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量化印度农作物秸秆燃烧产生的空气污染物的高分辨率季节排放。

Quantifying the high resolution seasonal emission of air pollutants from crop residue burning in India.

机构信息

Environmental Science, Department of Botany, Utkal University, Bhubaneswar, India.

India Indian Institute of Tropical Meteorology, Pune, Ministry of Earth Sciences, India.

出版信息

Environ Pollut. 2021 Oct 1;286:117165. doi: 10.1016/j.envpol.2021.117165. Epub 2021 Apr 24.

DOI:10.1016/j.envpol.2021.117165
PMID:33971471
Abstract

Biomass burning, a recurring global phenomenon is also considered an environmental menace, making headlines every year in India with onset of autumn months. Agriculture is demographically the broadest economic sector and plays a significant role in the overall socio-economic fabric of India. Hence, disposal of crop residue is done mainly by burning leading to deterioration of air quality. Residue burning in parts of India is blamed for changing air quality in nearby cities. The spatial distribution of these emissions has always been a challenge due to various data constraints. We hereby present a comprehensive spatially resolved seasonal high resolution gridded (∼10 km × ∼10 km) emission inventory of major pollutants from crop residue burning source in India for the latest year 2018. The winter months contributes almost around ∼50% of total emission followed by summer (∼48%), which is the prime cause of changing air quality in nearby cities. Among all the crops; rice, wheat, maize and sugarcane accounts ∼90% of total PM load in the country. The estimated emission for PM, PM, BC and OC, CO, NOx, SO, VOC, CH and CO are found to 990.68 Gg/yr, 1231.26 Gg/yr, 123.33 Gg/yr, 410.99 Gg/yr, 11208.18 Gg/yr, 484.55 Gg/yr, 144.66 Gg/yr, 1282.95 Gg/yr, 785.56 Gg/yr and 262051.06 Gg/yr respectively. The cropping pattern and its role in different geographic regions are analysed to identify all potential emission hotspots regions scattered across the country. The developed gridded emissions inventory is envisaged to serve as an important input to regional atmospheric chemistry transport model to better quantify its contribution in deteriorating air quality in various regions of India, paving the way to policy makers to better plan the mitigation and control strategies. The developed fundamental tool is likely to be useful for air quality management.

摘要

生物质燃烧是一种全球性的常见现象,也被认为是一种环境威胁,每年秋季印度都会因此成为新闻头条。农业是人口最多的经济部门,在印度的整体社会经济结构中发挥着重要作用。因此,农作物残余物的处理主要通过燃烧来完成,这导致了空气质量的恶化。印度部分地区的残余物燃烧被归咎于附近城市空气质量的变化。由于各种数据限制,这些排放物的空间分布一直是一个挑战。在此,我们展示了印度 2018 年最新的主要农作物残余物燃烧源的季节高分辨率网格化(约 10km×10km)排放清单,该清单具有全面的空间分辨率。冬季的排放量几乎占总排放量的 50%左右,其次是夏季(约 48%),这是导致附近城市空气质量变化的主要原因。在所有作物中,水稻、小麦、玉米和甘蔗占全国 PM 负荷的 90%左右。估计的 PM、PM、BC 和 OC、CO、NOx、SO、VOC、CH 和 CO 的排放量分别为 990.68 Gg/yr、1231.26 Gg/yr、123.33 Gg/yr、410.99 Gg/yr、11208.18 Gg/yr、484.55 Gg/yr、144.66 Gg/yr、1282.95 Gg/yr、785.56 Gg/yr 和 262051.06 Gg/yr。分析了种植模式及其在不同地理区域的作用,以确定遍布全国的所有潜在排放热点地区。开发的网格化排放清单旨在作为区域大气化学传输模型的重要输入,以更好地量化其对印度各地区空气质量恶化的贡献,为决策者制定更好的缓解和控制策略铺平道路。开发的基本工具可能对空气质量管理有用。

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