气相和微颗粒污染物在城市环境中的传输扩散

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doi:10.6052/1000-0992-15-008

1 Faculty of Engineering and the Environment, University of Southampton, UK
2 Department of Mechanical Engineering, University of Hong Kong, HK, China
3 School of Geography, Earth and Environmental Sciences, University of Birmingham, UK

详细信息

中图分类号:O355
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- 被引次数:0
出版历程
- 收稿日期:2015-02-03
- 修回日期:2015-07-15
- 刊出日期:2015-08-30

Modelling gas and PM pollutant dispersion in urban environments

1 Faculty of Engineering and the Environment, University of Southampton, UK
2 Department of Mechanical Engineering, University of Hong Kong, HK, China
3 School of Geography, Earth and Environmental Sciences, University of Birmingham, UK

摘要

摘要:城市大气边界层中污染物传输扩散, 包括气相和微颗粒(PM), 是一个日益关注的问题. 本文结合笔者及合著者近些年来的工作, 试图综述在这方面研究的最新进展. 主要包括: 天气尺度(meso-scale) 和街道尺度耦合的大涡模拟, 温度稳定性层结效应, 高层建筑的影响, 在极端天气下的污染物浓度极值的预报, 化学反应和湍流的耦合计算和气溶胶动力学过程. 本文侧重于介绍英国和欧洲的数值模型研究的进展情况.
- 天气尺度/
- 温度稳定性/
- 极端天气/
- 污染浓度极值/
- 街道峡谷模型/
- 化学反应/
- 耦合计算
Abstract:Dispersion of gas and particulate matter (PM) pollutant in urban environments is a rising concern. Physical and numerical modelling is extremely challenging due to a number of parameters involved including the turbulence nature and complex physical and/or chemical processes. The paper attempts to review the latest advances on this topic. The major contents are: using generic geometry models to understand the mechanism, coupling meso-scale (weather scale) and micro-scale (street scale) lareg-eddy simulations, effects of thermal stratification, effects of tall buildings, modelling extreme pollutant concentration in extreme conditions and coupling chemistry with turbulence. This paper focuses more on the progress of the numerical model study in the UK and Europe.
- weather scale/
- thermal stratification/
- extreme weather/
- extreme pollutant concentration/
- street canyon model/
- chemical processes/
- coupling

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参考文献 (62)

