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A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 400°C pendant 5000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 400°C pendant 10000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 500°C pendant 5000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 500°C pendant 10000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 600°C pendant 5000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J27 vieillie à 600°C pendant 5000 heures et testée en traction à la vitesse de déformation moyenne de, pp.10-13

A. Figure, Vues macroscopique des faciès de rupture et coefficients de striction de la nuance J03 vieillie à 400°C, 500°C et 600°C pendant 5000 heures et testée en traction à la vitesse de déformation de 10 -3 s -1, p.261

A. Figure, Evolution de l'intensité diffusée selon les directions perpendiculaire et parallèle de la nuance J27 vieillie à 600°C pendant 5000 heures, et à 400°C pendant 5000 (J27-M3) et 10000 heures (J27- M6). L'état vieilli à 600°C pendant 5000 heures est considéré comme