Impinging Streams

Impinging Streams

Volumn , Issue , 2007, Pages

  Wu, Yuan ^a  

^a WUHAN INSTITUTE OF TECHNOLOGY   (China)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 85013949974     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1016/B978-0-444-53037-0.X5026-5     Document Type: Book

References (241)

1. Ranz W.E., Marshall W.R. Chem. Eng. Prog. 1952, 48:141.
2. Ranz W.E., Marshall W.R. Chem. Eng. Prog. 1952, 48:173.
3. Comprehensive Biotechnology 1985, Vol. 2:25. Pergamon Press, Oxford. Moo-Young (Ed.).
4. Elperin I.T. Transport Processes in Opposing Jets (Gas Suspension) 1972, 213. (in Russ), Science and Tech. Press, Minsk.
5. Pitt G.J., Millward G.R. Coal and Modern Coal Processing: An Introduction 1979, 137. Academic Press, New York.
6. Tamir A. Impinging Stream Reactors: Fundamentals and Applications 1994, Elsevier, Amsterdam.
7. Elperin I.T. Heat and mass transfer in opposing currents. J. Eng. Physics 1961, (6):62-68. (in Russ).
8. Ramshaw, C. and Mallinson, P. H. (1981). US patent 4283255.
9. Todd D.B., Maclean D.C. Centrifugal vapor-liquid contacting. British Chem. Eng. 1969, 14(11):1565-1568.
10. Yuan Wu Properties of application of impinging streams. Chem. Indus. Eng. Progress. 2001, 20(11):8-13. (in Chinese).
11. Bley P., Ehrfeld W. Molecular dynamics of disparate mixtures in opposed jets. Rarified Gas Dynamics 1981, Vol. 74. Part I, AIAA, New York. S.S. Fisher (Ed.).
12. Huang Kai, Liu Huayan, Wu Yuan An investigation on drying in the circulative impinging stream dryer. J. Chem. Eng. of Chinese Universities 2001, 15(3):78-80. (in Chinese).
13. Ziv A., Luzzatto K., Tamir A. Application of free impinging streams to combustion of gas and coal. Sci. & Tech. 1988, 60:31-44.
14. Xiao Yang Flow and mixing in the submerged circulative impinging stream reactor. ME thesis 2002, (in Chinese), Wuhan Institute of Chemical Technology, Wuhan, China.
15. Brauer H. Development and performance of a stagnation jet mixer. Ger. Chem. Eng. 1981, (4):144-154.
16. Wu Yuan, Wuhan Institute of Chemical Technology The submerged circulative impinging stream reactor 2000, Chinese patent ZL00 2 30326.4.
17. Chen Yu Preparation of "ultrafine" white carbon black by impinging stream reaction-precipitation. ME thesis 1999, (in Chinese), Zhejiang University of Technology, Hangzhou, China.
18. Chen Yu, Liu Huayan, Wu Yuan Flow and mixing in submerged circulative impinging stream reactor. Proc. 3rd Joint China/USA Chem. Eng. Conf., Beijing, 03-031 2000.
19. Wu Yuan, Chen Yu Preparation of "ultrafine" white carbon black by impinging stream reaction-precipitation. J. Chem. Indus. & Eng. (China) 2003, 54(10):1381-1386. (in Chinese).
20. Liu P.D., Futran M., Midler M., Paul E.L. Particle size design of pharmaceuticals by continuously impinging jets precipitation. AIChE Meeting 1990.
21. Perry R.H., Green D. Chemical Engineers' Handbook 1984, McGraw-Hill, New York. 6th ed.
22. Wu Yuan Impinging streams and its application in drying. Chemical Engineering 1998, 26(4):14-23. (in Chinese).
23. Mahajan A., Kirwan D.J. Micromixing effects in a two-impingingjets precipitator. AIChE J 1996, 42(7):1801-1814.
24. Zhang Xiaoning, Xu Gengguang, Wang Tingzeng Explosion and Impact 1999, 19(3):262-268. (in Chinese).
25. Zhang Xiaoning, Xu Gengguang, Wang Tingzeng Energy-Containing Materials 1999, 7(3):97-99. (in Chinese).
26. 2 absorption in coaxial cylinders with impinging streams, Part I and II. Chem. Eng. Sci. 2000, 55:1009-1021.
27. 2 absorption in coaxial cylinders with impinging streams, Part I and II. Chem. Eng. Sci. 2000, 55:1022-1028.
28. Powell A. Aerodynamic noise and the plane boundary. J Acoustical Society of America 1960, 32:982-990.
29. Nosseir N., Pelet U., Hildebrand G. Pressure field generated by jet on jet impingement. AIChE J 1968, 25:78-84.
30. Denshchikov V.A., Kontratev V.N., Romashov A.N. Interaction between two opposed jets. Fluid Dynamics 1978, (6):924-926.
31. Denshchikov V.A., Kontratev V.N., Romashov A.N. Auto-oscillation of planner colliding jets. Fluid Dynamics 1983, (3):460-462.
32. Oren Y., Abde M., Tamir A. Mass transfer in an electro-chemical reactor with two interacting jets. J Applied Electrochemistry 1992, 22:950-958.
