Haglund Peter, Alygizakis Nikiforos A, Covaci Adrian, Melymuk Lisa, Nizzetto Pernilla Bohlin, Rostkowski Pawel, Albinet Alexandre, Alirai Sylvana, Aurich Dagny, Bieber Stefan, Ballesteros-Gómez Ana, Brennan Amanda A, Budzinski Hélène, Castro Gabriela, den Ouden Fatima, Dévier Marie-Hélène, Dulio Valeria, Feng Yong-Lai, Gabriel Marta, Gallampois Christine, García-Vara Manuel, Giovanoulis Georgios, Harrad Stuart, Jacobs Griet, Jobst Karl J, Kaserzon Sarit, Kumirska Jolanta, Lestremau Francois, Lambropoulou Dimitra, Letzel Thomas, de Alda Miren López, Nipen Maja, Oswald Peter, Poma Giulia, Přibylová Petra, Price Elliott J, Raffy Gaëlle, Schulze Bastian, Schymanski Emma L, Šenk Petr, Wei Si, Slobodnik Jaroslav, Andújar Begoña Talavera, Täubel Martin, Thomaidis Nikolaos S, Wang Thanh, Wang Xianyu
Umeå University, Department of Chemistry, SE-901 87 Umeå, Sweden.
National and Kapodistrian University of Athens, Department of Chemistry, 15771 Athens, Greece; Environmental Institute, 97241 Koš, Slovak Republic.
Sci Total Environ. 2024 Dec 20;957:177639. doi: 10.1016/j.scitotenv.2024.177639. Epub 2024 Dec 2.
This study investigated the concentration profiles and geographical variability of contaminants in house dust across Europe. A collaborative trial (CT) was organized by the NORMAN network using pooled dust and advanced chromatographic and mass spectrometric techniques combined with suspect screening and non-target screening (NTS). Over 1200 anthropogenic compounds were tentatively identified. Additionally, seventy-five individual samples were subjected to target analysis and NTS. The median concentrations of most contaminants varied <3-fold across Europe, and the contaminant profile of European dust was similar to that of North American dust, which was investigated in a previous CT. This similarity may be attributed to the use of similar consumer articles and building materials throughout the developed world. Multivariate data analysis revealed geographical trends in contaminant distribution, with north-south gradients across Europe. Geographical trends were more frequently found for compounds with rapid release (pharmaceuticals, personal care products, fragrances, pesticides, biocides) and smoke-related compounds. The concentrations of chlorinated paraffins, polycyclic aromatic hydrocarbons (PAHs), perfluorinated alkyl substances and stimulants generally increased from north to south, whereas the biocides levels decreased from north to south. Despite widespread presence of in-use contaminants in dusts, some of the highest risks come from compounds that have been restricted for decades or more. These include di(2-ethylhexyl) phthalate (DEHP), polychlorinated biphenyl (PCB) 118 and polybrominated diphenyl ethers 47, 99, and 153. DEHP remains the most abundant contaminant in European house dust, while the other compounds are classified as persistent organic pollutants (POPs). Moreover, there is a striking lack of reliable toxicity data, particularly for emerging compounds. For instance, although acceptable daily intakes (ADIs) were examined for 202 compounds, only 46 had consensus-based ADI values. The results highlight the need for proactive measures to prevent hazardous chemicals from entering the market and for careful selection of substitute chemicals, when such are needed, to avoid regrettable substitutions.
本研究调查了欧洲室内灰尘中污染物的浓度分布及地理变异性。NORMAN网络组织了一项合作试验(CT),使用混合灰尘以及先进的色谱和质谱技术,并结合可疑物筛查和非目标筛查(NTS)。初步鉴定出1200多种人为化合物。此外,对75个单独样本进行了目标分析和NTS。大多数污染物的中位数浓度在欧洲各地的变化小于3倍,欧洲灰尘的污染物分布特征与之前CT研究的北美灰尘相似。这种相似性可能归因于发达国家普遍使用类似的消费品和建筑材料。多变量数据分析揭示了污染物分布的地理趋势,呈现出欧洲南北梯度。对于快速释放的化合物(药品、个人护理产品、香料、农药、杀生剂)和与烟雾相关的化合物,更常发现地理趋势。氯化石蜡、多环芳烃(PAH)、全氟烷基物质和兴奋剂的浓度通常从北向南增加,而杀生剂水平则从北向南降低。尽管灰尘中普遍存在正在使用的污染物,但一些最高风险来自已被限制数十年或更久的化合物。这些化合物包括邻苯二甲酸二(2-乙基己基)酯(DEHP)、多氯联苯(PCB)118以及多溴二苯醚47、99和153。DEHP仍然是欧洲室内灰尘中含量最高的污染物,而其他化合物被归类为持久性有机污染物(POP)。此外,明显缺乏可靠的毒性数据,尤其是对于新兴化合物。例如,尽管对202种化合物的每日允许摄入量(ADI)进行了检查,但只有46种具有基于共识的ADI值。研究结果凸显了采取积极措施防止危险化学品进入市场的必要性,以及在需要时谨慎选择替代化学品以避免令人遗憾的替代的必要性。