基于承载能力的工业区空气质素管理

S. Panda
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引用次数: 2

摘要

印度正在经历快速的工业和城市发展。在过去的二十年里,严重污染的工业区数量急剧增加,据报道污染物浓度比建议标准高出几倍。在这方面,有效的空气质素管理对减少空气污染非常有用。在本研究中,对Manali工业区(泰米尔纳德邦金奈)的空气质量管理采用了一种不同的承载能力量化方法(即一个地区在不违反允许的污染物标准的情况下可以采取的排放上限)。马纳里是一个污染严重的工业集群,以炼油厂和石化工业为主。通过3种方法对承载能力进行量化:1)利用微气象参数的定性方法;2)利用停滞、通风和再循环事件的大气流动条件;3)利用排放和气象参数的AERMOD弥散模型的定量方法。为了了解工业运行的最佳条件,进行了与临界、高、中、低污染水平相对应的时间承载能力分析。采用自下而上的方法编制了马纳里市二氧化硫(SO2)、二氧化氮(NO2)和颗粒物(PM10)的细分辨率排放清单。结果表明,北京市向环境排放的SO2、no2和pm10分别为22、7.8和7.1吨/天。该地区so2的承载能力估计为16.05吨/天,no2为17.36吨/天,pm10为19.78吨/天。承载能力的时间分析表明,季风后的承载能力最低,其次是冬季、夏季和季风季节。与季风季节相比,季风后季节和冬季的so2承载能力估计分别低35%和26%。此外,承载力的定性分析表明,马纳里冬季和季风后季节的承载力较低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Carrying Capacity Based Air Quality Management at an Industrial area
India is witnessing a rapid industrial and urban development. Over the last two decades the number of critically polluted industrial areas was radically expanded and pollutant concentrations were reported several folds higher than the recommended standards. In this regard, an effective air quality management is highly useful to abate air pollution. In the present study, a different approach of quantification of carrying capacity (i.e. upper limit of emissions a region can take without infringing permitted pollutant standards) was utilized for air quality management at Manali industrial area (Chennai, Tamil Nadu). Manali is a severely polluted industrial cluster dominated by refineries and petrochemical industries. Carrying capacity was quantified by 3 approaches namely i) qualitative approach utilizing micro meteorological parameters, ii) atmospheric flow conditions utilizing stagnation, ventilation and recirculation events and iii) quantitative approach using AERMOD dispersion model utilizing emissions and meteorological parameters. In order to know the most preferable conditions of industrial operations, temporal carrying capacity analysis was performed that corresponded to critical, high, medium and low pollution levels. Bottom up approach was utilized to prepare the inventory of sulfur dioxide (SO2), nitrogen dioxide (NO2) and particulate matter (PM10) emissions at a fine resolution in Manali. Results showed the amount of SO2, NO2and PM10emitted to the environment was 22, 7.8 and 7.1 tonnes/day respectively. The carrying capacity of the region with respect to SO2was estimated to be 16.05 tonnes/day, NO2was 17.36 tonnes/day, and PM10was 19.78 tonnes/day. Temporal analysis of carrying capacity showed post-monsoon had the lowest emission carrying limit, trailed by winter, summer, and monsoon seasons. The carrying capacity of SO2during post-monsoon and winter seasons was estimated to be 35% and 26% lower, when compared to the monsoon season. Further, qualitative approach of carrying capacity indicated low carrying capacity at Manali during winter and post monsoon seasons.
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