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用于测量颗粒物的消费级监测器评估。

Evaluation of consumer monitors to measure particulate matter.

作者信息

Sousan Sinan, Koehler Kirsten, Hallett Laura, Peters Thomas M

机构信息

Department of Occupational and Environmental Health, University of Iowa, Iowa City, Iowa, USA.

Environmental Health Sciences, Johns Hopkins Bloomberg School of Public Health, Baltimore, Maryland, USA.

出版信息

J Aerosol Sci. 2017 May;107:123-133. doi: 10.1016/j.jaerosci.2017.02.013. Epub 2017 Feb 21.

Abstract

Recently, inexpensive (<$300) consumer aerosol monitors (CAMs) targeted for use in homes have become available. We evaluated the accuracy, bias, and precision of three CAMs (Foobot from Airoxlab, Speck from Carnegie Mellon University, and AirBeam from HabitatMap) for measuring mass concentrations in occupational settings. In a laboratory study, PM measured with the CAMs and a medium-cost aerosol photometer (personal DataRAM 1500, Thermo Scientific) were compared to that from reference instruments for three aerosols (salt, welding fume, and Arizona road dust, ARD) at concentrations up to 8500 μg/m. Three of each type of CAM were included to estimate precision. Compared to reference instruments, mass concentrations measured with the Foobot (r-value = 0.99) and medium-cost photometer (r-value = 0.99) show strong correlation, whereas those from the Speck (r-value range 0.88 - 0.99) and AirBeam (0.7 - 0.96) were less correlated. The Foobot bias was (-12%) for ARD and measurements were similar to the medium-cost instrument. Foobot bias was (< -46%) for salt and welding fume aerosols. Speck bias was at 18% salt for ARD and -86% for welding fume. AirBeam bias was (-36%) for salt and (-83%) for welding fume. All three photometers had a bias (< -82%) for welding fume. Precision was excellent for the Foobot (coefficient of variation range: 5% to 8%) and AirBeam (2% to 9%), but poorer for the Speck (8% to 25%). These findings suggest that the Foobot, with a linear response to different aerosol types and good precision, can provide reasonable estimates of PM in the workplace after site-specific calibration to account for particle size and composition.

摘要

最近,市面上出现了价格低廉(低于300美元)、面向家庭使用的消费型气溶胶监测仪(CAM)。我们评估了三款CAM(来自Airoxlab的Foobot、卡内基梅隆大学的Speck以及HabitatMap的AirBeam)在职业环境中测量质量浓度的准确性、偏差和精密度。在一项实验室研究中,将CAM以及一台中等成本的气溶胶光度计(个人数据RAM 1500,赛默飞世尔科技公司)测量的颗粒物质量(PM)与参考仪器针对三种气溶胶(盐、焊接烟尘和亚利桑那道路扬尘,ARD)在浓度高达8500μg/m³时测量的结果进行了比较。每种类型的CAM各取三台以评估精密度。与参考仪器相比,Foobot(r值 = 0.99)和中等成本光度计(r值 = 0.99)测量的质量浓度显示出很强的相关性,而Speck(r值范围为0.88 - 0.99)和AirBeam(0.7 - 0.96)的相关性则较弱。Foobot对ARD的偏差为(-12%),测量结果与中等成本仪器相似。Foobot对盐和气溶胶烟尘的偏差为(< -46%)。Speck对ARD中盐的偏差为18%,对焊接烟尘的偏差为-86%。AirBeam对盐的偏差为(-36%),对焊接烟尘的偏差为(-83%)。所有三款光度计对焊接烟尘的偏差均为(< -82%)。Foobot(变异系数范围:5%至8%)和AirBeam(2%至9%)的精密度极佳,但Speck的精密度较差(8%至25%)。这些研究结果表明,Foobot对不同类型的气溶胶具有线性响应且精密度良好,在针对粒径和成分进行特定场地校准后,能够为工作场所的PM提供合理估计。

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