33. Wu Yuan, Xiao Yang, Chen Yu Submerged circulative impinging stream reactor. Chem. J. on Internet 2002, 4(9):44.
34. Becker H.A., Cho S.H., Ozum B., Tsujikawa H. Turbulent mixing in the impingement zone of dual opposed free jets and of the normal wall-impinging jet. Chem. Eng. Comm. 1988, 67:291-313.
35. Popiel C.O., Trass O. Visualization of a free impinging round jet. Experimental Thermal and Fluid Science 1991, (4):253-264.
36. Bird R.B., Stewart W.E., Lightfoot E.N. Transport Phenomena 1960, 134. John Wiley and Sons, Inc., New York.
37. Kuts P.S., Dolgushev W.E. Numerical calculation of opposing jets of a viscous incompressible liquid. J. Eng. Physics 1974, 27:1550-1555.
38. Elperin I., Enyakin Yu.P., Meltzer V. Experimental investigation of the hydrodynamics of impinging gas-solid particles streams. Heat and Mass Transfer in Dispersed Systems 1968, (5):454-496.
39. Champion M., Libby P.A. Reynolds stress description of opposed and impinging turbulent jets, I-Closely spaced opposed jets. Physics of Fluids 1993, (5):203-216.
40. Longwell P.A. Mechanics of Fluids 1966, McGraw-Hill Comp. Inc., New York.
41. Kostiuk L.W., Bray K.N.C., Cheng R.K. Experimental study of premixed combustion in opposed streams, Part I-Non-reacting flow field. Combustion and Flame 1993, 92:377-395.
42. Kostiuk L.W. Premixed turbulent combustion in counter flowing streams. Dissertation 1991, Cambridge University, UK.
43. Enyakin Yu.P. Depth of penetration of solid or liquid phase particles in opposing gas-suspension jets. J. Eng. Physics of Fluids 1984, 14:512-514.
44. Meltser V.L., Elperin I.T., Galershtein D.M. The motion of solid-phase particles in countercurrent gas-suspension jets. J. Eng. Physics. 1968, (6):1195-1199.
45. Meltser V.L., Elperin I.T. Motion of single particle in apparatus with impinging streams. Investigation of Convective Heat and Mass Transfer 1968, 334-343. Smolsky, Minsk.
46. Elperin I.T., Meltser V.L., Levental L.E., Israfailov T.D. Influence of solid particles concentration on their motion in impinging jets. Proc. of the Academy of BSSR, Series of Physical-Energy Sci. 1971, 4:66-67.
47. Culick F.E.C. Boltzmann equation applied to a problem of two phase flow. Physics of Fluids 1964, 7:1894-1904.
48. Pai S.I. Fundamental equations of a mixture of gas and small spherical particles from simple kinetic theory. Revue Roum. Sci. Mech. Tech. Appl. 1974, 19:605-621.
49. Kitron A., Elperin T., Tamir A. Montte-Carlo simulation of gas-solid suspension flows in impinging streams. Inter. J. Multiphase Flow 1990, 16:1-17.
50. Kitron A., Elperin T., Tamir A. Stochastic modeling of the effects of liquid droplets collisions in impinging stream absorbers and combustors. Inter. J. Multiphase Flow 1991, 17:247-265.
51. Kitron A. Analysis of stochastic phenomena of interactions in heterogeneous systems. PhD Thesis 1991, Ben-Gurion University of the Negev, Israel.
52. Wu Gao'an, Wu Yuan RTD of particles in an impinging stream contactor of two horizontal jets-(I) A theoretical analysis. Proc. 2nd Joint China/USA Chem. Eng. Conf. 1997, 459-462.
53. Wu Gao'an, Huasheng Zou, Yuan Wu RTD of particles in an impinging stream contactor of two horizontal jets-(II) Experimental study. Proc. 2nd Joint China/USA Chem. Eng. Conf. 1997, 463-466.
54. Goldshtein I. Mixing of solids in a semi-batch two impinging-stream mixer. M Sc Thesis 1994, (in Hebrew), Ben-Gurion University, Israel.
55. Sinclair C.G., McNaughton K.J. The residence time probability density of complex flow systems. Chemical Engineering Science 1965, 20:261-264.
56. Yuan Wu Chemical Process Dynamics 1998, 122-126. (in Chinese), The Chemical Industry Press of China, Beijing.
57. Wen C.Y., Fan L.T. Models for Flow Systems and Chemical Reactors 1975, Marcel Decker, New York.
58. Luzzatto K., Tamir A., Elperin L. A new two-impinging streams heterogeneous reactor. AIChE J. 1984, 30:600-608.
59. Wu Yuan Chemical Reaction Engineering 1992, 191-219. (in Chinese), The Press of Dalian Institute of Ocean Shipping, Dalian, China.
60. Tamir A., Elperin I.T., Luzzatto K. Drying in a new two impinging streams reactor. Chemical Engineering Science 1984, 39:139-146.
61. Herskowits D., Herskowits V., Stephan K., Tamir A. Characterization of a two phase impinging jets absorber, Part I: Physical absorption of carbon dioxide in water. Chem. Eng. Sci. 1988, 43:2773-2780.
62. Herskowits D., Herskowits V., Stephan K., Tamir A. Characterization of a two phase impinging jets absorber, Part II: Absorption with chemical reaction of carbon dioxide in NaOH solution. Chemical Engineering Science 1990, 45:1281-1287.
