新冠肺炎大流行条件下城市化地区开放空气质量的演变

Z. Sobko, N. Vozniuk, O. A. Lykho, A. Pryshchepa, Z. M. Budnik
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So, during the quarantine as well as after relaxation of quarantine measures only concentration of formaldehyde in open air of Rivne city did exceed average daily MAC. Primary source of open air pollution in Rivne city is motor vehicles which comprise 79% of total amount of pollutant emissions. Main pollutants which influence formation of open air quality in the city are: dust, sulfur dioxide, nitrogen dioxide, hydrogen fluoride and formaldehyde. They exceeded average daily MAC by factor of 1.3 to 32. Complex air pollution index (CAPI) was equal to 5.4 during quarantine restrictions but grew to 5.7 when the restrictions were partially loosened. Thus, air pollution level was evaluated as \"mild pollution\". During the corresponding periods of 2019 this index was changing from 6.9 (\"mild air pollution\") to 7.7 (\"polluted air\") respectively. Open air pollution level is determined by a complex of constituents including pollutant emission amounts, their specifics and dependency on meteorological factors. Due to this aspect we have performed statistical examinations to determine dependency of open air pollutant concentrations on meteorological conditions using multiple correlation coefficients. Strong correlation was exhibited for nitrogen oxide, hydrogen chloride and ammonia: multiple correlation coefficients fall within 0.76-0.80 range; moderate correlation was seen for dust, sulfur dioxide, nitrogen dioxide, hydrogen disulphide, phenol and formaldehyde with multiple correlation coefficients varying in 0.51-0.70 range. \n \nKeywords:  Open air; atmospheric air; urbanized territories; quarantine restrictions; complex air pollution index; AQI \n \nReferences \n \n  \n \nAdamenko O.M., Kryzhanivsky Ye. I., Neyko Ye. M. (2004). Ecology of the Ivano-Frankivsk city. Ivano-Frankivsk: Suversiya MV. \n \nAkimoto, H. (2016) Atmospheric Reaction Chemistry. Asakura Publishing, Springer. \n \nBaharyev V. S., Kortsova O.L., Kostyrya V.V., Marynin D.V. (2012). Study of atmospheric air pollution state in conditions of changes of contemporary real estate development in urban settlements. Collection of research papers «Ecological safety» of Kremenchuk Mykhailo Ostrohradskyi National University, 1(13), 43-47. \n \nBoyko V. (2016). Safety of atmospheric air as a constituent of ecological safety of border regions in Western Ukraine. Economist, 3, 26-30. \n \nBrezhytska, O.A. (2013). Determining impact of urbanized territory on the state of open air in context of sustained development.  Bulletin of the National University of Water and Environmental Engineering, 2(62), 61-69. \n \nHerasymchuk Z.V., Oleksyuk A.O. (2007). Ecological safety of the region: diagnostics and facilitation mechanism. Lutsk: Nadstyr'ya. \n \nHvesyk M.A., Stepanenko A.V., Obykhod G.O. (2014). Ecological and natural-technogenic safety of Ukraine in regional dimension. Kyiv: Public Institution “Institute of Environmental Economics and Sustainable Development of the National Academy of Sciences of Ukraine”. \n \nHvesyk M.A., Stepanenko A.V., Symonenko V.K. (2015). Ecological safety of transborder regions of Ukraine in context of European integration. Kyiv: Public Institution “Institute of Environmental Economics and Sustainable Development of the National Academy of Sciences of Ukraine”. \n \nJacobson, M. (2002). Atmospheric pollution. History, science and regulation. New York: Cambridge University Press. \n \nKachynsky A.B. (2001). Ecological safety of Ukraine: systems analysis of improvement prospects. Kyiv: National Institute for Strategic Studies. \n \nKiptenko Ye.M., Bashtannyk M.P., Kozlenko T.V., Zhemera N.S., Trachuk N.O. (2013). Estimate of open air pollution state and its prediction in the industrial cities of Ukraine (exemplified by city