Abstract
The aim of this study was to investigate the removal of the pesticides imazalil and tebuconazole at realistic concentration levels (10 and 100 μg L(-1)) in saturated constructed wetland (CW) mesocosms planted with five wetland plant species (Typha latifolia, Phragmites australis, Iris pseudacorus, Juncus effusus and Berula erecta) at different hydraulic loading rates during summer and winter. The removal of imazalil and tebuconazole was not influenced by the influent concentration, but the removal efficiency for both compounds was lower in winter than in summer. Planted mesocosms had significantly higher removal efficiencies than the unplanted controls only in summer. The first-order kinetics model fitted the tebuconazole removal in all mesocosms, and the reaction rate constants varied by plant species and season (0.1-0.7 d(-1) in winter and 0.6-2.9 d(-1) in summer). For imazalil, the first-order kinetics model fitted the removal only in mesocosms planted with Phragmites australis (k = 1.2 ± 0.4 d(-1)) and in the unplanted control (k = 1.2 ± 0.5 d(-1) in both summer and winter). The removal of imazalil and tebuconazole by sorption to the bed substrate and plant uptake were low, suggesting a high rate of metabolization in the sa...Continue Reading
References
Jul 21, 2004·Pest Management Science·Timothy C StricklandHyun Joo
Jun 9, 2005·Journal of Environmental Quality·Thomas L PotterAlbert K Culbreath
Dec 22, 2006·Environmental Science & Technology·Angela L BattDiana S Aga
Sep 11, 2007·Water Research·Víctor MatamorosJosep M Bayona
May 8, 2009·Chemosphere·Xiang-Yang YuRai S Kookana
Oct 20, 2010·The Science of the Total Environment·I OllerJ A Sánchez-Pérez
Mar 23, 2012·Chemosphere·Carolina Reyes-ContrerasEloy Bécares
Feb 12, 2013·Bulletin of Environmental Contamination and Toxicology·David ElsaesserRalf Schulz
Mar 16, 2013·International Journal of Phytoremediation·Niroj Aryal, Dawn Reinhold
Jun 5, 2013·Chemosphere·Matthew T MooreMartin A Locke
Jul 23, 2013·Bioresource Technology·Kaushalya C WijekoonLong D Nghiem
Jan 28, 2014·Environmental Science and Pollution Research International·Shiny MathewsDawn Reinhold
May 17, 2014·Water Research·Ulla E BollmannKai Bester
Jul 9, 2014·Environmental Science & Technology·Elodie Maillard, Gwenaël Imfeld
Aug 1, 2014·Journal of Environmental Sciences (China)·Zhu LiZhenbin Wu
Aug 2, 2014·Chemosphere·Guorui LiuMinghui Zheng
Dec 3, 2014·Chemosphere·Liang ZhuXiangyang Xu
Dec 3, 2014·Environment International·Jan Vymazal, Tereza Březinová
Dec 3, 2014·Chemosphere·Qi-Yan LvYu Yang
Nov 1, 2013·Journal of Environmental Quality·Christoph StangRalf Schulz
Jun 18, 2015·Chemosphere·Qingming ZhangCaixia Wang
Citations
Jun 20, 2016·Journal of Environmental Management·Chrysanthi BerberidouIoannis Poulios
Sep 23, 2016·Bioresource Technology·Junfeng WangJunhong Bai
Nov 5, 2016·Environmental Pollution·Nora BadawiSebastian R Sørensen
Jun 15, 2018·Environmental Science. Processes & Impacts·Cong XuWeizhi Kai
Nov 6, 2017·Environmental Science and Pollution Research International·Yanli DingQinglin Xie
Jul 16, 2017·Scientific Reports·Juan WuShuiping Cheng
Jan 30, 2019·Environmental Science and Pollution Research International·Shahabaldin RezaniaRahim Shahrokhishahraki
Oct 13, 2018·The Science of the Total Environment·Jaime NivalaRoland A Müller
Jan 26, 2021·Frontiers in Bioengineering and Biotechnology·Esmaeil ShahsavariAndrew S Ball
Feb 6, 2021·Water Research·Yu-Xiao ChengGuang-Guo Ying
Mar 25, 2021·Water Research·Wei FanJingyu Cui
Apr 13, 2021·Environmental Science and Pollution Research International·Ahmed A A AioubZhaonong Hu
Oct 8, 2018·Environmental Pollution·Lun Lu, Baoliang Chen
Jul 30, 2021·Chemosphere·Chijioke OlisahJanine B Adams
May 31, 2019·New Biotechnology·Stavros ChristofilopoulosNicolas Kalogerakis
Jan 4, 2017·New Biotechnology·Evdokia SyranidouNicolas Kalogerakis
Sep 5, 2019·The Science of the Total Environment·Dongqing ZhangYanna Liang