63. Tamir A, Luzzatto K. Solid-solid and gas-gas mixing properties of a new two impinging stream mixer. AIChE J. 1985, 31:781-787.
64. Mujumdar A.S. Drying technologies of the future. Drying Technology 1991, 9(2):325-347.
65. Bar T., Tamir A. An impinging-stream reactor with two pairs of air feed. The Canadian J. Chem. Eng. 1990, 68:541-552.
66. Tamir A., Luzzatto K., Sartana D., Salomon S.A. A correlation based on the physical properties of the solid particles for the evaluation of pressure drop in the two-impinging-streams gas-solid reactor. AIChe J. 1985, 31:1744.
67. Tamir A, Shalmon B. Scale-up of a two impinging streams (TIS) reactors. IEC Research 1988, 27:2238.
68. Wu Gao'an, Yuan Wu Resistance of impinging stream contactor to solid-air suspension flow. Chinese J. Chem. Eng. 1997, 5(3):270-279.
69. Beijing Institute of Iron & Steel Pneumatic Conveyer Equipments 1974, (in Chinese), People's Traffic Press, Beijing.
70. Wu, Yuan, Sun, Qin, Cheng, Rong and Xu, Jingnian. Dispersity of liquid in gascontinuous impinging streams. A paper to be published.
71. Wu, Yuan., Chapter 5: Pneumatic atomization nozzles. in Handbook of Liquid Dispersion and Atomization, ed. by Wang, Fuhua and Tang, Guihua. To be published.
72. Danckwerts P.V. Gas-Liquid Reactions 1970, McGraw-Hill, New York.
73. Culick F.E.C. Boltzmann equation applied to a problem of two phase flow. Physics of Fluids 1964, 7:1894-1904.
74. Kitron A., Eelperin T., Tamir A. Stochastic modeling of the effects of liquid droplets collisions in impinging stream absorbers and combustors. Inter. J. Multiphase Flow 1991, 17:247-265.
75. Faeth G.M. Evaporation and combustion of sprays. Progress in Energy & Combustion Sci. 1983, 9:1-76.
76. Abou-Ellail M.M.M., Elkotb M.M., Rafat N.M. Effects of fuel pressure, air pressure and air temperature on droplet size distribution in hollow cone kerosene sprays. Proc. 1st Inter. Conf. on Liquid Atomization and Spray Systems (ICLAS'78) 1978, 85-99.
77. Taylor E.H., Harmon D.B. Measuring drop sizes in sprays. I&EC 1954, 46(7):1455-1457.
78. Bryce W.B., Cox N.W., Joyce W.I. On droplet production and size measurement from a twin fluid atomizer using real fluids. ICLAS'78 1978, 258-263.
79. Chigier N. Drop size and velocity instrumentation. Prog. Energy Combust. Sci. 1983, 9:155-177.
80. Lefebyre A.H. Atomization and Sprays, Chap. 9 1987, Hemisphere, New York.
81. Ashgriz N., Givi P. Binary collision dynamics of fuel droplets. Inter. J. Heat & Fluid Flow 1987, 8:205-210.
82. Gretzinger J., Marshall W.R. AIChE J. 1961, 7(2):312, 1.
83. Kim K.Y., Marshall W.R. AIChE J. 1971, 17(3):575-584.
84. Wu Yuan, Wuhan Institute of Chemical Technology The circulative impinging stream dryer 2000, Chinese paten, ZL00230326.4.
85. Polat S. Heat and mass transfer in impingement drying. Dying Technology 1993, 11:1147-1176.
86. Mujumdar A.S. Innovation in drying. DRYING'96, A 1996, 3-13.
87. Douglas W.J.M., Chen G. Combined impingement and through air drying of paper. DRYING'96, A 1996, 14-26.
88. Leiner A.I., Lainer Yu.A., Israfilov T.D., Elperin I.T., Meltser V.L. Investigation of the process of evaporation of salt solutions in apparatus with impinging streams. Izvestia Vyshich Uchenich Zavedeni. Non-Ferrous Metallurgy 1976, 6:37-40. (in Russ).
89. Elperin, I. T., Meltser V. L., Ostrovsky, O. P., Israfilov, T. D. and Goncharenko, V. G. (1976). Problems of Drying and Thermal Processing. ed. by Kuts, P. S. and Pikus, I. F., Minsk in (Russ.).
90. Kuts P.S., Elperin I.T., Tutova E.G., Kabaldin G.S. Method for thermal processing of dispersed materials 1973, USSR Patent No 373496.
91. Kudra T., Mujumdar A.S. Impinging stream dryers. Dying Technology 1989, 7:219-266.
92. Kitron Y., Tamir A. Performance of a coaxial gas-solid two impinging streams (TIS) reactor: Hydrodynamics, residence time distribution and drying heat transfer. T & EC Research 1988, 27:1760-1767.
93. Tamir A., Kitron Y. Vertical impinging-stream and spouted-bed dryers. Drying Technology 1989, 7:183-204.
94. Hu Xuegong, Liu Dengying, Zhang Changhai, Meng Qun A study on the features of a vertical impinging stream dryer. Jour. Of Nanjing Forestry University 1997, 21:197-201. (additional issure), (in Chinese).
95. Hu Xuegong, Liu Dengying Experimental investigation on flow and drying characteristics of a vertical and semi-cyclic combined impinging streams dryer. Drying Technology-An International Journal 1999, 17:1879-1892.
