水体中芳香类有机化合物吸附材料的研究进展

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Abstract With the development of industry, the use of various organic compounds is more and more extensive, and the types of organic compounds are manifold. The large-scale use of organic compounds, especially aromatic compounds, bring much convenience to people, but at the same time, cause damage to the human body, which can lead to endocrine system diseases, nervous system diseases, and even cause visceral failure and cancer. Once the treatment is incomplete, aromatic compounds can enter the natural water with industrial wastewater, domestic wastewater and medical wastewater. Because they are difficult to degrade naturally in the natural environment, and they can accumulate conti-nuously in water, so the follow-up treatment of aromatic compounds is a problem we must face. At present, the main methods to treat organic pollutants in water include adsorption, catalytic degradation, precipitation, microbial treatment and so on. Because of the advantages of simple operation and low cost, adsorption method is one of the most widely used methods. The core of adsorption treatment is the selection of adsorption materials. Adsorption materials developed from the earliest activated carbon, zeolite, bentonite, bamboo fiber and other natural materials to the present graphene, carbon nanotubes, adsorption resin and other high-performance modified materials. Activated carbon, zeolite, bamboo fiber and other materials have a large specific surface area and rich channel structure, but due to the lack of selectivity in complex environment, they cannot absorb specific substances, and easy to achieve adsorption saturation. In addition, channels that the early materials had are often closed, which lead to the poor regeneration performance. Early materials often can only be used as disposable materials. Although the early materials have some shortcomings, but because of the low cost, they are still in large-scale use now. New graphene, carbon nanotubes and other materials further expand the advantages of traditional materials, which tend to have larger specific surface area, more abundant pores, and stronger adsorption force and so on, and make certain improvements on this basis, especially obvious improvement in regeneration performance. The new generation of adsorption materials can often be reused for more than 10 times, and some of the modification focusing on regenerative properties can even make the materials used for more than 50 times. However, the cost of synthesis and application of new generation materials is often very high, and although the selectivity has been improved to some extent, the problem of occupied adsorption sites has not been well solved in complex environments. In this paper, from the perspective of material type, the application and research progress of traditional adsorption materials, carbon materials, membrane materials and macro porous resin materials are presented respectively, in order to provide references for the development and preparation of new adsorption materials.

Key words： adsorption materials organic pollution active carbon graphene macro porous resin

Published: 01 July 2020

CLC number:

X703

Fund:This work was financially supported by National Natural Science Foundation of China(51678409).

About author:: Junfu Wei received his B.S. degree in organic chemistry from Nankai University in 1985 and received his Ph.D degree in polymeric chemistry and physics from Nankai University in 2005. He is currently working at Tianjin Polytechnic University. His research interests are surface structure design of functional material, modification of separation membranes, and fast detective & ; remove of hazardous substance

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	WEI Junfu
	ZHANG Tianye
	XIN Zhuohan
	WANG Zhihang
	ZHANG Li

Cite this article:

WEI Junfu,ZHANG Tianye,XIN Zhuohan, et al. Research Progress of the Aromatic Organic CompoundAdsorption Materials in Water[J]. Materials Reports, 2020, 34(Z1): 527-530.

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http://www.mater-rep.com/EN/ OR http://www.mater-rep.com/EN/Y2020/V34/IZ1/527

