Chemical Industry and Engineering Progress ›› 2021, Vol. 40 ›› Issue (5): 2827-2838.DOI: 10.16085/j.issn.1000-6613.2020-1099
• Resources and environmental engineering • Previous Articles Next Articles
LI Songjing1,2(), FAN Xiangyang1,3,4(), CUI Erping1,3,4, HU Chao1,3,4, CUI Bingjian1,3,4, LIU Yuan1,3,4, LI Zhongyang1,3,4, JING Ruoyao1,2, LI Shengshu1,2
Received:
2020-06-15
Online:
2021-05-24
Published:
2021-05-06
Contact:
FAN Xiangyang
李松旌1,2(), 樊向阳1,3,4(), 崔二苹1,3,4, 胡超1,3,4, 崔丙健1,3,4, 刘源1,3,4, 李中阳1,3,4, 景若瑶1,2, 李胜曙1,2
通讯作者:
樊向阳
作者简介:
李松旌(1996—),男,硕士研究生,研究方向为农业水资源安全高效利用。E-mail:基金资助:
CLC Number:
LI Songjing, FAN Xiangyang, CUI Erping, HU Chao, CUI Bingjian, LIU Yuan, LI Zhongyang, JING Ruoyao, LI Shengshu. Advances in behavioral characteristics and environmental risks of PPCPs in soil-crop systems[J]. Chemical Industry and Engineering Progress, 2021, 40(5): 2827-2838.
李松旌, 樊向阳, 崔二苹, 胡超, 崔丙健, 刘源, 李中阳, 景若瑶, 李胜曙. PPCPs在土壤-作物系统行为特征及环境风险的研究进展[J]. 化工进展, 2021, 40(5): 2827-2838.
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PPCPs | 进水浓度(均值/最大值)/μg·L-1 | 出水浓度(均值/最大值)/μg·L-1 | 国家,地区 | 年份/年 | 参考文献 |
---|---|---|---|---|---|
咖啡因 | 12.005/16.783 | 0.023/0.026 | 中国,北京 | 2010 | [ |
0.973/— | 0.046/— | 中国,湖南 | 2014 | [ | |
2.349/3.217 | 0.18/0.6 | 韩国,蔚山 | 2010 | [ | |
57.4/— | 33.7/— | 挪威 | 2002 | [ | |
80/— | 0.017/— | 美国,北卡罗来纳州 | 2008 | [ | |
布洛芬 | 1.38/— | 0.18/— | 中国,上海 | 2010—2011 | [ |
0.75/1.089 | 0.05/0.179 | 日本,东京 | 2001—2003 | [ | |
2.265/2.853 | 0.04/0.075 | 韩国,蔚山 | 2010 | [ | |
14.6/83.5 | 1.96/ 24.6 | 法国 | 1997—2007 | [ | |
1.681/2.986 | 0.263/0.424 | 英国,塔夫河 | 2007 | [ | |
8.45/16.5 | 0.384/0.773 | 加拿大,泰晤士河沿岸 | 2002 | [ | |
三氯生 | —/0.774 | —/0.182 | 中国,上海 | 2009 | [ |
0.547/0.785 | 0.112/0.149 | 韩国,蔚山 | 2010 | [ | |
0.51/1.024 | 0.026/0.331 | 日本,东京 | 2001—2003 | [ | |
0.38/— | 0.15/0.43 | 法国 | 1997—2007 | [ | |
5.58/17.1 | 0.452/1.189 | 加拿大,泰晤士河沿岸 | 2002 | [ | |
萘普生 | 0.012/0.032 | 0.011/0.02 | 中国,北京 | 2010 | [ |
2.584/5.033 | 0.166/0.111 | 韩国,蔚山 | 2010 | [ | |
0.138/0.237 | 0.076/0.14 | 日本,东京 | 2001—2003 | [ | |