96. Tamir A., Elperin I., Luzzatto K. Drying in a new two impinging streams reactor. Chemical Engineering Science 1984, 39:139-146.
97. Kitron Y., Buchman R., Luzzatto K., Tamir A. Drying and mixing of solids and particles RTD in four impinging streams and multistage two impinging streams reactors. IEC Research 1987, 26:2454-2461.
98. Sazhin B.S. Fundamentals of Drying Techniques 1984, (in Russ), Khimia, Moscow.
99. Elperin I.T., Meltser V.L., Ostrovsky O.P., Israfilov T.D., Goncharenko V.G. Thermal processing of industrial sewages in impinging streams. Problems of Drying and Thermal Processing 1975, (in Russ), Science and Technol Press, Minsk. P.S. Kuts, I.F. Pikus (Eds.).
100. Tutova E.G., Kuits P.S. Drying of Microbiological Products 1987, (in Russ), Agropromizdat, Moscow.
101. Meltser V.L., Tutova E.G. Drying of crystalline lysine in encountering reversive streams. Biotekhnologia 1986, (2):70-74. (in Russ).
102. Meltser V.I., Luboshitz A.I., Smagina T.V. Drying of thermo labile material in reversed jets. Intensification of Thermal Drying Processes, Collection of the Science Transactions 1986, 62-70. (in Russ), ITMO AN BSSR, Minsk.
103. Meltser V.I., Tutova E.G. Enhancement of drying processes of crystal-structure foods. Scientific Notes in Chemical Engineering 1987, 14:29-36. Nr. 356, (in Russ), Technology University of Lodz.
104. Frishman M.A. Semi-batch two-impinging-stream reactor. M Sc Thesis 1994, (in Hebrew), Ben-Gurion University, Beer-Sheva.
105. Wu Yuan, Wuhan Institute of Chemical Technology The circulative impinging stream dryer 2003, Chinese patent ZL 03235519.x.
106. Huang Kai Investigation on the circulative impinging stream drying equipment and process. ME thesis 1998, (in Chinese), Zhejiang University of Technology, Hangzhou, China.
107. Wu Yuan, Cheng Rong, Sun Qin Internal circulative impinging stream drying: (I) An experimental study under cold condition. Proc. of ?96 Chinese Forum on Drying 1996, 112-120. (in Chinese).
108. 2 in a new two impinging stream absorber. Chemical Engineering Science 1985, 40:2149-2151.
109. Tamir A. Absorption of acetone in a two impinging stream absorber. Chemical Engineering Science 1986, 41:3023-3030.
110. Herskowits D., Herskowits V., Tamir A. Desorption of acetone in a two impinging streams spray desorber. Chemical Engineering Science 1987, 42:2331-2337.
111. Tamir A., Herskowits D., Herskowits V. Spray and bubble absorption of acetone from air into water in a two-impinging-jets absorber. JEC Research 1990, 29:272-277.
112. Wu Yuan, Xiao Yang, Zhou Yuxin Micromixing in the submerged circulative impinging stream reactor. Chinese J. of Chem. Eng. 2003, 11(4):420-425.
113. Gaddis E.S., Vogelpohl A. The impinging-stream reactor: A high performance loop reactor for mass transfer controlled by chemical reactions. Chemical Engineering Science 1992, 47:2877-2882.
114. Ponikarov I.I., Azizov B.M., Gainullin G. Investigation of mass transfer in contact with collision of ascending gas-liquid streams. Teoretichskic Osnovy Khmicheskoi Technology 1983, 17:579-585. (in Russ).
115. Guo Dongming Technologies for Prevention and Cure of Pollution by the Compounds of Sulfur and Nitrogen 2001, (in Chinese), The Chemical Industry Press of China, Beijing.
116. Lei Zhongcun Industrial Desulfurization Technologies 2001, (in Chinese), The Chemical Industry Press of China, Beijing.
117. Tong Zhiquan Purification and Utilization of Industrial Exhaust Gases 2001, (in Chinese), The Chemical Industry Press of China, Beijing.
118. Soren K., Micheal L. Experimental investigation and modeling of a wet flue gas desulfurization. IEC Research 1998, 37:2792-2806.
119. Frank R., Rudolf K., Siegfried W. The kinetics of the absorption of sulfur dioxide in calcium hydroxide suspensions. Chemical Engineering Science 1991, 46(4):936-947.
120. Sun Wenshou, Wu Zhongbiao, Tan Tianen A study on desulfurization with Mg-enhanced lime in the swirling flow plate column. Environment Science 2001, 22(3):104-107. (in Chinese).
121. Scala F. Gas absorption with instantaneous irreversible reaction in a slurry containing sparingly soluble fine reactant particles. IEC Research 2002, 41:5187-5195.
122. Scala F., D'Ascenzo M. Absorption with instantaneous reaction in a droplet with sparingly soluble fines. AIChE J 2002, 48(8):1719-1726.
123. Yoon H., Stouffer R., Rosenhoover W.A., Withum J.A., Burke F.B. Pilot process variable study of coolside desulfurization. Environment Progress 1988, 7(2):104-135.
124. 2 removal from hot flue gas by lime suspension spray in a tube reactor. IEC Research 1991, 30:435-440.
125. 2-slurry droplet reaction. AIChE J 1990, 36(12):1865-1872.