of Luhansk). Academic papers of Ukrainian Hydrometeorological Institute, 265, 78-89. \n \nKlymenko M.O., Lyko D.V., Pryschepa A. M., Kaskiv M.V. (2018). Estimating the state of Rivne city by cytogenetic monitoring indicators. Rivne: NUWEE. \n \nKlymenko M.O., Pryschepa A.M., Vozniuk N.M. (2006). Environmental monitoring. Kyiv: Publishing center “Academy”. \n \nKucheryavy V.P. (1999). Urboecology. Lviv: Svit. \n \nLazaridis, M. (2011). First Principles of Meteorology and Air Pollution. Springer Science + Business Media P.V. \n \nLiss, P.S., Johnson, M.T. (2014) Ocean- Atmosphere Interaction of Gases and Particles. Springer Heidelberg. \n \nLiu, Z.R., Hu, B., Wang, L.L et al. (2015). Seasonal and diurnal variation in particulate matter (PM10 and PM2.5) at an urban site of Beijing: analyses from a 9-year study, Environ. Sci. Pollut. Res., 22, ?. 627–642. \n \nMoller, D. (2010). Chemistry of the Climate System. Walter de Gruyter GmbH & Co, Berlin. \n \nNovikov Yu.V. (2005). Ecology, environment and human. Moscow: FAIR-PRESS. \n \nPryschepa A.M., Borschevska I.M., Budnik Z.M., Brezhytska O.A, Kurilyuk O.M. (2017). Bioindicational assessment of state of atmospheric environment of Rivne city on basis of analysis of fluctuating asymmetry. Student bulletin of NUWEE, 4(80), 30-38. \n \nShevchuk V.Ya., Satalkin Yu. M., Bilyavsky G.O. (2004). Ecological managemeny. Kyiv: Lybyid.","PeriodicalId":23422,"journal":{"name":"Ukrainian Journal of Ecology","volume":"10 1","pages":"48-53"},"PeriodicalIF":0.0000,"publicationDate":"2020-12-10","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Evolution of open air quality of urbanized territories under Covid-19 pandemic conditions\",\"authors\":\"Z. Sobko, N. Vozniuk, O. A. Lykho, A. Pryshchepa, Z. M. Budnik\",\"doi\":\"10.15421/2020_256\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Current state of world affairs in 2020 during quarantine enforced due to COVID-19 pandemic is characterized, on the one hand, with economic recession, but on the other hand, also with improvement of ecological state of environment. Thus a unique opportunity came up to study processes of open air conditions formation in settlements in circumstances of restricted economic activity and limitations imposed on all kinds of transportation. This article presents results of research of trends of formation of open air quality of urbanized territories (using city of Rivne as an example) during quarantine enforced due to COVID-19 pandemic. It is determined that due to introduction of quarantine measures air quality has improved. So, during the quarantine as well as after relaxation of quarantine measures only concentration of formaldehyde in open air of Rivne city did exceed average daily MAC. Primary source of open air pollution in Rivne city is motor vehicles which comprise 79% of total amount of pollutant emissions. Main pollutants which influence formation of open air quality in the city are: dust, sulfur dioxide, nitrogen dioxide, hydrogen fluoride and formaldehyde. They exceeded average daily MAC by factor of 1.3 to 32. Complex air pollution index (CAPI) was equal to 5.4 during quarantine restrictions but grew to 5.7 when the restrictions were partially loosened. Thus, air pollution level was evaluated as \\\"mild pollution\\\". During the corresponding periods of 2019 this index was changing from 6.9 (\\\"mild air pollution\\\") to 7.7 (\\\"polluted air\\\") respectively. Open air pollution level is determined by a complex of constituents including pollutant emission amounts, their specifics and dependency on meteorological factors. 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引用次数: 0

摘要

