參考文獻 |
1. Da Silva, L.L., T.R. Mansur, and C.A. Cimini Junior, Thermal fatigue damage evaluation of a PWR NPP steam generator injection nozzle model subjected to thermal stratification phenomenon. Nuclear engineering and design, 2011. 241(3): p. 672-680.1
2. Kihara, S., et al., Morphological changes of carbides during creep and their effects on the creep properties of Inconel 617 at 1000 C. Metallurgical Transactions A, 1980. 11(6): p. 1019-1031.
3. Christ, H.-J., et al., High temperature corrosion of the nickel-based alloy Inconel 617 in helium containing small amounts of impurities. Materials Science and Engineering, 1987. 87: p. 161-168.
4. Tan, L., et al., Corrosion behavior of Ni-base alloys for advanced high temperature water-cooled nuclear plants. Corrosion Science, 2008. 50(11): p. 3056-3062.
5. Jalilian, F., M. Jahazi, and R. Drew, Microstructural evolution during transient liquid phase bonding of Inconel 617 using Ni–Si–B filler metal. Materials Science and Engineering: A, 2006. 423(1): p. 269-281.
6. Kewther Ali, M., M. Hashmi, and B. Yilbas, Fatigue properties of the refurbished INCO-617 alloy. Journal of materials processing technology, 2001. 118(1): p. 45-49.
7. 劉國雄, 工程材料科學. 2006: 全華.
8. 謝坤翰 and 陳澄河, 高分子特性概論-潛變, 應力鬆弛, 疲勞試驗 (47404). 2010.
9. Tapkın, S. and M. Keskin, Rutting analysis of 100 mm diameter polypropylene modified asphalt specimens using gyratory and Marshall compactors. Materials Research, 2013. 16(2): p. 546-564.
10. Huang, E., et al., A neutron-diffraction study of the low-cycle fatigue behavior of HASTELLOY< sup>® C-22HS< sup> TM alloy. International Journal of Fatigue, 2007. 29(9): p. 1812-1819.
11. Ashby, M.F., A first report on deformation-mechanism maps. Acta Metallurgica, 1972. 20(7): p. 887-897.
12. Clausen, B., T. Lorentzen, and T. Leffers, Self-consistent modelling of the plastic deformation of fcc polycrystals and its implications for diffraction measurements of internal stresses. Acta Materialia, 1998. 46(9): p. 3087-3098.
13. Krawitz, A.D., Introduction to diffraction in materials science and engineering. Introduction to Diffraction in Materials Science and Engineering, by Aaron D. Krawitz, pp. 424. ISBN 0-471-24724-3. Wiley-VCH, April 2001., 2001. 1.
14. Wang, H., et al., Studying the effect of stress relaxation and creep on lattice strain evolution of stainless steel under tension. Acta Materialia, 2012.
15. Weidner, D.J., et al., Effect of plasticity on elastic modulus measurements. Geophysical research letters, 2004. 31(6).
16. Dieter, G.E. and D. Bacon, Mechanical metallurgy. Vol. 3. 1986: McGraw-Hill New York.
17. Abe, J., et al. High pressure experiments with the Engineering Materials Diffractometer (BL-19) at J-PARC. in Journal of Physics: Conference Series. 2010. IOP Publishing.
18. Jin, X., et al., Residual strain dependence on the matrix structure in RHQ-Nb3Al wires by neutron diffraction measurement. Superconductor Science and Technology, 2012. 25(6): p. 065021.
19. Huang, E.-W., et al., Plastic behavior of a nickel-based alloy under monotonic-tension and low-cycle-fatigue loading. International Journal of Plasticity, 2008. 24(8): p. 1440-1456.
20. Huang, E.-W., et al., Fatigue-induced reversible/irreversible structural-transformations in a Ni-based superalloy. International Journal of Plasticity, 2010. 26(8): p. 1124-1137.
21. Cheng, S.-K. and C.-Y. Chen, Mechanical properties and strain-rate effect of EVA/PMMA in situ polymerization blends. European polymer journal, 2004. 40(6): p. 1239-1248.
22. Wu, S.-Y., Strain-rate-effect on the Lattice-strain Evolution in Polycrystalline Nickel Alloy. 2012.
23. Inconel alloy 617.pdf. http://www.specialmetals.com/documents
24. Healey, P., et al., X-ray determination of the dislocation densities in semiconductor crystals using a Bartels five-crystal diffractometer. Acta Crystallographica Section A: Foundations of Crystallography, 1995. 51(4): p. 498-503.
25. Gopinadhan, M., et al., Order-disorder transition and alignment dynamics of a block copolymer under high magnetic fields by in situ x-ray scattering. Physical Review Letters, 2013. 110(7): p. 078301.
26. Huang, E.-W., et al., Slip-system-related dislocation study from in-situ neutron measurements. Metallurgical and Materials Transactions A, 2008. 39(13): p. 3079-3088.
27. Wu, Y., et al., In-situ neutron diffraction study of deformation behavior of a multi-component high-entropy alloy. Applied Physics Letters, 2014. 104(5): p. 051910.
28. Mo, K., et al., Mechanism of plastic deformation of a Ni-based superalloy for VHTR applications. Journal of Nuclear Materials, 2013. 441(1): p. 695-703.
29. Jeong, J., et al., In situ neutron diffraction study of the microstructure and tensile deformation behavior in Al-added high manganese austenitic steels. Acta Materialia, 2012. 60(5): p. 2290-2299.
30. Evans, W., J. Jones, and S. Williams, The interactions between fatigue, creep and environmental damage in Ti 6246 and Udimet 720Li. International journal of fatigue, 2005. 27(10): p. 1473-1484.
31. Akiniwa, Y., et al., Evaluation of material properties of SiC particle reinforced aluminum alloy composite using neutron and X-ray diffraction. Materials Science and Engineering: A, 2006. 437(1): p. 93-99.
32. McClay, K., Pressure solution and Coble creep in rocks and minerals: a review. Journal of the Geological Society, 1977. 134(1): p. 57-70.
33. Ashby, M. and R. Verrall, Diffusion-accommodated flow and superplasticity. Acta Metallurgica, 1973. 21(2): p. 149-163.
34. Coble, R., A model for boundary diffusion controlled creep in polycrystalline materials. Journal of Applied Physics, 1963. 34(6): p. 1679-1682.
35. Mei, S. and D. Kohlstedt, Influence of water on plastic deformation of olivine aggregates: 2. Dislocation creep regime. Journal of Geophysical Research: Solid Earth (1978–2012), 2000. 105(B9): p. 21471-21481.
36. Deformation mechanism maps.
37. Kim, W.-G., et al., Creep behaviour and long-term creep life extrapolation of alloy 617 for a very high temperature gas-cooled reactor. Transactions of the Indian Institute of Metals, 2010. 63(2-3): p. 145-150.
38. Hayes, R. and P. Martin, Tension creep of wrought single phase< i> γ TiAl. Acta metallurgica et materialia, 1995. 43(7): p. 2761-2772.
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