126. 2 absorption in coaxial cylinders with impinging streams-Part II. Chemical Engineering Science 2001, 55:1023-2028.
127. Wu Yuan, Bao Chuanpin, Zhou Yuxin, Wuhan Institute of Chemical Technology The impinging stream gas-liquid reactor 2004, Chinese patent ZL 2004 2 0017226.4.
128. Li Fang Desulfurization of flue gas by by impinging stream reaction. ME thesis 2005, (in Chinese), Wuhan Institute of Chemical Technology, Wuhan, China.
129. Wu, Yuan, Li, Qin and Li, Fang. Desulfurization in the gas-continuous impinging streams gas-liquid reactor. Chemical Engineering Science (in press).
130. Wu Yuan, Wu Gao'an, Zhou Yuxin, Wuhan Institute of Chemical Technology The eddy pressure nozzle 2000, Chinese patent ZL 00230305.1.
131. Wu, Yuan, Sun, Qin, Cheng, Rong and Xu, Jingnian. Dispersity of liquid in gas-continuous impinging streams. A paper to be published.
132. Wu Yuan, Wu Xiaoxi, Wu Xiaohong Combined multifunction impinging stream gas-liquid reactor. CPT US App. No. 60/721,320 2005, Chinese patent App. No. 200520136445.9.
133. Chen Haihui, Deng Xianhe, Zhang jianjun, Zhang Jun Measurement of the effective interface area and volumetric mass transfer coefficient in a rotating packed bed with multistage centrifugal atomization by chemical absorption. J. Chemical Engineering & Technologies 1999, 15(1):97-103. (in Chinese).
134. Zhao Haihon A study on the hydraulics and mass transfer performance of the cross-flow multistage rotating packed bed. ME thesis 2004, (in Chinese), North Central University, Taiyuan.
135. Munjal S., Dudukovic P. Mass-transfer in rotating packed beds-I Development of gas-liquid and liquid-solid mass transfer correlations. Chemical Engineering Science 1989, 44(10):2245-2256.
136. Munjal S., Dudukovic P. Mass-transfer in rotating packed beds-II Experimental results and comparison with theory and gravity flow. Chemical Engineering Science 1989, 44(10):2257-2267.
137. Chen Zhaoqiong, Xiong Shuangxi, Wu Jiguang Spiral rotating absorber. J. Chem. Inds. & Eng. (China) 1995, 46(3):388-391.
138. Barnard J.A., Brandley J.N. Flame and Combustion 1985, Chapman & Hall.
139. Spalding D.B. Combustion and Mass transfer 1979, Pergamon Press.
140. Rosner D.E. On liquid droplet combustion at high pressure. American Inst of Aeronautics & Astronautics J. 1967, 5:163-166.
141. Diminicis D.P. An experimental investigation of near critical and supercritical burning with internal circulation. Inter. J. Heat & Mass Transfer 1973, 21:585-595.
142. You K.K. Principles of Combustion 1986, John Wiley & Sons, New York.
143. Prakash S., Sirgnano W.A. Liquid fuel droplets heating and supercritical burning. J. Heat & Mass Transfer 1978, 21:885-895.
144. Enyakin Yu.P. Investigation of the behavior of liquid particles with combustion of oil in opposed firing jets. Thermal Eng. 1970, 17:28-33.
145. Enyakin Yu.P., Dvoretskii A.I. Combustion of high-sulfur-content oil with low excess air factor in furnaces with opposed burners. Thermal Eng. 1968, 15:78-84.
146. Enyakin Yu.P., Gorbanenko A.D., Dvoretskii A.E., Zizulnikov L.M. Tests of the combustion of steam boiler BKZ-320-140-GM with impinging burners. Elektricheskie Stantsii 1968, (7):10-14. (in Russ).
147. Staege H The production of methanol and hydrogen by Kopper-Totzek coal gasification process. Erdöl-Erdgas-Zeitschrift 1976, 92:381-387.
148. Goldberg P.M., Essenhigh R.H. Coal combustion in a jet-mix stirred reactor. Proc 17th Inter Symposium on Combustion 1978, 145-154.
149. Hazanov Z., Goldman Y., Tamnat Y.M. Opposed-flow combustion of pulverized coal. Combustion & Flame 1985, 6:119-130.
150. Goldman Y., Shahaf M., Timnat Y.M. Flames with impinging jets. Israel J. of Tech. 1981, 19:188.
151. Greenberg J.B., Goldman Y. Volatilization and burning of Pulverized coal with radiation heat transfer effects on a counter flow combustor. Combustion Sci. & Tech. 1989, 64:1-17.
152. Liu Haifeng, Liu Hui, Gong Xin, Wang Fuchen, Yu Zunhong The radial velocity profile in the impinging streams from large-spaced opposite nozzles. J. of East-China University of Technology 2000, 26(2):168-171. iin Chinese).
153. Zgang Xiaoning, Xu Gengguang, Wangm Tingzeng An analysis of the principles involved in preparation of ultrafine explosive particls by impinging jets. Exploding and Impacting 1999, 19(3):262-268. (in Chinese).
154. Zgang Xiaoning, Xu Gengguang, Wangm Tingzeng An experimental study on the preparation of nitroamine explosive by impinging streams. Energy-Containing Materials 1999, 7(3):97-99. (in Chinese).
