Dialogue essais-simulation et identification de lois de comportement ...

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Partie A – Chapitre 2 : Caractérisation du comportement sous chargement biaxial (Doyoyo et Wierzbicki 2003) Doyoyo M.et Wierzbicki T. (2003). Experimental studies on the yield behavior of ductile and brittle aluminum foams. International Journal of Plasticity 19, 1195-1214. (El-hajjar et Haj-Ali 2004) El-Hajjar R., Haj-Ali R. (2004). In-plane shear testing of thick-section pultruded FRP composites using a modified Arcan fixture, Composites Part B 35, 421-428. (Ferron et Makinde 1988) Ferron G. et Makinde A. (1988). Design and development of a biaxial strength testing device. Journal of Testing Evaluation, 16, 253-256. (Gall et al. 1998) Gall K., Jacobus K., Sehitoglu H.et Maier H.J (1998). Stress-induced martensitic phase transformations in polycrystalline CuZnAl shape memory alloys under different stress states. Metallurgical and Materials Transactions A 29, 765-773. (Grolleau et al. 2009) Grolleau V., Louche H., Penin A., Chauvelon P., Rio G., Liu Y., Favier D. (2009). Bulge tests on ferroelastic and superelastic NiTi sheets with full field thermal and 3D-kinematical measurements: experiments and modelling. ESOMAT 2009, 06011. pastel-00910076, version 1 - 27 Nov 2013 (Grolleau et al. 2011) Grolleau V., Louche H., Delobelle V., Penin A., Rio G., Liu Y., Favier D. (2011). Assessment of tension–compression asymmetry of NiTi using circular bulge testing of thin plates. Scripta Materialia 65, 347–350. (Hannon et Tierman 2008) Hannon A.et Tiernan P. (2008). A review of planar biaxial tensile test systems for sheet metal. Journal of Materials Processing Technology 198, 1-13. (Kuwabara 2007) Kuwabara T. (2007). Advances in experiments on metal sheets and tubes in support of constitutive modeling and forming simulations. International Journal of Plasticity 23, 385-419. (Lecompte et al. 2007) Lecompte D., Smits A., Sol H., Vantomme J. et Hemelrijck D. V. (2007). Mixed numerical–experimental technique for orthotropic parameter identification using biaxial tensile tests on cruciform specimens. International Journal of Solids and Structures 44, 1643-1656. (Lexcellent et al. 2002) Lexcellent C., Vivet A., Bouvet C., Calloch S. et Blanc, P. (2002). Experimental and numerical determinations of the initial surface of phase transformation under biaxial loading in some polycrystalline shape-memory alloys. J. Mech.and Phys. of Solids 50, 2717–2735. (Machado et al. 2012) Machado G., Chagnon G.et Favier D. (2012). Induced anisotropy by the Mullins effect in filled silicone rubber. Mechanics of Materials 50, 70-80. (Mohr et Ebnoether 2009) Mohr D.et Ebnoether F. (2009). Plasticity and fracture of martensitic boron steel under plane stress conditions. International Journal of Solids and Structures 46, 3535-3547. (Mohr et Jacquemin 2008) Mohr D. et Jacquemin J. (2008). Large deformation of anisotropic austenitic stainless steel sheets at room temperature: Multiaxial experiments and phenomenological modeling. Journal of the Mechanics and Physics of Solids 56, 2935-2956. (Mohr et Oswald 2008) Mohr D. et Oswald M. (2008). A new experimental technique for the multiaxial testing of advanced high strength steel sheets. Experimental Mechanics 48(1), 65-77. (Pottier et al. 2012) Pottier T., Vacher P., Toussaint F., Louche H., & Coudert T. (2012). Out-of-plane testing procedure for inverse identification purpose: application in sheet metal plasticity. Experimental mechanics, 52(7), 951-963. 52
Partie A – Chapitre 2 : Caractérisation du comportement sous chargement biaxial (Rogueda et al. 1996) Rogueda C., Lexcellent C., Bocher L., (1996). Experimental study of seudoelastic behaviour of a Cu-Zn-Al polycrystalline shape memory alloy under tension–torsion proportional and non-proportional loading tests. Archives of Mechanics 48 (5), 1025–1045. (Smits et al. 2006) Smits A., Van Hemelrijck D., Philippidis T.P. et Cardon A. (2006). Design of a cruciform specimen for biaxial testing of fibre reinforced composite laminates. Composites Science and Technology 66, 964-975. (Sun et Li 2002) Sun Q.-P., Li Z.