0.838/1.457 | 0.37/0.703 | 英国,塔夫河 | 2007 | [ | |
4.83/8.5 | 2.74/5.09 | 西班牙,塞维利亚 | 2004 | [ | |
26.4/611 | 1.89/33.9 | 法国 | 1997—2007 | [ | |
卡马西平 | 0.003/— | 0.003/— | 中国,湖南 | 2014 | [ |
0.141/0.267 | 0.087/0.162 | 日本,东京 | 2001—2003 | [ | |
0.327/— | 0.188/— | 韩国,釜山 | 2008 | [ | |
0.968/1.9 | 0.674/2.3 | 法国 | 1997—2007 | [ | |
1.694/2.73 | 2.499/4.596 | 英国,塔夫河 | 2007 | [ | |
0.53/3.78 | 0.58/1.18 | 西班牙,塞维利亚 | 2004 | [ |
PPCPs | 进水浓度(均值/最大值)/μg·L-1 | 出水浓度(均值/最大值)/μg·L-1 | 国家,地区 | 年份/年 | 参考文献 |
---|---|---|---|---|---|
咖啡因 | 12.005/16.783 | 0.023/0.026 | 中国,北京 | 2010 | [ |
0.973/— | 0.046/— | 中国,湖南 | 2014 | [ | |
2.349/3.217 | 0.18/0.6 | 韩国,蔚山 | 2010 | [ | |
57.4/— | 33.7/— | 挪威 | 2002 | [ | |
80/— | 0.017/— | 美国,北卡罗来纳州 | 2008 | [ | |
布洛芬 | 1.38/— | 0.18/— | 中国,上海 | 2010—2011 | [ |
0.75/1.089 | 0.05/0.179 | 日本,东京 | 2001—2003 | [ | |
2.265/2.853 | 0.04/0.075 | 韩国,蔚山 | 2010 | [ | |
14.6/83.5 | 1.96/ 24.6 | 法国 | 1997—2007 | [ | |
1.681/2.986 | 0.263/0.424 | 英国,塔夫河 | 2007 | [ | |
8.45/16.5 | 0.384/0.773 | 加拿大,泰晤士河沿岸 | 2002 | [ | |
三氯生 | —/0.774 | —/0.182 | 中国,上海 | 2009 | [ |
0.547/0.785 | 0.112/0.149 | 韩国,蔚山 | 2010 | [ | |
0.51/1.024 | 0.026/0.331 | 日本,东京 | 2001—2003 | [ | |
0.38/— | 0.15/0.43 | 法国 | 1997—2007 | [ | |
5.58/17.1 | 0.452/1.189 | 加拿大,泰晤士河沿岸 | 2002 | [ | |
萘普生 | 0.012/0.032 | 0.011/0.02 | 中国,北京 | 2010 | [ |
2.584/5.033 | 0.166/0.111 | 韩国,蔚山 | 2010 | [ | |
0.138/0.237 | 0.076/0.14 | 日本,东京 | 2001—2003 | [ | |
0.838/1.457 | 0.37/0.703 | 英国,塔夫河 | 2007 | [ | |
4.83/8.5 | 2.74/5.09 | 西班牙,塞维利亚 | 2004 | [ | |
26.4/611 | 1.89/33.9 | 法国 | 1997—2007 | [ | |
卡马西平 | 0.003/— | 0.003/— | 中国,湖南 | 2014 | [ |
0.141/0.267 | 0.087/0.162 | 日本,东京 | 2001—2003 | [ | |
0.327/— | 0.188/— | 韩国,釜山 | 2008 | [ | |
0.968/1.9 | 0.674/2.3 | 法国 | 1997—2007 | [ | |
1.694/2.73 | 2.499/4.596 | 英国,塔夫河 | 2007 | [ | |
0.53/3.78 | 0.58/1.18 | 西班牙,塞维利亚 | 2004 | [ |
PPCPs | 浓度/μg·kg-1 | 国家,地区 | 年份/年 | 参考文献 |
---|---|---|---|---|
咖啡因 | 2.59 | 中国,北京 | 2014 | [ |
1.1 | 美国,亚利桑那州 | 2009 | [ | |
布洛芬 | 318.5 | 美国,得克萨斯州 | 2010 | [ |