155. Tamir A., Glizenstein A. Modeling and application of a Semibatch coaxial two-impinging-stream contactor for dissolution of solids. The Canadian J. Chem. Eng. 1992, 70:104-114.
156. Tamir A., Grinholtz M. Performance of a continuous solid-liquid two-impinging-stream reactor. IEC Research 1987, 26:726-731.
157. Davies J.T. Particle suspension and mass transfer rates in agitated vessels. Chem. Eng. Progress 1986, 8:175-181.
158. Sun, Huaiyu, Wu, Yuan and Xu, Chenghai. Pressure fluctuation in the submerged circulative impinging stream reactor. Chinese Jour. Chem. Eng., 14(4):428-434.
159. Danckwerts P.V. The effect of incomplete mixing on homogeneous reactions. Chemical Engineering Science 1958, 8:93-102.
160. Gibson G.H., Schwarz W.H. Measurement of mixing process in chemical reaction. J. Fluid Mech. 1963, 16:365-371.
161. Patterson G.K. Development of a fluorescence method for reaction conversion measurement in a turbulent mixing tank. Physicochemical Hydrodynamics 1986, 7(1):33-34.
162. Rao M.A., Brodley R.S. Mixing and recycle for analysis of a continuous flow stirred tank. Chemical Engineering Science 1972, 27:137-146.
163. Bourne J.R., Kozichi F., Rys P. Mixing and fast chemical reaction-I: Test reactions to determine segregation. Chemical Engineering Science 1981, 36(10):1643-1648.
164. Bourne J.R. The characterization of micromixing using fast multiple reactions. Chem. Eng. Commun. 1982, 16:79-90.
165. Bourne J.R., Hilber C., Tovstiga G. Kinetics of the azo coupling reactions between 1-naphthol and diazotised sulphanilic acid. Chem. Eng. Commum. 1985, 37:293-314.
166. Liu Haifeng, Wang Fuchen, Tao Wu, Gong Xin, Yu Zunhong A study on the micromixing process in an impinging stream reactor. J. of East-China University of Technology 1999, 25(3):228-232. (in Chinese).
167. Chen Jianfeng, Lü Ying, Chen Gantang Mixing-reaction crystallization process-(I) Experiments. J. of Chem. Indus.& Eng. (China) 1994, 45(2):176-182. (in Chinese).
168. Liu Ji, Chen Jianfeng, Song Yunhua, Zheng Chong Experimental study on micromixing in a rotating packed bed. Chemical Reaction & Technology 1999, 15(3):327-331. (in Chinese).
169. Fournier M.C., Falk L, Villermaux J A new parallel competing reaction system for assessing micromixing efficiency-Determination of micromixing time by a simple mixing model. Chemical Engineering Science 1996, 51(23):5187-5192.
170. Fournier M.C., Falk L., Villerrmaux J. A new parallel competing reaction system for assessing micromixing efficiency-Experimental approach. Chemical Engineering Science 1996, 52:5053-5064.
171. Villerrmaux J., Falk L., Fournier M.C. Potentialuse of a new parallel reaction system to characterize micromixing in stirred tank reactors. AIChE Symp. Ser. 1990, 299:50-54.
172. Sinclair C.G., McNaughton K.J. The residence time probability density of complex flow systems. Chemical Engineering Science 1965, 20:261-264.
173. Nosseir N., Pelet U., Hildebrand G. Pressure field generated by jet on jet impingement. AIChE J 1968, 25:78-84.
174. Midler M., Paul E.L., Whittington E.F. Production of high purity, high surface area crystalline solids by turbulent contacting and controlled secondary nucleation. Eng. Foundation Conf. on Mixing 1989.
175. Kling K., Mewes D. Two-colour laser induced fluorescence for the quantification of micro- and macromixing in stirred vessels. Chemical Engineering Science 2004, 59:1523-1528.
176. Li xi, Chen Gantang Study on the problem of micromixing: Description of chemical reaction in various mixing stages. Chem. Reaction Eng. & Technologies 1993, 9(1):9-16. (in Chinese).
177. Li xi, Chen Gantang Study on the problem of micromixing: Solution method of the mathematical problems of micromixing. Chem. Reaction Eng. & Technologies 1993, 9(1):18-25. (in Chinese).
178. Li xi, Chen Gantang Study on the problem of micromixing: A numerical simulation of the competition-series reactions. Chem. Reaction Eng. & Technologies 1993, 9(1):26-32. (in Chinese).
179. Li Xi, Chen Gantang Study on the problem of micromixing: Influences of macromixing factors on chemical reaction processes. Chem. Reaction Eng. & Technologies 1993, 9(2):150-155. (in Chinese).
180. Li xi, Chen Gantang Study on the problem of micromixing: Influence of mixing on the processes of rapid parallel reactions. Chem. Reaction Eng. & Technologies 1993, 9(4):377-384. (in Chinese).
181. Ding Xuhuai, Tan You Industrial Crystallization 1985, 26-71. (in Chinese), The Chemical Industry Press of China, Beijing.
182. Wu Yuan Metastable region and crystal-growth rate of commercial trisodium phosphate. Chemical Engineering 1985, 13(4):41-47.
183. Wu Yuan Metastable region and crystal-growth rate of commercial trisodium phosphate. Chemical Engineering 1985, 13(4):26. (in Chinese).
