Lead and other toxic metals in plastic play foods: Results from testing citizen science, lead detection tools in childcare settings

被引:5
|
作者
Ahmid, Kaleem [1 ,2 ]
Specht, Aaron [3 ]
Morikawa, Larissa [2 ]
Ceballos, Diana [5 ]
Wylie, Sara [4 ,6 ]
机构
[1] Northeastern Univ, Bouve Coll Hlth Sci, 360 Huntington Ave, Boston, MA 02115 USA
[2] Northeastern Univ, Wylie Environm Data Justice Lab, 360 Huntington Ave, Boston, MA 02115 USA
[3] Purdue Univ, Dept Environm Hlth, 550 Stadium Mall Dr, W Lafayette, IN 47907 USA
[4] Dept Anthropol & Sociol, Boston, MA USA
[5] Boston Univ, Dept Environm Hlth, Sch Publ Hlth, 715 Albany St, Boston, MA 02118 USA
[6] Northeastern Univ, Social Sci & Environm Hlth Res Inst, 360 Huntington Ave, Boston, MA 02115 USA
关键词
Citizen science; Lead-exposure; Plastic toys; Environmental health; MOUTHING BEHAVIOR; TOYS SOLD; CONTAMINATION; ELEMENTS; CADMIUM; BOUGHT; MARKET; PAINT;
D O I
10.1016/j.jenvman.2022.115904
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
A method development pilot study examining citizen science tools for assessing lead in childcare settings identified plastic food toys as an unexpected potential source of lead and arsenic. Collaborating researchers at three universities sought to develop a low cost, replicable approach for use in childcare centers to identify lead. Through graduate Environmental Health courses at Northeastern and Boston Universities, 197 Plastic Food Toys (PFTs) used in a childcare center were tested for lead using a portable X-Ray fluorescence (XRF) instrument and a colorimetric wipe method for detecting surface lead. The XRF identified concerning levels of lead and co-occurring arsenic in PFTs. The XRF analysis found 8.63% (17/197) of PFTs from the childcare center con-tained more than 100.00 ppm of lead, the U.S. Consumer Protection Safety Commission's (CPSC) upper regu-latory threshold for lead in childrens' products. However, wipes did not detect removable surface lead. Lead concentrations ranged from 6.14 ppm to 11,999.00 ppm with a median of 40.00 ppm. Additionally, 7.10% of all PFTs tested had detectable levels of arsenic which ranged from 9.30 ppm to 1134.42 ppm and had a median value of 113.20 ppm. Arsenic concentrations in 6.60% of PFTs' exceeded the US voluntary standard for arsenic in children's products of 25.00 ppm (adopted from the EU standard). These findings prompted further sampling of similar newly-purchased PFTs. None of the newly-purchased PFTs tested positive for lead or arsenic (0/87). Several other elements were also identified, particularly in the used PFTs. Because these food-like toys are frequently put in children's mouths, we recommend further investigation of PFTs in circulation via citizen sci-ence combining the wipe and XRF method as they provide immediate data to participants. Additionally, CPSC should consider a systematic recall of some used PFTs to prevent exposure disparities by socio-economic status and increased surveillance for other toxic metals in new PFTs.
引用
收藏
页数:11
相关论文
共 8 条
  • [1] Lead in drinking water at North Carolina childcare centers: Piloting a citizen science-based testing strategy
    Redmon, Jennifer Hoponick
    Levine, Keith E.
    Aceituno, Anna M.
    Litzenberger, Kristin
    Gibson, Jacqueline MacDonald
    ENVIRONMENTAL RESEARCH, 2020, 183
  • [2] Lead and other toxic metals in playground paints from South West England
    Turner, Andrew
    Kearl, Emily R.
    Solman, Kevin R.
    SCIENCE OF THE TOTAL ENVIRONMENT, 2016, 544 : 460 - 466
  • [3] Electrochemical sensors for the detection of lead and other toxic heavy metals: The next generation of personal exposure biomonitors
    Yantasee, Wassana
    Lin, Yuehe
    Hongsirikarn, Kitiya
    Fryxell, Glen E.
    Addleman, Raymond
    Timchalk, Charles
    ENVIRONMENTAL HEALTH PERSPECTIVES, 2007, 115 (12) : 1683 - 1690
  • [4] Exposure to lead and other toxic metals from informal foundries producing cookware from scrap metal
    Street, Renee Anne
    Goessler, Walter
    Naidoo, Saloshni
    Shezi, Busisiwe
    Cele, Nokulunga
    Rieger, Jaqueline
    Ettinger, Karl
    Reddy, Tarylee
    Mathee, Angela
    ENVIRONMENTAL RESEARCH, 2020, 191 (191)
  • [5] Occurrence of Lead and Other Toxic Metals Derived from Drinking-Water Systems in Three West African Countries
    Fisher, Michael B.
    Guo, Amy Z.
    Tracy, J. Wren
    Prasad, Sridevi K.
    Cronk, Ryan D.
    Browning, Emily G.
    Liang, Kaida R.
    Kelly, Emma R.
    Bartram, Jamie K.
    ENVIRONMENTAL HEALTH PERSPECTIVES, 2021, 129 (04)
  • [6] Extraction behaviour of 2-octylaminopyridine towards lead(II) from succinate media and its separation from other toxic metals
    Mane, Chandrashekhar P.
    Anuse, Mansing A.
    JOURNAL OF HAZARDOUS MATERIALS, 2008, 152 (03) : 1146 - 1154
  • [7] Comprehensive screen the lead and other toxic metals in total environment from a coal-gas industrial city (NW, China): Based on integrated source-specific risks and site-specific blood lead levels of 0-6 aged children
    Cao, Yuhan
    Li, Xiaoping
    He, Feng
    Sun, Xuemeng
    Zhang, Xu
    Yang, Tao
    Dong, Jie
    Gao, Yu
    Zhou, Qishang
    Shi, Danqian
    Wang, Jiwen
    Yu, Hongtao
    CHEMOSPHERE, 2021, 278
  • [8] Letter to the Editor Re: Andrew Turner, Emily R. Kearl, Kevin R. Solman Lead and other toxic metals in playground paints from South West England Science of the Total Environment 544 (2016) 460-466
    Gottesfeld, Perry
    Jacobs, David E.
    SCIENCE OF THE TOTAL ENVIRONMENT, 2016, 562 : 996 - 997