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Progress in Chemistry 2008, Vol. 20 Issue (0708): 1187-1195 Previous Articles   Next Articles

• Review •

Treatment of Organic Pollutants in Water by Ultrasound

Li Mei1,2 Li Jitai1** Sun Hanwen1   

  1. (1.College of Chemistry and Environmental Science, Hebei University, Key Laboratory of Analytical Science and Technology of Hebei Province, Baoding 071002, China
    2. College of Chemistry and Material Science, Hebei Normal University, ShiJiazhuang, 050016, China)
  • Received: Revised: Online: Published:
  • Contact: Li Jitai
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In recent years, increasing attention has been focused on the application of ultrasound for the destruction of organic contaminations in water. Compared with conventional treatment methods, the ultrasonic treatment increases the degradation efficiency and reduces the time required for removing the organic contaminations. Ultrasonic technology has been proven to be effective for the degradation of the most refractory organic pollutants. The principle and the major influencing factors on degradation efficiency and methods (including ultrasound irradiation individually and ultrasonic waves in conjunction with other techniques such as bio-catalyst, chemical oxidation, and adsorption) of ultrasonic degradation are described in this paper. Progress in treatment of organic pollutants in water by using ultrasound technology is reviewed. Moreover, existing problems and future study directions are discussed.
Key words: ultrasound, cavitations, organic pollutants, degradation

CLC Number: 