184. Wu Yuan, Zhou Yuxin, Bao Chuanping Features of liquid-continuous impinging streams and their influences on kinetics. A paper to be published in the book series Studies in Surface Science and Catalysis 2006, Elsevier, Amsterdam.
185. Min Bennai Physical-Chemical Fundamentals of Crystal Growth 1982, (in Chinese), Shanghai Science & Technology Publisher, Shanghai.
186. Dai Zhicheng Production and Application of Silicon Compounds, The press of Chengdu University of Technology, Chengdu 1994, (in Chinese).
187. Wang Zhongyin Preparation of white carbon black. Inorganic Salt Industry 1994, (3):22. (in Chinese).
188. Zhang Zhikun, Cui Zuolin Nano technologies and nano materials 2000, (in Chinese), The National Defense Industry Press, Beijing.
189. Liu Zunren Preparation and application of ultrafine particles. Chem. Inds. & Eng. Progress 1998, (1):38-41. (in Chinese).
190. Zhang Lide Nano Materials 2000, (in Chinese), The Chemical Industry Press of China, Beijing.
191. Hirai H., Wakabayashi H., Komiyama M. Polymer-protected copper colloids as catalysis for selective hydration of acrylonitrile. Chemistry Letters 1983, 1047-1050.
192. Wang yanni, Zhang Zhikun, Cui Zuolin The catalysis of nano particles in the reaction of ethyne polymerization. Jour. of Catalysis 1995, 16(4):304-307. (in Chinese).
193. Wang yanni, Zhang Zhikun, Cui Zuolin Growth scheme of polymerized ethyne on the surface of nano copper particles. Functional Materials 1995, (supplement issue):501-502. (in Chinese).
194. Lu Qinghua A study on new type of electro-conductive rubbers. Functional Materials 1997, 28(5):546-549. (in Chinese).
195. Dou Lixin, Gong Hualin, Lü Zhenjian, Cui Zhanping, Liu Jianlin, Wang Bin An experimental study on the friction behaviors of soft metal particles in lubricant. Lubrication & Sealing 2002, (5):23-25. (in Chinese).
196. Xia Yanqiu, Yang Wentong, Ma xiangui, Ding Jinyuan, Jin Shouri, Li Zhijie, Sun Weimin, Yang He A study on the improvement of the wearresistant performance by nano copper powder. Lubrication & Seading 1998, 5:43-44. (in Chinese).
197. Xia Yanqiu, Jin Shouri, Sun Weimin, Li Zhijie The influence of nano metal powder on the wear and tear performance of the lubricating grease. Lubrication & Sealing 1999, (3):33-34.
198. Xu Jiansheng, Zhong Kangnian, Chang Yue, Xia Xianping, Shao Jianren, Shen haoJinhao A study on preparation and performance of the nano lubricants. Lubrication & Sealing 2002, (4):14-16. (in Chinese).
199. Chen Zhen Preparation of nano copper powder by impinging stream reaction-precipitation. ME thesis 2004, (in Chinese), Wuhan Institute of Chemical Technology, Wuhan, China.
200. Qi Xiwang Preparation of nano metallic copper powder and the inquiring into the mechanism of its formation. ME thesis 1991, (in Chinese), Tianjin University, Tianjin, China.
201. Liu Zhijie, Zhao Bin, Zhang Zongtao, Hu Liming Preparation of super micro copper powder with formaldehyde as the reducing agent. Chemistry 1996, (11):25-26. (in Chinese).
202. Liu Zhijie, Zhao Bin, Zhang Zongtao, Hu Liming Preparation of super micro copper powder with Ascorbic acid as the reducing agent and thermostability of the product. J. Eastern China University of Technology 1996, 22(5):548-553. (in Chinese).
203. Zhao Bin, Liu Zhijie, Cai Mengjun, Hu Liming A study on the preparation of ultrafine copper powder by hydrazine hydrate reducing and stability of the product. J. Eastern China University of Technology 1997, 23(3):372-376. (in Chinese).
204. Zhang Zhimei, Han Hongxi, Sun Miaoxin Preparation of nano copper powder. Fine Chemicals Industry 2000, 17(2):69-71. (in Chinese).
205. Zhang Hong, Bai Shuxin, Zhao Xun, Tao Fengxiang Preparation of nano copper powder by chemical reduction. Materials in Mechanical Engineering 1998, 22(3):33-34. (in Chinese).
206. Yuan Wei, Jin Xin Methods for preparation of nano copper powder 1997, Chinese Patent app. No 97100501.X.
207. Tan Fubin, Cai Yunzhuo, Zhao Ling, Huang Fuchun The chemical coating of copper powder by silver and performances of the product. Expensive Metals 2000, 21(3):8-11. (in Chinese).
208. Wu Xiuhua A study on the preparation and application of ultrafine copper-silver double metal powder. ME thesis 2002, (in Chinese), Eastern China University of Technology, Shanghai, China.
209. Liu Zhijie, Zhaobin Zhang, Zongtao, Liming Hu A study on the surface improvement of nano copper powder and its anti-oxidation nature. J. Eastern China University of Technology 1996, 22(3):270-275. (in Chinese).
210. Gao Baojiao, Gao Jianfeng, Jiang Hongmei, Zhongxing Zhang The coating structure on copper-silver double metal particles and its anti-oxidation nature. J. of Physical Chemistry 2000, 16(4):366-369. (in Chinese).
