved upon in a book by E. Cazalas [4] published in Paris in 1934. Recently, there has been renewed interest in this topic.

Type
Articles
Copyright
Copyright © The Mathematical Association 2011

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References

1. Tarry, G., Le problème des 36 officiers, C. R. Assoc. France Av. Sci. 29 (1900) part 2, pp. 170203.Google Scholar
2. Euler, L., Recherches sur une nouvelle espèce de quarrès magiques [Memoire presented to the Academy of Sciences of St. Petersburg on 8th March, 1779.] Published as (a) Verh. Zeeuwsch. Genootsch. Wetensch. Vlissengen 9(1782), pp. 85-239; (b) Mémoire de la Société de Flessingue, Commentationes arithmetica collectae (elogé St. Petersburg 1783) 2(1849), pp. 302-361; (c) Leonardi Euleri Opera Omnia, Série 1, 7(1923), pp. 291392.Google Scholar
3. Tarry, G., Sur un carré magique (aux n premiers degrés, par séries numérales), Compte-Rendues de l'Academie des Sciences Paris (1906) pp. 756760.Google Scholar
4. Cazalas, E., Carrés magiques au degré n; Herman, Paris (1934).Google Scholar
5. Dénes, J. and Keedwell, A. D., Latin squares and their applications Académiai Kiadó, Budapest; English Universities Press, London; Academic Press, New York (1974.)Google Scholar
6. Brown, J. W., Cherry, F., Most, L., Most, M., Parker, E. T. and Wallis, W. D., The spectrum of orthogonal diagonal latin squares. In Graphs, matrices and designs, ed. Rees, R., Dekker, Marcel, New York (1993) pp.4249.Google Scholar
7. Norton, H. W., The 7 × 7 squares, Ann. Eugenics 9 (1939) pp. 269307.Google Scholar
8. Derksen, H., Eggermont, C., Van den Essen, A., Multimagic squares, Amer. Math. Monthly 114 (2007) pp. 703713.Google Scholar
9. Pfeffermann, G., Problème 172 - Carré magique à deux degrés, Les tablettes du chercheur, Journal des Jeux d'Esprit et de Combinaisons, Paris, Jan. and Feb. 1891.Google Scholar
10. Trump, W., Story of the smallest trimagic square (January 2003), http://www.multimagie.com/English/Tri12story.htm Google Scholar
11. Keedwell, A. D., Confirmation of a conjecture concerning orthogonal Sudoku and bimagic squares, Bulletin of the Institute of the Combinatorics and its Applications 63 (September 2011).Google Scholar