新冠肺炎疫情强制隔离期间的2020年世界形势,一方面是经济衰退,另一方面也是生态环境改善。因此,在经济活动受到限制和各种运输受到限制的情况下,研究住区露天条件形成过程的独特机会出现了。本文介绍了因新冠肺炎大流行而实施隔离期间城市化地区(以里夫纳市为例)露天空气质量形成趋势的研究结果。据确定,由于采取了隔离措施,空气质量有所改善。因此,在隔离期间和放松隔离措施后,Rivne市只有露天空气中甲醛浓度超过日均MAC。Rivne市露天空气污染的主要来源是机动车,占污染物排放总量的79%。影响城市露天空气质量形成的主要污染物有:粉尘、二氧化硫、二氧化氮、氟化氢和甲醛。它们比日均MAC高出1.3到32倍。在隔离期间,综合空气污染指数(CAPI)为5.4,但在部分放松限制后,CAPI上升到了5.7。因此,空气污染水平被评价为“轻度污染”。在2019年同期,该指数分别从6.9(“轻度空气污染”)变为7.7(“污染空气”)。露天空气污染程度是由一系列因素决定的,包括污染物的排放量、具体情况和对气象因素的依赖程度。由于这方面,我们进行了统计检验,以确定使用多个相关系数的露天空气污染物浓度与气象条件的依赖关系。氮氧化物、氯化氢和氨具有较强的相关性,多重相关系数在0.76 ~ 0.80之间;粉尘、二氧化硫、二氧化氮、二硫化氢、苯酚和甲醛呈中等相关性,多重相关系数在0.51 ~ 0.70之间。关键词:露天;大气;城市化地区;检疫限制;复合空气污染指数;AQI参考文献Adamenko O.M, Kryzhanivsky Ye。我是叶乃科。m(2004)。伊万诺-弗兰科夫斯克市的生态。伊万诺-弗兰科夫斯克:《颠覆》MV。Akimoto, H.(2016)大气反应化学。浅仓出版社(Asakura Publishing), 2010年。李建军,李建军,李建军,李建军(2012)。当代城市住区房地产开发变化条件下大气污染状况研究克莱门丘克国立大学“生态安全”研究论文集,1(13),43-47。Boyko V.(2016)。大气安全是乌克兰西部边境地区生态安全的组成部分。经济学家,3,26-30。Brezhytska, O.A.(2013)。在可持续发展的背景下确定城市化领土对露天环境的影响。水环境工程大学学报,2(62),61-69。Herasymchuk Z.V, Oleksyuk A.O.(2007)。区域生态安全:诊断与促进机制。Lutsk: Nadstyr大家。刘建军,刘建军,刘建军(2014)。乌克兰区域层面的生态安全与自然技术安全。基辅:公共机构“乌克兰国家科学院环境经济与可持续发展研究所”。刘建军,刘建军,刘建军(2015)。欧洲一体化背景下乌克兰跨境地区的生态安全。基辅:公共机构“乌克兰国家科学院环境经济与可持续发展研究所”。Jacobson, M.(2002)。大气污染。历史、科学和法规。纽约:剑桥大学出版社。Kachynsky A.B.(2001)。乌克兰生态安全:改善前景的系统分析。基辅:国家战略研究所。Kiptenko Ye.M。, Bashtannyk m.p., Kozlenko t.v., Zhemera n.s., Trachuk N.O.(2013)。乌克兰工业城市(以卢甘斯克市为例)露天空气污染状况评估及预测。乌克兰水文气象研究所学术论文,265,78-89。Klymenko M.O, Lyko D.V, Pryschepa a.m, Kaskiv M.V.(2018)。利用细胞遗传学监测指标估计里弗恩市的状况。Rivne: NUWEE。Klymenko M.O, Pryschepa a.m., Vozniuk N.M.(2006)。环境监测。基辅:出版中心“学院”。Kucheryavy(1999)。Urboecology。Lviv: Svit。拉扎里迪斯,M.(2011)。气象学和空气污染的基本原理。科学+商业媒体P.V. Liss, p.s., Johnson, M.T. (2014)海洋-大气气体和粒子的相互作用。海德堡施普林格。刘志荣,胡斌,王丽丽等。(2015)。北京市区颗粒物(PM10和PM2.5)的季节和日变化:来自一项为期9年的研究的分析。科学。Pollut。雷斯,22岁,?627 - 642。Moller, D.(2010)。气候系统的化学。Walter de Gruyter GmbH & Co,柏林。诺维科夫先生Yu.V。(2005)。生态、环境、人。莫斯科:FAIR-PRESS。Pryschepa a.m., Borschevska i.m., Budnik Z.M, Brezhytska O.A, Kurilyuk O.M.(2017)。基于波动不对称分析的Rivne市大气环境状况生物指示性评价。华北农业大学学报,4(80),30-38。Shevchuk V.Ya。, Satalkin Yu。M., Bilyavsky G.O.(2004)。生态managemeny。基辅:Lybyid。
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Evolution of open air quality of urbanized territories under Covid-19 pandemic conditions
Current state of world affairs in 2020 during quarantine enforced due to COVID-19 pandemic is characterized, on the one hand, with economic recession, but on the other hand, also with improvement of ecological state of environment. Thus a unique opportunity came up to study processes of open air conditions formation in settlements in circumstances of restricted economic activity and limitations imposed on all kinds of transportation. This article presents results of research of trends of formation of open air quality of urbanized territories (using city of Rivne as an example) during quarantine enforced due to COVID-19 pandemic. It is determined that due to introduction of quarantine measures air quality has improved. So, during the quarantine as well as after relaxation of quarantine measures only concentration of formaldehyde in open air of Rivne city did exceed average daily MAC. Primary source of open air pollution in Rivne city is motor vehicles which comprise 79% of total amount of pollutant emissions. Main pollutants which influence formation of open air quality in the city are: dust, sulfur dioxide, nitrogen dioxide, hydrogen fluoride and formaldehyde. They exceeded average daily MAC by factor of 1.3 to 32. Complex air pollution index (CAPI) was equal to 5.4 during quarantine restrictions but grew to 5.7 when the restrictions were partially loosened. Thus, air pollution level was evaluated as "mild pollution". During the corresponding periods of 2019 this index was changing from 6.9 ("mild air pollution") to 7.7 ("polluted air") respectively. Open air pollution level is determined by a complex of constituents including pollutant emission amounts, their specifics and dependency on meteorological factors. Due to this aspect we have performed statistical examinations to determine dependency of open air pollutant concentrations on meteorological conditions using