211. Tianjin Chemical Industry Institute Handbook of Inorganic Salt Industry 1987, 427-433. (in Chinese), The Chemical Industry Press of China, Beijing.
212. Cotton F.A., Wilkinson G. Advanced Inorganic Chemistry 1972, John Wiley & Sons, Inc., New York. 3rd ed.
213. Duan Minghua, Jiang Zhigang, Xie Bing The status of researches and developments on the ultrafine Titania. Vanadium and Titanium in Iron and Steel 1998, 19(2):47-58. (in Chinese).
214. Li Guochao Preparation of nano titanium dioxide by impinging stream reaction-precipitation. ME thesis 2003, (in Chinese), Wuhan Institute of Chemical Technology, Wuhan, China.
215. 2 particles by hydro-thermal process and the primary study on the reaction mechanism. Chinese Pottery & Porcelain Industry 2001, 8(2):29-33. (in Chinese).
216. Zhang Qinghong, Lian Gao, Guo Jingkun Prepaation of ultrafine titanium oxide powder by hydrolyzation of titanium chloride. J. of Inorganic Materials 2000, 15(1):21-25. (in Chinese).
217. 2 crystalline beard by hydrothermal crystallization. J. of Silicates 2001, 29(6):587-590. (in Chinese).
218. Wu Yuan, Zhou Yuxin Hydrothermal synthesis of hydroxyl phosphate. Inorganic Salts Industry 1991, (1):5-8. (in Chinese).
219. Prener J.S. The growth and crystallographic properties of calcium fluor- and chlorapatite crystals. J. Electrochem. Soc. Solid State Science 1967, 114(1):77-83.
220. Roy D.M., Eysel W., Dinger D. Hydrothermal Synthesis of various carbonate containing calcium hydroxyapatite. Mater. Res. Bull. 1974, (9):35-40.
221. Aoki H., Kato K., Shiba M. Synthesis of hydroxyapatite under hydrothermal conditions. J. Dent. Apparatus and Materials 1972, 13(27):170-176.
222. Legeros R.Z. Apatites in Biological Systems. Prog. Crystal Growth Charact. 1982, 4:1-34.
223. Aoki H. Science and Medical Applications of Hydroxyapatite 1991, 165-177. Akayama Press System Center Co., Tokyo.
224. Young R.A., Holcomb D.W. Variability of hydroxyapatite preparations. Calcif. Tissue Int. 1982, 34:17-32.
225. Fowler B.O. Hydrothermal synthesis of hydroxy apatite. Inorganic Chemistry 1974, 13(1):191-214.
226. Monma H., Ueno S., Kanazawa T. Properties of hydroxyapatite preparated by the hydrolysis of tricalcium phosphate. J. Chem. Tech. Biotechnol. 1981, 31:15-24.
227. Moreno E.C., Vanighese K. Crystal growth of calcium apatite from dilute solutions. J. Crystal Growth 1981, 53:20-30.
228. Xu Ye, Wang Dazhi, Lan Yang Hydrothermal conversion of coral into hydroxyapatite. Material Characteristics 2001, 47:83-87.
229. Vladimir S.K., Serquei M.D., Elena V.K. A method to fabricate porous spherical hydroxyapatite granules intended for time controlled drug release. Biomaterials 2002, 23:3449-3454.
230. Dean-Mo Liu, Troczynski T., Wenjea J., Tseng J. Water based solgel synthesis of hydroxyapatite process development. Biomaterials 2001, 22:1721-1730.
231. Vallet-Regf M., Gutierrez-Rios M.T., Aloso M.P. Hydroxyapatite particles synthesized by pyrolysis of an aerosol. J. Solid State Chem. 1994, 112:58-64.
232. Karch J., Birringer R., Gleiter H. Ceramics ductile at low temperature. Nature 1987, 330:516-518.
233. Yuan Jun, Wu Yuan, Zheng Qixin Synthesis of nano rods/whiskers of hydroxyapatite by precipitation in impinging streams. Proc. Chemistry & Chemical Industry Conf. 2005, 345-348. (in Chinese).
234. Chichagov A.V. Information-Calculating System on Crystal Structure Data of Minerals (MINCRYST) 1990, (No. 3):610-616. Kristallographiya (in Russ.).
235. Wu Yuan, Xu Jianmin, Zhou Yuxin, Wuhan Institute of Chemical Technology The vertical circulative impinging stream reactor. CNP, ZL03235518.1 2003.
236. Wu Yuan, Xu Jianmin, Zhou Yuxin, Wuhan Institute of Chemical Technology The vertical circulative impinging stream reactor of Type II. CNP app. No 200520094814.2 2005.
237. Mullin J.W. Industrial Crystallization 1976, 1-168. Plenum Press, New York.
238. Kasai T. Tsukishima crystallizer of DP type. Chemical Industry Supplemental Issue 1974, 18(2):58-65. 1974 (in Japanese).
239. Messing T. Br. Chem. Eng. 1969, 14:641-645. issue.
240. Wu Yuan, Wuhan Institute of Chemical Technology The impinging stream crystallizer. CNP ZL03235520.3 2003.
241. Kitron Y., Tamir A. Characterization and scale-up of coaxial impinging streams gas-solid contactors. Drying Technology 1990, 8:781-810.