[ 1 ] David B , Lhote M, Faure V , et al . Wat . Res. , 1998 , 32 (8) :2451 —2461
[ 2 ] Ayyildiz O , Anderson P R , Peters R W. Journal of Hazardous Materials , 2005 , B120 : 149 —156
[ 3 ] Peters D. Ultrason. Sonochem. , 2001 , 8 : 221 —226
[ 4 ] Ku Y, Tu Y H , Ma C M. Wat . Res. , 2005 , 39 : 1093 —1098
[ 5 ] Mason T J . Practical Sonochemistry. New York : Ellis Horwood ,1991. 17 —21
[ 6 ] Rae J , Ashokkumar M, Eulaerts O , et al . Ultrason. Sonochem. ,2005 , 12 : 325 —329
[ 7 ] Hoffmann M R , Hua I , Hêchemer R. Ultrason. Sonochem. ,1996 , 3 : S163 —S172
[ 8 ] 张卫华(Zhang W H) , 全燮(Quan X) , 陈硕(Cheng S) , 张卓勇(Zhang Z Y) . 化学通报(Chemistry) , 2005 , 68(1) : 1 —8
[ 9 ] Drijvers D , Baets R D , Visscher A D , et al . Ultrason.Sonochem. , 1996 , 3 : S83 —S90
[10] Selli E , Bianchi C L , Pirola C , et al . Ultrason. Sonochem. ,2005 , 12 : 395 —400
[11] Rehorek A , Hoffmann P , Kandelbauer A , et al . Chemosphere ,2007 , 67 : 1526 —1532
[12] 宋勇( Song Y) , 戴友芝(Dai Y Z) . 工业安全与环保( Industrial Safety and Environmental Protection) , 2005 , 31 (7) :1 —3
[13] 马军(Ma J ) , 赵雷( Zhao L) . 黑龙江大学自然科学学报(Journal of Natural Science of Heilongjiang University) , 2005 , 22(2) : 141 —147
[14] 肖小明(Xiao X M) , 李洪青(Li H Q) , 邹华生(Zou H S) . 环境科学与技术(Environmental Science and Technology) , 2003 ,26 (增刊) : 84 —86
[15] 谢家声(Xie J S) , 肖士民(Xiao S M) , 曹人平(Cao R P) . 四川环境(Sichuan Environment) , 2005 , 24 (2) : 35 —38
[16] Entezari M H , Kruus P , Otson R. Ultrason. Sonochem. , 1997 ,4 : 49 —54
[17] Guo Z B , Zheng Z , Zheng S R , et al . Ultrason. Sonochem. ,2005 , 12 : 461 —465
[18] Sivakumar M, Pandit A B. Ultrason. Sonochem. , 2001 , 8 :233 —240
[19] Nagata Y, Nakagawa M, Okuno H , et al . Ultrason. Sonochem. ,2000 , 7 : 115 —120
[20] Kojima Y, Fujita T , Ona E P , et al . Ultrason. Sonochem. ,2005 , 12 : 359 —365
[21] Okitsu K, Iwasaki K, Yobiko Y, et al . Ultrason. Sonochem. ,2005 , 12 : 255 —262
[22] Wang J , Guo B D , Zhang X D , et al . Ultrason. Sonochem. ,2005 , 12 : 331 —337
[23] Zheng W X, Maurin M, Tarr MA. Ultrason. Sonochem. , 2005 ,12 : 313 —317
[24] Minero C , Pellizzari P , Maurino V , et al . Applied Catalysis B :Environmental , 2007 , 77 : 308 —316
[25] Shimizu N , Ogino C , Dadjour M F , Murata T. Ultrason.Sonochem. , 2007 , 14 : 184 —190
[26] Okuno H , Yim B , Mizukoshi Y, et al . Ultrason. Sonochem. ,2000 , 7 : 261 —264
[27] Shemer H , Narkis N. Ultrason. Sonochem. , 2005 , 12 :495 —499
[28] 沈壮志(Shen Z Z) , 程建政(Cheng J Z) , 吴胜举(Wu S J ) .化学学报(Acta Chimica Sinica) , 2003 , 61(12) : 2016 —2019
[29] 赵德明(Zhao D M) , 史惠祥(Shi H X) , 雷乐成(Lei L C) , 汪大　(Wang D H) . 浙江大学学报( 工学版) (Journal of Zhejiang University) (Engineering Science) , 2004 , 1 : 114 —120
[30] Zhang H , Duan L J , Zhang D B. Journal of Hazardous Materials ,2006 , B138 : 53 —59
[31] Kubo M, Matsuoka K, Takahashi A , et al . Ultrason.Sonochem. , 2005 , 12 : 263 —269
[32] Lin J G, Chang C N , Wu J R. Wat . Sci . Tech. , 1996 , 33(6) :75 —81
[33] Lin J G, Chang C N , Wu J R , et al . Wat . Sci . Tech. , 1996 ,34 (9) : 41 —48
[34] Chemat F , Teunissen P G M, Chemat S , et al . Ultrason.Sonochem. , 2001 , 8 : 247 —250
[35] Neppolian B , Jung H , Choi H , Lee J H , Kang J W. Wat . Res. ,2002 , 36 : 4699 —4708
[36] Visscher A D , Langenhove H V. Ultrason. Sonochem. , 1998 , 5 :87 —92
[37] Adewuyi Y G. Environ. Sci . Technol . , 2005 , 39 : 3409 —3420
[38] Adewuyi Y G. Environ. Sci . Technol . , 2005 , 39 : 8557 —8570
[39] Blume T , Neis U. Ultrason. Sonochem. , 2004 , 11 : 333 —336
[40] Sangave P C , Pandit A B. Ultrason. Sonochem. , 2004 , 11 :197 —203