multiple correlation coefficients. Strong correlation was exhibited for nitrogen oxide, hydrogen chloride and ammonia: multiple correlation coefficients fall within 0.76-0.80 range; moderate correlation was seen for dust, sulfur dioxide, nitrogen dioxide, hydrogen disulphide, phenol and formaldehyde with multiple correlation coefficients varying in 0.51-0.70 range. Keywords:  Open air; atmospheric air; urbanized territories; quarantine restrictions; complex air pollution index; AQI References   Adamenko O.M., Kryzhanivsky Ye. I., Neyko Ye. M. (2004). Ecology of the Ivano-Frankivsk city. Ivano-Frankivsk: Suversiya MV. Akimoto, H. (2016) Atmospheric Reaction Chemistry. Asakura Publishing, Springer. Baharyev V. S., Kortsova O.L., Kostyrya V.V., Marynin D.V. (2012). Study of atmospheric air pollution state in conditions of changes of contemporary real estate development in urban settlements. Collection of research papers «Ecological safety» of Kremenchuk Mykhailo Ostrohradskyi National University, 1(13), 43-47. Boyko V. (2016). Safety of atmospheric air as a constituent of ecological safety of border regions in Western Ukraine. Economist, 3, 26-30. Brezhytska, O.A. (2013). Determining impact of urbanized territory on the state of open air in context of sustained development.  Bulletin of the National University of Water and Environmental Engineering, 2(62), 61-69. Herasymchuk Z.V., Oleksyuk A.O. (2007). Ecological safety of the region: diagnostics and facilitation mechanism. Lutsk: Nadstyr'ya. Hvesyk M.A., Stepanenko A.V., Obykhod G.O. (2014). Ecological and natural-technogenic safety of Ukraine in regional dimension. Kyiv: Public Institution “Institute of Environmental Economics and Sustainable Development of the National Academy of Sciences of Ukraine”. Hvesyk M.A., Stepanenko A.V., Symonenko V.K. (2015). Ecological safety of transborder regions of Ukraine in context of European integration. Kyiv: Public Institution “Institute of Environmental Economics and Sustainable Development of the National Academy of Sciences of Ukraine”. Jacobson, M. (2002). Atmospheric pollution. History, science and regulation. New York: Cambridge University Press. Kachynsky A.B. (2001). Ecological safety of Ukraine: systems analysis of improvement prospects. Kyiv: National Institute for Strategic Studies. Kiptenko Ye.M., Bashtannyk M.P., Kozlenko T.V., Zhemera N.S., Trachuk N.O. (2013). Estimate of open air pollution state and its prediction in the industrial cities of Ukraine (exemplified by city of Luhansk). Academic papers of Ukrainian Hydrometeorological Institute, 265, 78-89. Klymenko M.O., Lyko D.V., Pryschepa A. M., Kaskiv M.V. (2018). Estimating the state of Rivne city by cytogenetic monitoring indicators. Rivne: NUWEE. Klymenko M.O., Pryschepa A.M., Vozniuk N.M. (2006). Environmental monitoring. Kyiv: Publishing center “Academy”. Kucheryavy V.P. (1999). Urboecology. Lviv: Svit. Lazaridis, M. (2011). First Principles of Meteorology and Air Pollution. Springer Science + Business Media P.V. Liss, P.S., Johnson, M.T. (2014) Ocean- Atmosphere Interaction of Gases and Particles. Springer Heidelberg. Liu, Z.R., Hu, B., Wang, L.L et al. (2015). Seasonal and diurnal variation in particulate matter (PM10 and PM2.5) at an urban site of Beijing: analyses from a 9-year study, Environ. Sci. Pollut. Res., 22, ?. 627–642. Moller, D. (2010). Chemistry of the Climate System. Walter de Gruyter GmbH & Co, Berlin. Novikov Yu.V. (2005). Ecology, environment and human. Moscow: FAIR-PRESS. Pryschepa A.M., Borschevska I.M., Budnik Z.M., Brezhytska O.A, Kurilyuk O.M. (2017). Bioindicational assessment of state of atmospheric environment of Rivne city on basis of analysis of fluctuating asymmetry. Student bulletin of NUWEE, 4(80), 30-38. Shevchuk V.Ya., Satalkin Yu. M., Bilyavsky G.O. (2004). Ecological managemeny. Kyiv: Lybyid.
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