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Frontiers of Environmental Science & Engineering

ISSN 2095-2201

ISSN 2095-221X(Online)

CN 10-1013/X

Postal Subscription Code 80-973

2018 Impact Factor: 3.883

Front Envir Sci Eng    2013, Vol. 7 Issue (6) : 860-866    https://doi.org/10.1007/s11783-012-0462-3
RESEARCH ARTICLE
Genotoxicity evaluation of surface waters located in urban area of Xi’an City using Vicia faba bioassays
Yongjun LIU(), Aining ZHANG, Xiaoyan MA, Xiaochang WANG
Key Laboratory of Northwest Water Resource, Ecology and Environment (Ministry of Education), Xi’an University of Architecture and Technology, Xi’an 710055, China
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Abstract

In this study, micronucleus (MCN) and chromosome aberration (CA) tests in Vicia faba root tip cells were carried out in order to assess the water quality and the comprehensive genotoxic potential of surface waters located in the urban area of Xi’an City, China. For these evaluations, water samples from different surface waters (four rivers, two lakes, two biological treatment plant effluents) were collected, the ultra-pure water and methyl methanesulfonate solution was used as the negative and positive control, respectively. In our results, highly significant differences in MCN permillage (average number of micronuclei per 1000 cells), CA frequencies and PI (pollution index) values were found among three rivers and two WWTP effluents, the tested samples from two rivers caused the decrease of mitotic index over 22% compared with the negative control. No significant changes were observed in micronuclei and chromosome aberrations frequencies at one river and two lakes during the period of test (wet season). These results point out a poor state of the water quality and genotoxic activity of the main surface waters in Xi’an City. It is recommended to establish a monitoring program for the presence of genotoxic agents in these surface waters.

Keywords genotoxicity      surface water      evaluation      Vicia faba     
Corresponding Author(s): LIU Yongjun,Email:liuyongjun@xauat.edu.cn   
Issue Date: 01 December 2013
 Cite this article:   
Yongjun LIU,Aining ZHANG,Xiaoyan MA, et al. Genotoxicity evaluation of surface waters located in urban area of Xi’an City using Vicia faba bioassays[J]. Front Envir Sci Eng, 2013, 7(6): 860-866.
 URL:  
https://academic.hep.com.cn/fese/EN/10.1007/s11783-012-0462-3
https://academic.hep.com.cn/fese/EN/Y2013/V7/I6/860
sampling site12345678
turbidity/NTU3.1±1.20.8±0.440.6±11.396.3±21.2180.3±25.6130.5±18.911.7±2.810.9±2.4
pH7.4±0.27.5±0.47.5±0.58.1±0.27.9±0.37.1±0.46.7±0.67.3±0.5
DO/(mg·L-1)2.2±1.12.3±0.60.8±0.51.6±0.60.4±0.22.1±0.33.5±0.64.6±0.8
TP /(mg·L-1)0.16±0.030.13±0.020.39±0.120.25±0.140.96±0.210.12±0.060.09±0.030.08±0.03
TN /(mg·L-1)4.36±1.656.62±3.237.10±4.215.87±3.2529.16±16.922.76±1.322.64±1.583.56±1.67
COD/(mg·L-1)27.94±13.3413.99±9.3615.01±4.538.72±3.65117.57±27.3253.80±13.8714.11±5.6822.17±4.83
Tab.1  Water quality of the different water bodies (M±SD)
Fig.1  Map of surface water bodies located in Xi’an City with sampling sites
Fig.2  Normal and abnormal chromosome morphology at mitosis of root tip cells. (a)-(e) normal chromosome morphology. (a) interphase; (b) prophase; (c) metaphase; (d) anaphase; (e) telophase. (f)-(j) abnormal chromosome morphology. (f) single micronucleus; (g) bi-micronuclei; (h) multi- micronuclei; (i) chromosome single bridge; (j) fragment of chromosome
sampling site MCN ‰ and PICA ‰ and PI
MCN ‰ (M±SD)PICA ‰PI
119.65±3.62*2.5623.42±4.16**3.11
2 22.25±2.36**2.9027.43±3.18**3.65
3 37.24±5.15**4.8629.16±5.27**3.88
411.12±1.421.4510.18±2.671.35
5 41.35±10.16**5.3934.53±9.64**4.59
615.41±3.19*2.0113.84±2.52*1.84
7 10.23±2.361.3311.46±3.631.52
8 9.46±2.131.238.52±3.291.13
negative control7.67±1.125.697.52±1.434.02
positive control43.67±9.23**30.26±7.26**
Tab.2  Results of MCN, CA and PI value in meristematic cells of after treatment with different water samples
Fig.3  Scatter plot and regression analysis results of MCN frequencies and CA frequencies in root tips exposed to different surface water samples
sampling site MI % (M±SD)decreased rate/%
118.83±2.4213.67
2 18.41±3.1215.64
3 16.94±2.6722.36*
4 19.95±1.838.56
5 16.27±3.2625.41*
619.68±2.139.81
7 20.21±3.207.36
8 20.68±2.465.23
negative control21.82±3.24
positive control16.49±2.2124.43*
Tab.3  Effects on the mitotic index in root tips exposure to different water samples
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