Phthalic Acid Esters Degradation by Rhizosphere Microorganisms of Herbaceous Plants in Surface Water Environment

doi:10.11924/j.issn.1000-6850.casb2021-0167

Abstract

Abstract:

Phthalic acid esters (PAEs) are typical endocrine disrupting compounds commonly detected in surface water environment. Microbial degradation is considered to be the best way to remove PAEs from the environment, and rhizosphere microorganisms are the ‘main force’ of PAEs degradation. In this study, we discussed the pollution status of PAEs in surface water environment, PAEs biodegradation pathway and rhizosphere degradation characteristics and mechanism of typical herbaceous plants, in order to provide a theoretical basis for the purification of PAEs pollution in surface water environment by herbaceous plants in constructed wetlands.

Key words: phthalic acid esters (PAEs), herbaceous plant, rhizosphere microorganism, biodegradation

CLC Number:

S859.84

LIU Shujuan, ZHANG Cuiping, LI Shuying, YANG Xiaoyan, ZHOU Yuanqing, LI Yuan. Phthalic Acid Esters Degradation by Rhizosphere Microorganisms of Herbaceous Plants in Surface Water Environment[J]. Chinese Agricultural Science Bulletin, 2022, 38(3): 44-51.

Figures/Tables 4

References 65

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国家/地区	地区/介质	DMP	DEP	DBP	BBP	DEHP	DnOP	文献
美国	White River	—	—	0.14~4.14	0.04~0.35	—	—	[16]
美国	Eleven Point River	—	—	0.16~1.36	0.07~0.14	—	—	[16]
加拿大	False Creek Harbor	0.0035	—	—	0.0035	0.275	—	[17]
法国	马恩河	0.030~0.050	0.025~0.092	0.140~0.220	0.023~0.035	0.307~0.708	nd	[18]
乌干达	维多利亚湖	0.0068~0.4	0.038~1.1	0.35~16	—	0.21~23	—	[19]
德国	地表水	nd~0.0086	0.0085~0.022	0.12~8.8	0.33~97.8	0.488~97.8	—	[20]
俄罗斯	莫斯科河	—	—	0.006~0.018	—	0.001~0.013	—	[21]
尼日利亚	奥贡河	nd	1480~1755	2080~2705	—	255~480	—	[22]
南非	伊丽莎白港	0.03~350.8	0.03~398.3	1~1028	—	2.1~2306	—	[23]
马来西亚	雪兰莪河	0.002~0.028	0.006~0.113	0.028~0.306	0.002~0.021	0.051~0.507	0.0002~0.014	[24]
松花江流域	松花江	0065~0.208	0.140~0.334	0.190~4.762	—	0.364~2.682	nd~0.621	[25]
辽河流域	辽河	—	nd~1.75	1.43~16.6	nd~6.55	nd~37.3	—	[26]
海河流域	海河水体	—	—	0.35~40.68	—	3.54~101.1	—	[13]
海河流域	海河沉积物/(ng/g)	nd~1.82	0.18~4.70	9.01~229.77	nd~13.30	23.42~1146.05	0.12~16.10	[27]
黄河流域	黄河	nd~0.58	0.01~10.9	—	nd~26.0	0.35~31.8	—	[28]
淮河流域	淮河	0.02~0.19	0.02~0.92	2.17~21.98	0.02~2.16	0.08~1.52	—	[26]
长江流域	长江水体	nd~0.1	nd	nd~35.65	—	3.9~54.73	0.07~3.2	[14]
长江流域	长江南支沉积物/(μg/g)	0.14~0.41	0~0.18	18.9~44.6	0.2~0.4	840.5~1369.4	0.5~1.1	[29]、[30]
珠江流域	珠江三角洲	0~12.1	0~0.95	0~4.30	0~5.32	0.15~8.84	—	[31]
合肥	巢湖	0.123~1.106	0.133~0.157	0.924~5.43	0.066~0.076	0.162~0.231	0.032~0.04	[13]
江苏	太湖	nd~1.32	0.08~4.79	nd~2.54	0.08~4.72	nd~1.41	0.07~0.59	[32]
南昌	鄱阳湖	nd~0.253	nd~0.127	0.121~1.297	nd	0.023~0.896	nd~0.018	[26]
哈尔滨	磨盘山水库	nd~0.042	nd~0.055	0.053~4.498	nd	0.129~6.6	nd~0.448	[13]