1 Bi H, Xie X, Yin K, et al. Advanced Functional Materials,2012,22(21),4421.
2 Chen Y, Chen L, Bai H, et al. Journal of Materials Chemistry A,2013,1(6),1992.
3 Gao Y, Li Y, Zhang L, et al.Journal of Colloid and Interface Science,2012,368(1),540.
4 Huang D, Xu B, Wu J, et al. Chemical Engineering Journal,2019,368,390.
5 Li S, Zhang X, Huang Y. Journal of Hazardous Materials,2017,321,711.
6 Seo P W, Khan N A, Jhung S H. Chemical Engineering Journal,2017,315,92.
7 Ahmed M B, Zhou J L, Ngo H H, et al. Science of The Total Environment,2015,532,112.
8 Bhatnagar A, Anastopoulos I. Chemosphere,2017,168,885.
9 郝瑞刚.化学工程与装备,2019(9),281.
10 王金渠,杨建华,李华征,等.膜科学与技术,2014,34(3),1.
11 YIldIz N, Gönülşen R, Koyuncu H, et al. Colloids and Surfaces A: Physicochemical and Engineering Aspects,2005,260(1-3),87.
12 陈桂娟,林坦,梅国威,等.安徽职业技术学院学报,2019,18(3),19.
13 李婷,孟昭福,张斌.环境科学,2012,33(5),1632.
14 陈仕稳,聂锦旭,吴光锋等.非金属矿,2014,33(6),78.
15 Lemić J, Kovačević D, Tomašević-anović M, et al. Water Research,2006,40(5),1079.
16 Gupta S, Tai N. Journal of Material Chemistry A,2016,4,1550.
17 Wang Y, Rao G Y, Hu J Y. Water Science and Technology: Water Supply,2011,11(6),711.
18 Shane A. Snyder S A A M. Desalination,2005,202(2007),156.
19 郭栋生,李艳霞,赵艳红,等.给水排水,2007,33(1),30.
20 Darder M, Aranda P, Ruiz-García C, et al. Advanced Functional Mate-rials,2018,28(27),1704323.
21 Heo J, Lee H, Han J, et al. Journal of Korean Society of Water and Wastewater,2014,28(4),419.
22 Wang Y, Fu W, Shen Y, et al. Langmuir,2018,34(44),13210.
23 Sotelo J L, Rodríguez A R, Mateos M M, et al. Journal of Environmental Science and Health, Part B,2012,47(7),640.
24 Abraham J, Vasu K S, Williams C D, et al. Nature Nanotechnology,2017,12(6),546.
25 An Y, Qu W, Yu P, et al. Petroleum Science,2018,15(2),366.
26 Chen C, Zhu X, Chen B. Chemical Engineering Journal,2018,354,896.
27 Chen L, Li N, Wen Z, et al. Chemical Engineering Journal,2018,347,12.
28 赵超峰,金佳人,霍英忠,等.无机材料学报,DOI:10.15541/jim20190377.
29 Tian J, Wei J, Zhang H, et al. Chemical Engineering Journal,2019,359,852.
30 Chon K, Kyongshon H, Cho J. Bioresource Technology,2012,122,181.
31 Huang Z H, Liu Z L, Zhu L J, et al. Advanced Materials Research,2013,726-731,2502.
32 Huang Z, Li M, Li N, et al. Journal of Nanoscience and Nanotechnology,2018,18(7),4524.
33 Yoon Y, Westerhoff P, Snyder S A, et al. Journal of Membrane Science,2006,270(1-2),88.
34 Comerton A M, Andrews R C, Bagley D M, et al. Journal of Membrane Science,2007,303(1-2),267.
35 Comerton A M, Andrews R C, Bagley D M, et al. Journal of Membrane Science,2008,313(1-2),323.
36 程爱华,王磊,王旭东,等.膜科学与技术,2008,28(5),90.
37 胡建国,朱根华,严志宏,等.现代盐化工,2016,43(3),36.
38 Jiang Z M, Li A M, Cai J G, et al. Journal of Environmental Science,2006,19(2007),135.
39 Lu Z, Jiang B, Li A. Chemical Engineering Journal,2012,193-194,139.
40 Zhang W M, Chen J L, Li A M. Chinese Journal of Polymer Science,2006,24(1),61.
41 Meng G H, Li A M, Yang W B. Chinese Journal of Polymer Science,2006,24(6),585.
42 王学江,张全兴,赵建夫,等.环境污染治理技术与设备,2005,6(1),62.