Благодарность: Авторы выражают благодарность за финансовую поддержку Естественнонаучному проекту провинции Цзянсу No. BK2006555; проекту No. A1420060186; проекту по мосту Су Тун No. STDQ-04HT20SY-010; Начальному исследовательскому проекту Шэньчженской лаборатории по исследованию износостойкости в гражданском строительстве, Шэньчженский университет; Начальному и продолжающемуся исследовательскому проекту, финансируемому Нанцзинским гидравлическим исследовательским институтом (No. Yk90508) и докторскому фонду (No. 9212002242) из южного университета. Ссылки [l] Davidovits J. Geopolymers и geopolymeric new materials. J Thermal Anal 1989;35(2):429-41. [2] Davidovits J, Davidovits M. Geopolymer: ultrahihg-temperature tooling material for the manufacture of advanced composites. In: Adsit R, Gordaninejad F, editors. 36th Annual SAMPE symposium и exhibition, Covina, CA, USA, vol. 36 pt 2; 1991. p. 1939-49. [3] Davidovits J. Geopolymer cement to minimize carbon-dioxde greenhouse-warming. In: Moukwa M, Sarkar SL, Luke K, Grutzeck MW, editors. Cement-based materials: present, future, и environmental aspects. Ceramic transactions, vol. 37. Westerville, America: American Ceramic Society; 1993. p. 165-82. [4] Davidovits J. Properties of geopolymer cement. In: Sкvara F, editor. Proceedings 1st international conference on Alkaline cements и concretes. Kiev Ukraine: Scientific Research Institute on Binders и Materials, Kiev state technical university; 1994. p. 131-49. [5] Lyon RE, Foden A, Balaguru PN, Davidovits M, Davidovits J. Fire-resistant aluminosilicate composites. J Fire Mater 1997;21(2): 67-73. [6] Davidovits J. High alkali cements for 21st century concretes. In: Mehta PK, editor. Concrete technology, past, present, и future. Detroit, SP-144: American Concrete Institute; 1994. p. 383-97. [7] Davidovits J. Geopolymer chemistry и properties. In: Davidovits J, Orlinsl J, editors. Proceedings of the first european conference on soft mineralogy, vol. 1. Compiegne, France: The Geopolymer Institute; 1988. p. 25-48. [8] Shao Y, Marikunte S, Shah SP. Extruded fiber-reinforced composites. Concr Int 1995;17(4):48-52. [9] Shao Y, Marikunte S, Shah SP. High performance fiber-cement composite by extrusion processing. In: Chong KP, editors. Proceedings of the 4th materials engineering conference: materials for the new millennium, vol. 2, Washington, DC; 1996. p. 251-60. [10] Li Zongjin, Mu Bin, Chui Stanley NC. Systematic study of properties of extrudates with incorporated metakaolin or silica fume. ACI Mater J 1996;96(5):574-9. [11] Li Zongjin, Mu Bin, Chui Stanley NC. Static и dynamic behavior of extruded sheets with short fibers. J Mater Civil Eng 2001;13(4):248-54. [12] Shao Yixin, Shah SP. Mechanical properties of PVA fiber reinforced cement composites fabricated by extrusion processing. ACI Mater J 1994;94(6):555-64. [13] Corina A, Marikunte S, Shah SP. Extruded fiber reinforced cement pressure pipe. Adv Cement Based Mater 1998;8(2):47-55. [14] Li Zongjin, Mu Bin. Application of extrusion for manufacture of short fiber reinforced cementitious composite. J Mater Civil Eng, ASCE 1998;10:2-4. [15] Stang H, Pederson C. HPFRКУБ. СМ.-extruded pipes. In: Chong KP, editor. Proceedings of the 4th materials engineering conference: materials for the new millennium, vol. 2, Washington, DC; 1996. p. 261-70. [16] Stevens M J. Extruder principles и operation. London: Elsevier Applied Science; 1985. [17] Stang H, Li VC. Extrusion of EКУБ. СМ.-material. In: Reinhardt HW, Naaman AE, editors. Proceedings of the 3th international Workshop on HPFRКУБ. СМ.3. 1999. p. 203-12. [18] Shao Yinxin, Qin Jun, Shah SP. Microstructure of extruded cement-bonded fiberboard. Cement Concr Res 2001;31(8):1153-61. [19] Li Zongjin, Mu Bin. Rheological properties of cement-based extrudates with fibers. J Am Ceram Soc 2001;84(10):2343-50. [20] Shah SP, Peled A, DeFord D. Extrusion technology for the production of fiber-cement composites. In: Moslemi AA, editor. Proceeding of inorganic-bonded wood и fiber composite materials, vol. 6. Idaho, USA: Forest Products Society; 1998. p. 261-77. [21] Peled A, Shah SP. Processing effects in cementitious composites: extrusion и casting. J Mater Civil Eng 2003; 15(2):192-9. [22] Akkaya Y, Peled A, Shah SP. Parameters related to fiber length и processing in cement composites. Mater Struct 2000;33(232): 515-24. [23] Igarashi S, Bentur A, Mindess S. The effect of processing on the bond и interfaces in steel fiber reinforced cement composites. Cement Concr Comp 1996;18(2):313-22. [24] Peled A, Akkaya Y, Shah SP. Effect of fiber length in extruded и cast cement composites. In: Peled A, Shah SP, Banthia N, editors. ACI SP-190 on high performance concrete fiber reinforced thin products. Detroit: American Concrete Institute; 2000. p. 1-20. [25] Peled A, Cyr MF, Shah SP. High content of fly ash (class F) in extruded cementitious composites. ACI Mater J 2000;97(5): 509-17. [26] Yunsheng Z. Research on structure formation mechanism и properties of high performance geopolymer concrete. Ph.D. Thesis, School of Materials science и Engineering, Southeast University, Nanjing, PR China; 2004. [27] Benbow J, Bridgwater J. Paste flow и extrusion. Oxford, UK: Clarendon; 1993. p. 153. Zhang Yunsheng (a,*), Sun Wei (a), Li Zongjin (b), Zhou Xiangming (b) Eddie (b), Chau Chungkong (b) (a) School of Materials Science и Engineering, Southeast University, Nanjing 210096, PR China (b) Department of Civil Engineering. The Hong Kong University of Science и Technology, Clear water Bay, Kowloon, PR China * Автор для ведения переписки. E-mail address. zhangys279@163.com (Z. Yunsheng). 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