国家/地区	地区/介质	DMP	DEP	DBP	BBP	DEHP	DnOP	文献
美国	White River	—	—	0.14~4.14	0.04~0.35	—	—	[16]
美国	Eleven Point River	—	—	0.16~1.36	0.07~0.14	—	—	[16]
加拿大	False Creek Harbor	0.0035	—	—	0.0035	0.275	—	[17]
法国	马恩河	0.030~0.050	0.025~0.092	0.140~0.220	0.023~0.035	0.307~0.708	nd	[18]
乌干达	维多利亚湖	0.0068~0.4	0.038~1.1	0.35~16	—	0.21~23	—	[19]
德国	地表水	nd~0.0086	0.0085~0.022	0.12~8.8	0.33~97.8	0.488~97.8	—	[20]
俄罗斯	莫斯科河	—	—	0.006~0.018	—	0.001~0.013	—	[21]
尼日利亚	奥贡河	nd	1480~1755	2080~2705	—	255~480	—	[22]
南非	伊丽莎白港	0.03~350.8	0.03~398.3	1~1028	—	2.1~2306	—	[23]
马来西亚	雪兰莪河	0.002~0.028	0.006~0.113	0.028~0.306	0.002~0.021	0.051~0.507	0.0002~0.014	[24]
松花江流域	松花江	0065~0.208	0.140~0.334	0.190~4.762	—	0.364~2.682	nd~0.621	[25]
辽河流域	辽河	—	nd~1.75	1.43~16.6	nd~6.55	nd~37.3	—	[26]
海河流域	海河水体	—	—	0.35~40.68	—	3.54~101.1	—	[13]
海河流域	海河沉积物/(ng/g)	nd~1.82	0.18~4.70	9.01~229.77	nd~13.30	23.42~1146.05	0.12~16.10	[27]
黄河流域	黄河	nd~0.58	0.01~10.9	—	nd~26.0	0.35~31.8	—	[28]
淮河流域	淮河	0.02~0.19	0.02~0.92	2.17~21.98	0.02~2.16	0.08~1.52	—	[26]
长江流域	长江水体	nd~0.1	nd	nd~35.65	—	3.9~54.73	0.07~3.2	[14]
长江流域	长江南支沉积物/(μg/g)	0.14~0.41	0~0.18	18.9~44.6	0.2~0.4	840.5~1369.4	0.5~1.1	[29]、[30]
珠江流域	珠江三角洲	0~12.1	0~0.95	0~4.30	0~5.32	0.15~8.84	—	[31]
合肥	巢湖	0.123~1.106	0.133~0.157	0.924~5.43	0.066~0.076	0.162~0.231	0.032~0.04	[13]
江苏	太湖	nd~1.32	0.08~4.79	nd~2.54	0.08~4.72	nd~1.41	0.07~0.59	[32]
南昌	鄱阳湖	nd~0.253	nd~0.127	0.121~1.297	nd	0.023~0.896	nd~0.018	[26]
哈尔滨	磨盘山水库	nd~0.042	nd~0.055	0.053~4.498	nd	0.129~6.6	nd~0.448	[13]

植物名称	PAEs物质	降解效率	文献
芦苇	DOP、DEHP	88%、92%	[63]
芦苇-香蒲	DBP、DEHP、MBP、MEHP	44.91%~68.25%	[64]
水葱-黄菖蒲-再力花-千屈菜	DEHP、DBP、DMP、DEP、BBP、DOP	28.65%~47.1%	[64]
菹草	DBP、DEHP	68.52%、84.74%	[65]
甜菜-苜蓿	DEP、DBP、BBP、DEHP	66.48%	[37]
黑藻	DBP、DEHP	10.4%、27%	[64]
角毛藻-杜氏盐藻-新月鞘藻	DBP、DEP	90%	[63-64]
球形棕囊藻	DBP	100%	[63-64]
紫花苜蓿	DnBP	90%	[37]

植物名称	PAEs物质	降解效率	文献
芦苇	DOP、DEHP	88%、92%	[63]
芦苇-香蒲	DBP、DEHP、MBP、MEHP	44.91%~68.25%	[64]
水葱-黄菖蒲-再力花-千屈菜	DEHP、DBP、DMP、DEP、BBP、DOP	28.65%~47.1%	[64]
菹草	DBP、DEHP	68.52%、84.74%	[65]
甜菜-苜蓿	DEP、DBP、BBP、DEHP	66.48%	[37]
黑藻	DBP、DEHP	10.4%、27%	[64]
角毛藻-杜氏盐藻-新月鞘藻	DBP、DEP	90%	[63-64]
球形棕囊藻	DBP	100%	[63-64]
紫花苜蓿	DnBP	90%	[37]