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交通环境中的颗粒物数浓度分布:综述。

Particle number size distributions and concentrations in transportation environments: a review.

机构信息

Institute of Environmental Assessment and Water Research, Spanish Research Council (IDÆA-CSIC), c/Jordi Girona 18-26, 08034 Barcelona, Spain.

Institute of Environmental Assessment and Water Research, Spanish Research Council (IDÆA-CSIC), c/Jordi Girona 18-26, 08034 Barcelona, Spain.

出版信息

Environ Int. 2024 May;187:108696. doi: 10.1016/j.envint.2024.108696. Epub 2024 Apr 25.

DOI:10.1016/j.envint.2024.108696
PMID:38678934
Abstract

Ambient air ultrafine particles (UFP, particles with a diameter <100 nm) have gained significant attention in World Health Organization (WHO) air quality guidelines and European legislation. This review explores UFP concentrations and particle number size distributions (PNC-PNSD) in various transportation hotspots, including road traffic, airports, harbors, trains, and urban commuting modes (walking, cycling, bus, tram, and subway). The results highlight the lack of information on personal exposure at harbors and railway stations, inside airplanes and trains, and during various other commuting modes. The different lower particle size limits of the reviewed measurements complicate direct comparisons between them. Emphasizing the use of instruments with detection limits ≤10 nm, this review underscores the necessity of following standardized UFP measurement protocols. Road traffic sites are shown to exhibit the highest PNC within cities, with PNC and PNSD in commuting modes driven by the proximity to road traffic and weather conditions. In closed environments, such as cars, buses, and trams, increased external air infiltration for ventilation correlates with elevated PNC and a shift in PNSD toward smaller diameters. Airports exhibit particularly elevated PNCs near runways, raising potential concerns about occupational exposure. Recommendations from this study include maintaining a substantial distance between road traffic and other commuting modes, integrating air filtration into ventilation systems, implementing low-emission zones, and advocating for a general reduction in road traffic to minimize daily UFP exposure. Our findings provide important insights for policy assessments and underscore the need for additional research to address current knowledge gaps.

摘要

环境空气超细颗粒物(UFP,直径<100nm 的颗粒物)在世界卫生组织(WHO)空气质量指南和欧洲法规中受到了极大关注。本综述探讨了各种交通热点(包括道路交通、机场、港口、火车以及城市通勤模式[步行、骑行、公交、有轨电车和地铁])中的 UFP 浓度和粒子数浓度粒径分布(PNC-PNSD)。研究结果突出了缺乏关于港口和火车站、飞机和火车内部以及其他各种通勤模式下个人暴露信息的问题。综述中测量的不同下限粒径限制了它们之间的直接比较。本综述强调使用检测限≤10nm 的仪器,突出了遵循标准化 UFP 测量协议的必要性。道路交通站点在城市内表现出最高的 PNC,通勤模式中的 PNC 和 PNSD 则受道路交通和天气条件的影响。在汽车、公共汽车和有轨电车等封闭环境中,为通风而增加的外部空气渗透与 PNC 升高以及 PNSD 向较小直径转移有关。机场跑道附近的 PNC 特别高,这引发了对职业暴露的潜在关注。本研究提出的建议包括保持道路交通与其他通勤模式之间的较大距离,将空气过滤集成到通风系统中,实施低排放区,并倡导减少道路交通以最大程度地减少日常 UFP 暴露。本研究结果为政策评估提供了重要的见解,并强调需要开展更多研究以解决当前的知识空白。

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