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在一年的时间里,对靠近高速公路的社区中的颗粒物数量浓度及其他与交通相关的空气污染物进行移动监测。

Mobile monitoring of particle number concentration and other traffic-related air pollutants in a near-highway neighborhood over the course of a year.

作者信息

Padró-Martínez Luz T, Patton Allison P, Trull Jeffrey B, Zamore Wig, Brugge Doug, Durant John L

机构信息

Department of Civil & Environmental Engineering, Tufts University, Medford, MA, USA.

出版信息

Atmos Environ (1994). 2012 Dec;61:253-264. doi: 10.1016/j.atmosenv.2012.06.088.

Abstract

Accurate quantification of exposures to traffic-related air pollution in near-highway neighborhoods is challenging due to the high degree of spatial and temporal variation of pollutant levels. The objective of this study was to measure air pollutant levels in a near-highway urban area over a wide range of traffic and meteorological conditions using a mobile monitoring platform. The study was performed in a 2.3-km(2) area in Somerville, Massachusetts (USA), near Interstate I-93, a highway that carries 150,000 vehicles per day. The mobile platform was equipped with rapid-response instruments and was driven repeatedly along a 15.4-km route on 55 days between September 2009 and August 2010. Monitoring was performed in 4-6-hour shifts in the morning, afternoon and evening on both weekdays and weekends in winter, spring, summer and fall. Measurements were made of particle number concentration (PNC; 4-3,000 nm), particle size distribution, fine particle mass (PM(2.5)), particle-bound polycyclic aromatic hydrocarbons (pPAH), black carbon (BC), carbon monoxide (CO), and nitrogen oxides (NO and NO(x)). The highest pollutant concentrations were measured within 0-50 m of I-93 with distance-decay gradients varying depending on traffic and meteorology. The most pronounced variations were observed for PNC. Annual median PNC 0-50 m from I-93 was two-fold higher compared to the background area (>1 km from I-93). In general, PNC levels were highest in winter and lowest in summer and fall, higher on weekdays and Saturdays compared to Sundays, and higher during morning rush hour compared to later in the day. Similar spatial and temporal trends were observed for NO, CO and BC, but not for PM(2.5). Spatial variations in PNC distance-decay gradients were non-uniform largely due to contributions from local street traffic. Hour-to-hour, day-to-day and season-to-season variations in PNC were of the same magnitude as spatial variations. Datasets containing fine-scale temporal and spatial variation of air pollution levels near highways may help to inform exposure assessment efforts.

摘要

由于污染物水平在空间和时间上的高度变化,准确量化近高速公路社区与交通相关的空气污染暴露具有挑战性。本研究的目的是使用移动监测平台,在广泛的交通和气象条件下,测量近高速公路市区的空气污染物水平。该研究在美国马萨诸塞州萨默维尔市一个2.3平方公里的区域内进行,该区域靠近93号州际公路,这条公路每天有15万辆车通行。移动平台配备了快速响应仪器,并在2009年9月至2010年8月期间的55天里,沿着一条15.4公里的路线反复行驶。在冬季、春季、夏季和秋季的工作日和周末,于上午、下午和晚上进行4至6小时的轮班监测。测量了颗粒物数浓度(PNC;4 - 3000纳米)、粒径分布、细颗粒物质量(PM₂.₅)、颗粒结合多环芳烃(pPAH)、黑碳(BC)、一氧化碳(CO)和氮氧化物(NO和NOₓ)。在距离93号州际公路0至50米范围内测得的污染物浓度最高,距离衰减梯度因交通和气象情况而异。PNC的变化最为明显。距离93号州际公路0至50米处的年度PNC中位数比背景区域(距离93号州际公路>1公里)高出两倍。一般来说,PNC水平在冬季最高,在夏季和秋季最低,工作日和周六高于周日,上午高峰时段高于当天晚些时候。NO、CO和BC也观察到类似的空间和时间趋势,但PM₂.₅没有。PNC距离衰减梯度的空间变化很大程度上由于当地街道交通的影响而不均匀。PNC的逐小时、逐日和逐季节变化与空间变化幅度相同。包含高速公路附近空气污染水平精细时空变化的数据集可能有助于为暴露评估工作提供信息。

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