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M.B. Ruggles-Wrenn et al. Composites Science and Technology 68(2008)1588-1595 1595 References 20Ruggles-Wrenn MB. Mall S, Eber CA, Harlan LB. Effects of steam rature mechanical behavior of nex. Ohnabe H, Masaki S, Onozuka M, Miyahara K, Sasa T. Potential 1720/alumina (n720/a)continuous fiber ceramic composite Composites: Part A 1999: 30: 489-96 21]Ehrman JM, Ruggles-Wrenn MB. Baek SS. Influence of hold times [2] Zawada LP, Staehler J, Steel S. Consequence of intermittent exposure on the elevated-temperature fatigue behavior of an oxic to moisture and salt fog on the high-temperature fatigue durability of ceramic composite in air and in steam environment. Comp several ceramic-matrix composites. J Am Ceram Soc [22]Jurf RA, Butner SC. Advances in oxide-oxide CMC In: Proceedings [3] Parlier M, Ritti MH. State of the art and perspectives for oxide/oxide of the 44th asme Gas Turbine and Aeroengine Congress and mposites. Aerospace Sci Technol 2003: 7: 211-21 Exhibition. 1999 [4] Mattoni MA, Yang JY, Levi CG, Zok FW, Zawada LP Efects of 23] COI Ceramics, Unpublished Data mbustor rig exposure on a porous-matrix oxide composite. Int J (24] Zawada LP, Hay RS, Lee ss, Staehler J. Characterization and high- mperature mechanical behavior of an oxide/oxide composite. J Am arthasarathy TA, Zawada LP, John R, Cinibulk MK, Zelina J Ceram Soc2003:866981-90. Evaluation of oxide-oxide composites in a novel combustor wall [25]Heathcote JA, Gong XY, Yang JY, Ramamurty U, Zok Fw.In- application. Int J App Cer Tech 2005: 2(2): 122-32. plane mechanical properties of an all-oxide ceramic composite. J Am Ceram Soc199982(10):2721-30 [6A. Szweda A, M.L. Millard ML, M.G. Harrison MG. Fiber- [26]Wilson DM, Visser LR. High performance oxide fibers for metal and composite member and method for mak- ing.US.Pat.No.5601674,1997 ceramic composites. 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[In Tu wc, Lange FF, Evans stron Concept for a damage-tolerant 6;792):417-24 York: John Wiley Sons, Inc; 1965.p. o0-ettoe roving it. Florence. It 196l Scientifique Continentale du Verre, Belgium, 1962: 511-27 interfaces. J Am Ceram Soc [30] Charles r, Hillig WB. Surfaces, stress-dependent surface reactions, and strength. In: Zackey VF, editor. High-streng [12] Evans AG, Zok Fw. Review: the ph I Mater sd 1994-29138 of fiber- reinforced brittle matrix composites. J 31Wiederhorn SM, Bolz lH. Stress corrosion and static fatigue of glass [13] Kerans R, Parthasarathy TA Crack J Am Cer Soc1970;53(10):543-8 ites and fiber coating design criteria. Composites: Part A [2]Wiederhorn S. A chemical interpretation of static fatigue. J Am Cer 1999;30:521-4 Socl972:55(2):8l-5. [14] Kerans RJ, Hay RS, Parthasarathy TA, Cinibulk MK. Interface [3] Michalske TA, Bunker BC. Slow fracture model based on strained design for oxidation-resistant ceramic composites. J Am Ceram Soc silicate structures. 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Adv Eng Mater 2001: 3(1-2): 15-23. properties of porous mullite/alumina mixtures via precursor-derived [19 Zok evelopments in oxide fiber composites. J Am Ceram Soc alumina. J Am Cer Soc 2005: 88(2): 367-7 2006:89(11):3309-24References [1] Ohnabe H, Masaki S, Onozuka M, Miyahara K, Sasa T. Potential application of ceramic matrix composites to aero-engine components. Composites: Part A 1999;30:489–96. [2] Zawada LP, Staehler J, Steel S. Consequence of intermittent exposure to moisture and salt fog on the high-temperature fatigue durability of several ceramic–matrix composites. J Am Ceram Soc 2003;86(8):1282–91. [3] Parlier M, Ritti MH. State of the art and perspectives for oxide/oxide composites. Aerospace Sci Technol 2003;7:211–21. [4] Mattoni MA, Yang JY, Levi CG, Zok FW, Zawada LP. Effects of combustor rig exposure on a porous-matrix oxide composite. Int J Appl Cer Tech 2005;2(2):133–40. [5] Parthasarathy TA, Zawada LP, John R, Cinibulk MK, Zelina J. Evaluation of oxide–oxide composites in a novel combustor wall