[1]	崔桂香, 张兆顺, 许春晓, 黄伟希. 2013. 城市大气环境的大涡模拟研究进展. 力学进展, 43: 295-328 (Cui G X, Zhang Z S, Xu C X, Huang W X. 2013. Research advances in large eddy simulation of urban atmospheric environment. Advances in Mechanics, 43: 295-328)
[2]	Arnold S, ApSimon H, Barlow J, Belcher S, Bell M, Boddy D, Britter R, Cheng H, Clark R, ColvileR, Dimitroulopoulou S, Dobre A, Greally B, Kaur S, Knights A, Lawton T, Makepeace A, Martin D,Neophytou M, Neville S, Nieuwenhuijsen M, Nickless G, Price C, Robins A, Shallcross D, Simmonds P,Smalley R, Tate J, Tomlin A, Wang H, Walsh P. 2004. Dispersion of air pollution & penetration into the local environment-DAPPLE. Science of the Total Environment, 332: 139-153.
[3]	Atkinson R W, Fuller G W, Anderson H R, Harrison R M, Armstrong B. 2010. Urban ambient particle metrics and health a time-series analysis. Epidemiology, 21: 501-511.
[4]	Baik J J, Kang Y S, Kim J J. 2007. Modeling reactive pollutant dispersion in an urban street canyon.Atmospheric Environment, 41: 934-949.
[5]	Baker J, Walker H L, Cai X M. 2004. A study of the dispersion and transport of reactive pollutants in and above street canyons-a large eddy simulation. Atmospheric Environment, 38: 6883-6892.
[6]	Baker C J. 2007. Wind engineering\|past, present and future. J Wind Eng Ind Aerodyn, 95: 843-870.
[7]	Berkowicz R. 2000. OSPM-A parameterised street pollution model. Environmental Monitoring and Assessment, 65: 323-331.
[8]	Blocken B. 2013. 50 years of computational wind engineering: past, present and future. In: Owen J, Sterling M., Hargreaves D, Baker C J, eds. Fifty Years of Wind Engineering, (Prestige Lectures from the Sixth European and African Conference on Wind Engineering, UK).
[9]	Boppana V B L, Xie Z T, Castro I P. 2010. Large-eddy simulation of dispersion from surface sources in arrays of obstacles. Bound.-Layer Meteorol, 135: 433-454.
[10]	Boppana V B L, Xie Z T, Castro I P. 2013. Large-eddy simulation of heat transfer from a single cube mounted on a very rough wall. Bound.-Layer Meteorol, 147: 347-368.
[11]	Boppana V B L, Xie Z T, Castro I P. 2014. Thermal stratification effects on flow over a generic urban canopy. Boundary Layer Meterology, 153: 141-162.
[12]	Boppana V B L, Xie Z T, Castro I P. 2014. Wind direction effects on urban flows. In: Int Sym Comp Wind Eng, Hamburg.
[13]	Boris J, Patnaik G, Obenschain K. 2011. Naval Research Laboratory Report, NRL/MR/6440{11-9326.
[14]	Bright V B, BlossWJ, Cai X. 2013. Urban street canyons: Coupling dynamics, chemistry and within-canyon chemical processing of emissions. Atmospheric Environment, 68: 127-142.
[15]	Cheng H, Castro I P. 2002. Near wall flow over urban-like roughness. Bound.-Layer Meteorol, 104: 229-259.
[16]	Chung TNH, Liu CH. 2013. On the mechanism of air pollutant removal in two-dimensional idealized street canyons: A large-eddy simulation approach. Bound.-Layer Meteorol, 148: 241-253.
[17]	Cochran L, Derickson R. 2011. A physical modeler's view of computational wind engineering. J Wind Eng Ind Aerodyn, 99: 139-153.
[18]	Dagnew A K, Bitsuamlak G T. 2010. LES evaluation of wind pressures on a standard tall building with and without a neighboring building. In: The 5th Int. Sym. Comput. Wind Eng., Chapel Hill (NC), USA.
[19]	Daniels S J, Castro I P, Xie Z T. 2013. Peak loading and surface pressure fluctuations of a tall model building. Journal of Wind Engineering and Industrial Aerodynamics, 120: 19-28.
[20]	Daniels S J, Castro I P, Xie Z T. 2014. A novel monolithic approach to fluid structure interactions. In: Int.Sym. Comp. Wind Eng., Hamburg.
[21]	Donaldson K, Tran L, Jimenez L A, Du±n R, Newby D E, Mills N, MacNee W, Stone V. 2005. Combustion- derived nanoparticles: A review of their toxicology following inhalation exposure. Particle and Fibre Toxicology, 2: 10.
[22]	Fernando H J S. 2010. Fluid dynamics of urban atmospheres in complex terrain. Ann Rev. Fluid Mech., 42: 365-89
[23]	Ghiaasiaan S M. 2008. Two-Phase Flow, Boiling, and Condensation. Cambridge University Press, New York, NY, USA.
[24]	Grawe D, Cai X M, Harrison R M. 2007. Large eddy simulation of shading effects on NO₂and O₃concen- trations within an idealised street canyon. Atmospheric Environment, 41: 7304-7314.
[25]	Hang J, Li Y. 2012. Macroscopic simulations of turbulent flows through high-rise building arrays using a porous turbulence model. Building and Environment, 49: 41-52.
[26]	Huang S H, Li Q S, Xu S. 2007. Numerical evaluation of wind effects on a tall steel building by “CFD”. J.Construct. Steel Res, 63: 612-627.
[27]	Hinds W C. 1999. Aerosol Technology: Properties, Behaviors, and Measurements of Airborne Particles, 2^ndEdition, John Wiley & Sons, Inc., New York, NY.
[28]	Jenkin M E, Saunders S M, Pilling M J. 1997. The tropospheric degradation of volatile organic compounds:A protocol for mechanism development. Atmospheric Environment, 31: 81-104.
[29]	Ketzel M, Berkowicz R. 2004. Modelling the fate of ultrafine particles from exhaust pipe to rural background:An analysis of time scales for dilution, coagulation and deposition. Atmospheric Environment, 38: 2639- 2652.
[30]	Kikumoto H, Ooka R. 2012. A numerical study of air pollutant dispersion with bimolecular chemical reactions in an urban street canyon using large-eddy simulation. Atmospheric Environment, 54: 456-464.
[31]	Kim M J, Park R J, Kim J J. 2012. Urban air quality modeling with full O₃-NO_x-VOC chemistry: Impli- cations for O₃and PM air quality in a street canyon. Atmospheric Environment, 47: 330-340.