[41] Hirano K, Nitta H , Sawadw K. Ultrason. Sonochem. , 2005 , 12 :271 —276
[42] Entezari M H , Pétrier C. Ultrason. Sonochem. , 2005 , 12 :283 —288
[43] Entezari M H , Mostafai M, Sarafraz-Yazdi A. Ultrason.Sonochem. , 2006 , 13 : 37 —41
[44] Bernardo E C , Fukuta T , Fujita T , Ona E P. Ultrason.Sonochem. , 2006 , 13 : 13 —18
[45] Iida Y, Kozuka T , Tuziut T , et al . Ultrasonics , 2004 , 42 :635 —639
[46] 王三反( Wang S F ) . 中国给排水( China Water and Wastewater) , 1998 , 14 (2) : 24 —26
[47] Breitbach M, Bathen D. Ultrason. Sonochem. , 2001 , 8 :277 —283
[48] Ge J T , Qu J H. Applied Catalysis B : Environmental , 2004 , 47 :133 —140
[49] Dai Y Z , Li F F , Ge F , et al . Journal of Hazardous Materials ,2006 , B137 : 1424 —1429
[50] Li J T , Li M, Li J H , et al . Ultrason. Sonochem. , 2007 , 14 :62 —66
[51] Li J T , Li M, Li J H , et al . Ultrason. Sonochem. , 2007 , 14 :241 —245
[52] Rehorek A , Tauber M, Gübitz G. Ultrason. Sonochem. , 2004 ,11 : 177 —182
[53] Mrowetz M, Pirola C , Selli E. Ultrason. Sonochem. , 2003 , 10 :247 —254
[54] Guyer T G, Ince N H. Ultrasonics , 2004 , 42 : 603 —609
[55] 葛建团(Ge J T) , 曲久辉(Qu J H) , 徐敏(Xu M) . 环境科学(Environmental Science) , 2004 , 25(4) : 90 —93
[56] Guyer G T , Ince N H. Ultrason. Sonochem. , 2003 , 10 :235 —240
[57] Ince N H , Güyer G T. Ultrasonics , 2004 , 42 : 591 —596
[58] Velegraki T , Poulis I , Charalabaki M, et al . Applied Catalysis B :Environmental , 2006 , 62 : 159 —168
[59] He Z Q , Song S , Xia M, et al . Chemosphere , 2007 , 69 :191 —199
[60] Berberidou C , Poulios I , Xekoukoulotakis N P , et al . Applied Catalysis B : Environmental , 2007 , 74 : 63 —72
[61] Hao H W, Chen Y F , Wu M S , et al . Ultrason. Sonochem. ,2004 , 11 : 43 —46
[62] Kidak R , Ince N H. Journal of Hazardous Materials , 2007 , 146 :630 —635
[63] Pandit A B , Gogate P R , Mujumder S. Ultrason. Sonochem. ,2001 , 8 : 227 —231
[64] Tauber A , Schuchmann H P , Sonntag C V. Ultrason.Sonochem. , 2000 , 7 : 45 —52
[65] Entezari M H , Pétrier C , Devidal P. Ultrason. Sonochem. ,2003 , 10 : 103 —108
[66] Torres R A , Abdelmalek F , Combet E , et al . Journal of Hazardous Materials , 2007 , 146 : 546 —551
[67] Liang J , Komarov S , Hayashi N , Kasai E. Ultrason. Sonochem. ,2007 , 14 : 201 —207
[68] Taghizadeh M T , Mehrdad A. Ultrason. Sonochem. , 2003 , 10 :309 —313
[69] Li Y T , Li J , Guo S Y, et al . Ultrason. Sonochem. , 2005 , 12 :183 —189
[70] Taylor E Jr , Cook B B , Tarr M A. Ultrason. Sonochem. , 1999 ,6 : 175 —183
[71] Wheat P E , Tumeo M A. Ultrason. Sonochem. , 1997 , 4 :55 —59
[72] Psillakis E , Goula G, Kalogerakis N , et al . Journal of Hazardous Materials , 2004 , B108 : 95 —102
[73] 傅敏(Fu M) , 丁培道(Ding P D) , 蒋永生(Jiang Y S) , 高宇(Gao Y) . 重庆环境科学(Chongqing Environmental Sciences) ,2003 , 25(12) : 27 —29
[74] 孙红杰( Sun H J ) , 张志群( Zhang Z Q) . 中国环境科学(China Environmental Science) , 2002 , 22(3) : 210 —213
[75] Bianchi C L , Pirola C , Ragaini V , et al . Applied Catalysis B :Environmental , 2006 , 64 : 131 —138
[76] Wang J , Ma T , Zhang Z H , et al . Journal of Hazardous Materials , 2006 , B137 : 972 —980
[77] Hartmann J , Bartels P , Mau U , et al . Chemosphere , 2008 , 70(3) : 453 —461
[78] Nakui H , Okitsu K, Maeda Y, et al . Journal of Hazardous Materials , 2007 , 146 : 636 —639
[79] Song W H , O'Shea K E. Wat . Res. , 2007 , 41 : 2672 —2678
[80] Katsumata H , Kaneco S , Suzuki T , et al . Chemosphere , 2007 ,69 : 1261 —1266
[81] Song S , Xia M, He Z Q , et al . Journal of Hazardous Materials ,2007 , 144 : 532 —537
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