0.008 | 美国,加利福尼亚州 | 2013 | [ | |
1.51 | 中国,河北 | 2008 | [ | |
0.003 | 美国,加利福尼亚州 | 2009 | [ | |
8.16 | 美国,得克萨斯州 | 2010 | [ | |
萘普生 | 0.024 | 美国,加利福尼亚州 | 2013 | [ |
0.013 | 美国,加利福尼亚州 | 2009 | [ | |
1.06 | 中国,河北 | 2008 | [ | |
卡马西平 | 1.8 | 中国,北京 | 2014 | [ |
0.02 | 中国,河北 | 2008 | [ | |
0.18 | 美国,亚利桑那州 | 2009 | [ |
PPCPs | 浓度/μg·kg-1 | 国家,地区 | 年份/年 | 参考文献 |
---|---|---|---|---|
咖啡因 | 2.59 | 中国,北京 | 2014 | [ |
1.1 | 美国,亚利桑那州 | 2009 | [ | |
布洛芬 | 318.5 | 美国,得克萨斯州 | 2010 | [ |
0.008 | 美国,加利福尼亚州 | 2013 | [ | |
1.51 | 中国,河北 | 2008 | [ | |
0.003 | 美国,加利福尼亚州 | 2009 | [ | |
8.16 | 美国,得克萨斯州 | 2010 | [ | |
萘普生 | 0.024 | 美国,加利福尼亚州 | 2013 | [ |
0.013 | 美国,加利福尼亚州 | 2009 | [ | |
1.06 | 中国,河北 | 2008 | [ | |
卡马西平 | 1.8 | 中国,北京 | 2014 | [ |
0.02 | 中国,河北 | 2008 | [ | |
0.18 | 美国,亚利桑那州 | 2009 | [ |
PPCPs | 浓度 | 种植媒介 | 作物类型 | 检查结果 | 参考 文献 |
---|---|---|---|---|---|
咖啡因 | 500ng·L-1 | 活性污泥 | 卷心莴苣 | 未检测到 | [ |
菠菜 | 未检测到 | [ | |||
与其他混合物混合 | 土壤 | 红薯 | 0.05~0.24ng·g-1 | [ | |
胡萝卜 | 0.05~0.24ng·g-1 | [ | |||
与其他混合物混合 | 土壤 | 番茄 | 可检测到 | [ | |
黄瓜 | 可检测到 | [ | |||
布洛芬 | 500ng·L-1 | 活性污泥 | 卷心莴苣 | 未检测到 | [ |
菠菜 | 未检测到 | [ | |||
与其他混合物混合 | 土壤 | 红薯 | 0.05~0.24ng·g-1 | [ | |
胡萝卜 | 0.05~0.24ng·g-1 | [ | |||
与其他混合物混合 | 土壤 | 番茄 | 可检测到 | [ | |
黄瓜 | 可检测到 | [ | |||
1.27mg·L-1 | 土壤 | 黑麦草 | 未检测到 | [ | |
100ng·L-1 | 营养液 | 莴苣 | 可检测到 | [ | |
萘普生 | 178.2ng·L-1 | 水培 | 莴苣 | 可检测到 | [ |
羽衣甘蓝 | 可检测到 | [ |
PPCPs | 浓度 | 种植媒介 | 作物类型 | 检查结果 | 参考 文献 |
---|---|---|---|---|---|
咖啡因 | 500ng·L-1 | 活性污泥 | 卷心莴苣 | 未检测到 | [ |
菠菜 | 未检测到 | [ | |||
与其他混合物混合 | 土壤 | 红薯 | 0.05~0.24ng·g-1 | [ | |
胡萝卜 | 0.05~0.24ng·g-1 | [ | |||
与其他混合物混合 | 土壤 | 番茄 | 可检测到 | [ | |
黄瓜 | 可检测到 | [ | |||
布洛芬 | 500ng·L-1 | 活性污泥 | 卷心莴苣 | 未检测到 | [ |
菠菜 | 未检测到 | [ | |||
与其他混合物混合 | 土壤 | 红薯 | 0.05~0.24ng·g-1 | [ | |
胡萝卜 | 0.05~0.24ng·g-1 | [ | |||
与其他混合物混合 | 土壤 | 番茄 | 可检测到 | [ | |
黄瓜 | 可检测到 | [ | |||
1.27mg·L-1 | 土壤 | 黑麦草 | 未检测到 | [ | |
100ng·L-1 | 营养液 | 莴苣 | 可检测到 | [ | |
萘普生 | 178.2ng·L-1 | 水培 | 莴苣 | 可检测到 | [ |
羽衣甘蓝 | 可检测到 | [ |
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