AIRE MIXTE G MATERI
6.3. Perspectives d’avenir
Les études que nous nous proposons de faire dans l’avenir peuvent être mentionnées comme suit:
(i) convertir le programme FENALYSE en d’autres langages plus utilisés dans l’analyse des structures, tels que FORTRAN, CP#PB;
(ii) implanter des éléments linéaires à 3- et 4-nœuds dans FENALYSE, qui, malgré qu’ils soient beaucoup moins chers que les éléments de 8- et 9-nœuds, sont plus difficiles à maîtriser;
(iii) appliquer des techniques qui permettent d’additionner de larges rotations dans l’espace tridimensionnel;
(iv) appliquer la théorie des plaques déformables en cisaillement de plus haut ordre. Cette théorie permet de décrire une distribution exacte, en forme parabolique, des contraintes de cisaillement à travers l’épaisseur des parois;
(v) calculer le flambement des barres à parois minces soumises à des charges quelconques par la méthode des bandes finies semi-analytiques;
(vi) appliquer la technique du sixième degré de liberté proposée à la méthode des bandes finies de type spline;
(vii) implanter dans le programme FENALYSE d’autres types d’éléments finis, tels que des éléments de type poutre-poteau, de type coque ‘vraie’ et tridimensionnels, afin d’analyser des structures qui doivent être modélisées par des types d’éléments différents;
(viii) considérer des charges non-conservatives;
(ix) les programmes FLAMBANDE et FENALYSE peuvent servir à l’enseignement et à la recherche sur les structures à parois minces au Département de Bâtiment à l’Ecole supérieure de Génie civil du Vietnam (ESGC).
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