Penthouses’ impact on the wind flow structure and pollution distribution in the street canyons with or without balconies on building facades

This research is focused on how the different shape and parts (penthouses balconies, etc.) of a building with an aspect ratio of 2.33 takes part firstly to the creation of the flow field around it and secondly to the distribution of pollutants concentration. For the simulation a Computational Fluid...

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Veröffentlicht in:Environmental fluid mechanics (Dordrecht, Netherlands : 2001) Netherlands : 2001), 2023-08, Vol.23 (4), p.907-942
Hauptverfasser: Karkoulias, V. A., Marazioti, P. E., Georgiou, D. P., Maraziotis, E. A.
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container_title Environmental fluid mechanics (Dordrecht, Netherlands : 2001)
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creator Karkoulias, V. A.
Marazioti, P. E.
Georgiou, D. P.
Maraziotis, E. A.
description This research is focused on how the different shape and parts (penthouses balconies, etc.) of a building with an aspect ratio of 2.33 takes part firstly to the creation of the flow field around it and secondly to the distribution of pollutants concentration. For the simulation a Computational Fluid Dynamic package (ANSYS-FLUENT) was used. The closure of the dynamic flow equations employed the steady state κ - ε RNG (Re-Normalized Group theory) method. In order to achieve a good compromise between accuracy and computational time, the flow domain was divided into 2 regions, each with its own grid. The street canyon (height = 28 m, width = 12 m) incorporated a finer structured Quad (Cartesian) grid of uniform spacing whereas for the remaining domain (above the canyon) incorporated a coarser structured mesh of tetrahedral elements. Numerical results illustrate the formation of the vortices (i.e. number, nature, rotation rate) inside the canyon and the vertical concentration profiles of the aerosol particles. It is demonstrated that the presence of the penthouses helps the pollutant to escape from the cavity. The vorticity patterns are more complex for the penthouse scenarios compared to the scenarios without them showing more turbulence and mixing.
doi_str_mv 10.1007/s10652-023-09939-9
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subjects Aeronautics
Aerosol concentrations
Aerosol particles
Air pollution
Aspect ratio
Atmospheric boundary layer
Building facades
Buildings
Classical Mechanics
Computer applications
Computing time
Distribution
Earth and Environmental Science
Earth Sciences
Environmental impact
Environmental Physics
Finite element method
Flow equations
Flow structures
Fluid dynamics
Fluid flow
Fluid mechanics
Group theory
Hydrogeology
Hydrology/Water Resources
Indoor air quality
Investigations
Mechanical engineering
Oceanography
Original Article
Outdoor air quality
Pollutants
Pollution
Reynolds number
Roads & highways
Simulation
Street canyons
Turbulence
Turbulence models
Urban areas
Velocity
Vortices
Vorticity
Wind flow
title Penthouses’ impact on the wind flow structure and pollution distribution in the street canyons with or without balconies on building facades
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