[32]	Kim Y, Castro I P, Xie Z T. 2013. Divergence-free turbulence inflow conditions for large-eddy simulations with incompressible flow solvers computers and fluids. Comput. Fluids, 84: 56-68.
[33]	Lai A C K, Chen F Z. 2007. Comparison of a new Eulerian model with a modified Lagrangian approach for particle distribution and deposition indoors. Atmos. Environ., 41: 5249-5256.
[34]	McHugh C A, Carruthers D J, Edmunds H A. 1997. ADMS-Urban: An air quality management system for tra±c, domestic and industrial pollution. International Journal of Environment and Pollution, 8: 666-674.
[35]	Moonen P, Blocken B, Roels S, Carmeliet J. 2006. Numerical modeling of the flow conditions in a closed- circuit low-speed wind tunnel. J Wind Eng Ind Aerodyn, 94: 699-723.
[36]	Moeng C H, Dudhia J, Klemp J, Sullivan P. 2007. Examining two-way grid nesting for large eddy simulation of the PBL using the WRF model. Monthly Weather Review, 135: 2295-2311.
[37]	Moss G F, Wardlaw R L. 1970. A standard tall building model for comparison of simulated natural wind in wind tunnels. Technical Report C.C.662m Tech.25. C.A.A.R.C.
[38]	Murakami S. 1998. Overview of turbulence models applied in CWE – 1997. J. Wind Eng. Ind. Aerod., 74: 1 – 24,
[39]	Nikolova I, Janssen S, Vos P, Berghmans P. 2014. Modelling the mixing of size resolved tra±c induced and background ultrafine particles from an urban street canyon to adjacent backyards. Aerosol and Air Quality Research, 14: 145-155.
[40]	Nikolova I, Janssen S, Vos P, Vrancken K, Mishra V, Berghmans P. 2011. Dispersion modelling of tra±c induced ultrafine particles in a street canyon in Antwerp, Belgium and comparison with observations.Science of the Total Environment, 412: 336-343.
[41]	Oberdorster G, Utell, M J. 2002. Ultrafine particles in the urban air: To the respiratory tract-and beyond?Environmental Health Perspectives, 110: A440-A441.
[42]	Owen J, Sterling M, Hargreaves D, Baker C J, eds. 2013. Fifty Years of Wind Engineering (Prestige Lectures from the Sixth European and African Conference on Wind Engineering, UK).
[43]	Pascheke F, Barlow J F, Robins A. 2008. Wind-tunnel modelling of dispersion from a scalar area source in urban-like roughness. Bound.-Layer Meteorol, 126: 103-124.
[44]	Pratsinis S E, Vemury S. 1996. Particle formation in gases: a review. Powder Technology, 88: 267-273.
[45]	Richards K, Schatzmann M, Leitl B. 2006. Wind tunnel experiments modelling the thermal effects within the vicinity of a single block building with leeward wall heating. J Wind Eng Ind Aerodyn, 94: 621-636
[46]	Seinfeld J H, Pandis S N. 2006. Atmospheric Chemistry and Physics: from Air Pollution to Climate Change,John Wiley & Sons, New York, NY.
[47]	Settumba N, Garrick S C. 2003, Direct numerical simulation of nanoparticle coagulation in a temporal mixing layer via a moment method. J. Aerosol Sci., 34: 149-167.
[48]	Soulhac L, Salizzoni P, Cierco F X, Perkins R. 2011. The model SIRANE for atmospheric urban pollutant dispersion; Part I, presentation of the model. Atmos. Environ., 45: 7379-7395.
[49]	Sullivan P P, McWilliams J, Moeng C H. 1996. A grid nesting method for large-eddy simulation of planetary boundary-layer flows. Bound.-Layer Meterol., 80: 167-202.
[50]	Tamura Y, Pham V P. 2014. Development of "CFD" and applications: monologue by a non-CFD-expert.In: Int. Sym. Comp. Wind Eng., Jun, 2014, Hamburg.
[51]	Wood C R, Lacser A, Barlow J F, Padhra A, Belcher S E, Nemitz E, Helfter C, Famulari D, Grimmond C S B. 2010. Turbulent flow at 190 metres above London during 2006-2008: A climatology and the applicability of similarity theory. Bound-Layer Meteorol, 137: 77-96.
[52]	Wright N G, Hargreaves D M. 2013. Environmental Applications of Computational Fluid Dynamics. In:Wainwright J, Mulligen M, eds. Environmental Modelling: Finding Simplicity in Complexity, 2nd Edition.Wiley.
[53]	Xie Z T, Castro I P. 2008. E±cient generation of inflow conditions for LES of street-scale flows. Flow, Turb. & Com., 81: 449-470.
[54]	Xie Z T, Coceal O, Castro I P. 2008. Large-eddy simulation of flows over random urban-like obstacles.Bound-Layer Meteorol, 129: 1-23
[55]	Xie Z T, Voke P R, Hayden P, Robins A G. 2004. Large-eddy simulation of turbulent flow over a rough surface. Bound.-Layer Meteorol, 111: 417-440.
[56]	Xie Z T, Castro I P. 2006. LES and RANS for turbulent flow over arrays of wall-mounted obstacles. Flow Turbul Combust, 76: 291-312.
[57]	Xie Z T, Castro I P. 2008. E±cient generation of inflow conditions for large-eddy simulation of street- scale flows. Flow, Turbul. Combust, 81: 449-470.
[58]	Xie Z T, Castro I P. 2009. LES for flow and dispersion in urban streets. Atmos. Environ., 43: 2174-2185.
[59]	Xie Z T. 2011. Modelling street-scale flow and dispersion in realistic winds-towards coupling with mesoscale meteorological models. Bound.-Layer Meteorol., 135: 433-454.
[60]	Xie Z T, Hayden P, Robins A G, Voke P R. 2007. Modelling extreme concentration from a source in a turbulent flow over rough wall. Atmospheric Environment, 41: 3395-3406.
[61]	Xie Z T, Hayden P, Wood C R. 2013. Large-eddy simulation of approaching-flow stratification on dispersion over arrays of buildings. Atmospheric Environment, 71: 64-74.
[62]	Zhong J, Cai X M, Bloss W J. 2014. Modelling segregation effects of heterogeneous emissions on ozone levels in idealised urban street canyons: Using photochemical box models. Environmental Pollution, 188: 132-143.