-Q. (2002). Phase transformation in superelastic NiTi polycrystalline micro-tubes under tension and torsion–from localization to homogeneous deformation. International Journal of Solids and Structures 39, 3797–3809. (Taillard et al. 2008) Taillard K., Arbab Chirani S., Calloch S., Lexcellent C. (2008). Equivalent transformation strain and its relation with martensite volume fraction for isotropic and anisotropic shape memory alloys. Mechanics of Materials 40, 151–170. pastel-00910076, version 1 - 27 Nov 2013 (Tasan et Hoefnagels 2012) Tasan C.C. et Hoefnagels J.P.M. (2012). Multiaxial deformation setup for microscopic testing of sheet metal to fracture. Experimental Mechanics 52, 669–678. (Teaca 2009) Teaca M. (2009). Caractérisation expérimentale et modélisation de la déformation plastique des tôles métalliques. Thèse de doctorat, Université de Metz. (Terriault et al. 2003) Terriault P., Settouane K. et Brailovski V. (2003). Biaxial testing at different temperatures of cruciform TI–NI samples. Proceeding of the internatonal conference on Shape Memory and Superelastic Technologies, California, 247-257. (Vogler et Kyriakides 1999) Vogler T.J. et Kyriakides S. (1999). Inelastic behavior of an AS4/PEEK composite under combined transverse compression and shear. Part I: experiments, International Journal of Plasticity 15, 783-806. (Wang et al. 2010) Wang X.M., Wang Y.F., Lu Z.Z., Deng C.H. et Yue Z.F. (2010). An experimental study of the superelastic behavior in NiTi shape memory alloys under biaxial proportional and nonproportional cyclic loadings. Mechanics of Materials 42, 365–373. (Wang et al. 2007) Wang Y.F., Yue Z.F. et Wang J. (2007). Experimental and numerical study of the superelastic behaviour on NiTi thin-walled tube under biaxial loading. Computational Materials Science 40, 246–254. 53
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N°: 2009 ENAM XXXX École doctoral
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REMERCIEMENTS C’est à l’issue
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Table des matières Introduction g
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Table des matières pastel-00910076
Page 9 and 10: Introduction générale Introductio
Page 11 and 12: Introduction générale Le second c
Page 13 and 14: Partie A - Chapitre 1 : Superélast
Page 35 and 36: Partie A - Chapitre 2 : Caractéris
Page 59: Partie A - Chapitre 2 : Caractéris
Page 63 and 64: Partie A - Chapitre 3 : Procédures
Page 93 and 94: Partie A - Chapitre 4 : Résultats
Page 97 and 98: Contrainte MPa Partie A - Chapitre
Page 99 and 100: Contrainte MPa Contrainte (MPa) Par
Page 101 and 102: Contrainte MPa Contrainte MPa Parti
Page 103 and 104: Force (kN) Partie A - Chapitre 4 :
Page 109 and 110: Déformation Force (kN) Partie A -
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Partie A - Chapitre 4 : Résultats
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Image Force (kN) Partie A - Chapitr
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Image Partie A - Chapitre 4 : Résu
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Partie B - Chapitre 5 : Modélisati
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Fig. 00 : comparaison d’un essai
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module A ≠ module M Martensite or
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Partie B - Chapitre 6 : Analyse de
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Partie B - Chapitre 7 : Identificat
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Paramètres actualisés p Partie B
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Force (kN) Force (kN) Force (kN) Pa
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Contrainte (MPa) Contrainte (MPa) P
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Conclusion générale Conclusion g
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Conclusion générale superélastic
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Annexes ANNEXE A DT pastel-00910076
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Annexes 1 0,8% 2 0 % pastel-0091007
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Annexes 0,005 0 pastel-00910076, ve
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Déplacement (mm) Annexes ANNEXE C
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Annexes B H F G I D E C A pastel-00
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Déplacement (mm) Annexes 3 2,5 2 1
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Annexes D F C B E A pastel-00910076
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pastel-00910076, version 1 - 27 Nov
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