application. Int J App Cer Tech 2005;2(2):122–32. [6] A. Szweda A, M.L. Millard ML, M.G. Harrison MG. Fiber￾reinforced ceramic–matrix composite member and method for mak￾ing. U.S. Pat. No. 5 601 674, 1997. [7] Sim SM, Kerans RJ. Slurry infiltration and 3-d woven composites. Ceram Eng Sci. Proc 1992;13(9-10):632–41. [8] Moore EH, Mah T, Keller KA. 3D composite fabrication through matrix slurry pressure infiltration. Ceram Eng Sci. Proc 1994;15(4):113–20. [9] Lange FF, Tu WC, Evans AG. Processing of damage-tolerant, oxidation-resistant ceramic matrix composites by a precursor infil￾tration and pyrolysis method. Mater Sci Eng A 1995;A195:145–50. [10] Mouchon E, Colomban P. Oxide ceramic matrix/oxide fiber woven fabric composites exhibiting dissipative fracture behavior. Compos￾ites 1995;26:175–82. [11] Tu WC, Lange FF, Evans AG. Concept for a damage-tolerant ceramic composite with strong interfaces. J Am Ceram Soc 1996;79(2):417–24. [12] Evans AG, Zok FW. Review: the physics and mechanics of fiber￾reinforced brittle matrix composites. J Mater Sci 1994;29:3857–96. [13] Kerans RJ, Parthasarathy TA. Crack deflection in ceramic compos￾ites and fiber coating design criteria. Composites: Part A 1999;30:521–4. [14] Kerans RJ, Hay RS, Parthasarathy TA, Cinibulk MK. Interface design for oxidation-resistant ceramic composites. J Am Ceram Soc 2002;85(11):, 2599–2632. [15] Levi CG, Yang JY, Dalgleish BJ, Zok FW, Evans AG. Processing and performance of an all-oxide ceramic composite. J Am Ceram Soc 1998;81:2077–86. [16] Hegedus AG. Ceramic bodies of controlled porosity and process for making same. U.S. Pat. No. 5 0177 522, May 21, 1991. [17] Lu TJ. Crack branching in all-oxide ceramic composites. J Am Ceram Soc 1996;79:266–74. [18] Zok FW, Levi CG. Mechanical properties of porous-matrix ceramic composites. Adv Eng Mater 2001;3(1–2):15–23. [19] Zok F. Developments in oxide fiber composites. J Am Ceram Soc 2006;89(11):3309–24. [20] Ruggles-Wrenn MB, Mall S, Eber CA, Harlan LB. Effects of steam environment on high-temperature mechanical behavior of nex￾telTM720/alumina (n720/a) continuous fiber ceramic composite. Composites A 2006;37(11):2029–40. [21] Mehrman JM, Ruggles-Wrenn MB, Baek SS. Influence of hold times on the elevated-temperature fatigue behavior of an oxide–oxide ceramic composite in air and in steam environment. Comp Sci Tech 2007;67:1425–38. [22] Jurf RA, Butner SC. Advances in oxide–oxide CMC. In: Proceedings of the 44th ASME Gas Turbine and Aeroengine Congress and Exhibition. 1999. [23] COI Ceramics, Unpublished Data. [24] Zawada LP, Hay RS, Lee SS, Staehler J. Characterization and high￾temperature mechanical behavior of an oxide/oxide composite. J Am Ceram Soc 2003;86(6):981–90. [25] Heathcote JA, Gong XY, Yang JY, Ramamurty U, Zok FW. In￾plane mechanical properties of an all-oxide ceramic composite. J Am Ceram Soc 1999;82(10):2721–30. [26] Wilson DM, Visser LR. High performance oxide fibers for metal and ceramic composites. Composites: Part A 2001;32:1143–53. [27] Wannaparhun S, Seal S. A combined spectroscopic and thermo￾dynamic investigation of Nextel-720/alumina ceramic matrix com￾posite in air and water vapor at 1100 C. J Am Cer Soc 2003;86(9): 1628–30. [28] Campbell CX, Carelli EV, More KL, Varghese P, Seal S, Desai VH. Effect of high-temperature water vapor exposure on NextelTM720 in an alumina-matrix CMC. Siemens Westinghouse Power Corporation Technical Document TP-02076. [29] Charles RJ and Hillig WB. The kinetrics of glass failure by stress corrosion. In: Symposium on mechanical strength of glass and ways of improving it. Florence, Italy. September 25–29 1961. Union Scientifique Continentale du Verre, Belgium, 1962:511–27. [30] Charles RJ, Hillig WB. Surfaces, stress-dependent surface reactions, and strength. In: Zackey VF, editor. High-strength materials. 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Ruggles-Wrenn et al. / Composites Science and Technology 68 (2008) 1588–1595 1595
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